Intelligent Materials and Systems Lab - User contributions [en]

https://ims.ut.ee/api.php?action=feedcontributions&feedformat=atom&user=Hans+priks Intelligent Materials and Systems Lab - User contributions [en] 2026-11-14T15:05:33Z User contributions MediaWiki 1.38.2 https://ims.ut.ee/index.php?title=Bioengineering&diff=48623 Bioengineering 2026-10-20T08:35:19Z

<p>Hans priks: </p> <hr /> <div>[[File:Embedded_prime.jpg|thumb|right|500px|Embedded Yeast Colony]]<br /> == Our vision and goal ==<br /> <br /> ====Bioengineering & Functional Biomaterials====<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> ====Engineered Living Materials (ELMs)====<br /> <br /> We design and investigate engineered living materials that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> ====Functional Hydrogels and 3D Printing====<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> ====Biohybrid Materials and Microbial Immobilisation====<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> ====Bio-based Functional Materials and Sensing====<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Electrochemical methods and characterisation, including cyclic voltammetry and electrochemical impedance spectroscopy.<br /> * Computational modelling and numerical simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Materials Engineering}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Robotics&diff=48622 Robotics 2026-10-20T08:33:09Z

<p>Hans priks: /* Primary contact */</p> <hr /> <div>== Goal and motivation for robotics at IMS Lab ==<br /> [[Image:Ims-robotics logo on white.png|thumb|300px]]<br /> Robots are developed for improving the quality of our lives. Human-Robot Collaboration encompasses developing usable robots that make our everyday lives easier. Collaborative robots share their autonomy with human partners, thus improving the efficiency and quality of work in areas such as flexible manufacturing, logistics, domestic assistance, healthcare, and teleoperation in hazardous environments. We have extensive experience in research and technology of every aspect of robotics: designing electronics, mechanical engineering, software development, system integration, device building, education, and training.<br /> <br /> == Highlights ==<br /> * [https://github.com/temoto-framework/temoto TeMoto], framework for dependable robotics,<br /> * omnidirectional [http://robotont.ut.ee robotont] platform for education and research in ROS,<br /> * [https://semubot.ee/ SemuBot] - Estonia's first socially-assistive humanoid robot<br /> * Self-deployable Habitat for Extreme Environments ([http://www.shee.eu SHEE]),<br /> * Massive open online courses (MOOC) about robotics in Estonia (https://sisu.ut.ee/robot & https://sisu.ut.ee/rosak/).<br /> [[#Portfolio|Jump to portfolio]]<br /> <br /> == Capabilities ==<br /> === Equipment ===<br /> Our inventory includes but is not limited to:<br /> <gallery mode="packed"><br /> File:Youbot.png|120px|thumb|KUKA youBot<br /> File:Ur5_left.png|120px|thumb|Universal Robot UR5<br /> File:Franka_Emika_Panda.jpg|120px|thumb|Franka Emika Panda<br /> File:Clearpath_Jackal.jpg|120px|thumb|Clearpath Jackal<br /> File:Kinova_KG-3_Gripper.jpg|120px|thumb|Kinova 3-finger gripper<br /> File:Xarm7.jpg|120px|thumb|UFACTORY xArm7<br /> File:Robotont_banner.png|120px|thumb|robotont<br /> File:Turtlebot3-waffle-pi.jpg|thumb|TurtleBot3<br /> File:Parrot-bebop-2.jpg|thumb|Parrot Bebop 2<br /> </gallery><br /> <br /> * PAL Robotics TIAGo<br /> * MiR100<br /> * Robotiq 2F<br /> * ClearBot<br /> * OSVR<br /> * Oculus Rift<br /> * Intel RealSense, Kinect, Leap Motion Controller, Ouster OS-1<br /> <br /> === Skills ===<br /> * ROS (Robot Operating System)<br /> * Full robotics system development<br /> * Hardware integration<br /> * Process automation<br /> * Motion planning and control theory<br /> * System identification<br /> * Data fusion<br /> * Electronics design<br /> * Simulations and digital twins<br /> * Algorithm development<br /> * Scientific publication<br /> * ROS and engineering trainings<br /> <br /> == Primary contact ==<br /> <br /> {{Team|<br /> {{TeamMember|Karl|Karl Kruusamäe|Professor of Human-Centred Robotics, [[IMS robotics]]}}<br /> {{TeamMember|Alvo|Alvo Aabloo|professor, head of the IMS lab}}<br /> }}<br /> <br /> == Student projects ==<br /> We always welcome new motivated students who are interested in robotics to join our team. We offer student projects on the following general topics:<br /> * intuitive teleoperation interfaces,<br /> * collaborative robotics for flexible manufacturing,<br /> * social robotics,<br /> * autonomous ground vehicles,<br /> * autonomous drones,<br /> * robotics education.<br /> A list of potential student projects in '''[[student projects in robotics|robotics]]''' or '''[[Soft_robotics_student_projects|soft robotics]]'''.<br /> <br /> == Portfolio ==<br /> ===Selected projects===<br /> * [https://github.com/temoto-framework/temoto TeMoto] - framework for building dependable robotic applications for facilitating human-robot collaboration and autonomy (in collaboration with the [http://robotics.me.utexas.edu/ Nuclear and Applied Robotics Group at UT-Austin]).<br /> * [https://semubot.ee/ SemuBot] - Estonia's first socially-assistive humanoid robot<br /> * [https://www.yanu.ai/ Yanu] - fully autonomous robot empowered bartending unit<br /> * [https://robotont.ut.ee robotont] - open source omnidirectional mobile robot platform<br /> * [https://spacearchitect.org/portfolio-item/self-deployable-habitat-for-extreme-environments/ SHEE] - '''S'''elf-deployable '''H'''abitat for '''E'''xtreme '''E'''nvironments, aka "the Mars house"<br /> <br /> === Selected publications ===<br /> * Dāvis Krūmiņš, Sandra Schumann, Veiko Vunder, Rauno Põlluäär, Kristjan Laht, Renno Raudmäe, Alvo Aabloo, Karl Kruusamäe (2024) {{doi-inline|10.1109/TLT.2024.3381858|Open remote web lab for learning robotics and ROS with physical and simulated robots in an authentic developer environment}}, ''IEEE Transactions on Learning Technologies'' '''17''', 1325 - 1338. <br /> *Selma Wanna, Fabian Parra, Robert Valner, Karl Kruusamäe, Mitch Pryor (2024) {{doi-inline|10.1080/01691864.2024.2366974|Unlocking underrepresented use-cases for large language model-driven human-robot task planning}}, ''Advanced Robotics'' '''38'''(18), 1335-1348. <br /> * Houman Masnavi, Jatan Shrestha, Karl Kruusamäe, Arun Kumar Singh (2023) {{doi-inline|0.1109/LRA.2023.3312969|VACNA: Visibility-Aware Cooperative Navigation with Application in Inventory Management}}, ''IEEE Robotics and Automation Letters'' '''8'''(11), 7114 - 7121.<br /> * Renno Raudmäe, Sandra Schumann, Veiko Vunder, Maarika Oidekivi, Madis Kaspar Nigol, Robert Valner, Houman Masnavi, Arun Kumar Singh, Alvo Aabloo, Karl Kruusamäe (2023) {{doi-inline|10.1016/j.ohx.2023.e00436|ROBOTONT–Open-source and ROS-supported omnidirectional mobile robot for education and research}}, ''HardwareX'' '''14''', e00436.<br /> * Robert Valner, Houman Masnavi, Igor Rybalskii, Rauno Põlluäär, Erik Kõiv, Alvo Aabloo, Karl Kruusamäe, Arun Kumar Singh (2022) {{doi-inline|10.3389/frobt.2022.922835|Scalable and heterogenous mobile robot fleet-based task automation in crowded hospital environments—a field test}}, ''Frontiers in Robotics and AI'' '''9''', 922835.<br /> * Robert Valner, Veiko Vunder, Alvo Aabloo, Mitch Pryor, Karl Kruusamäe (2022) {{doi-inline|10.1109/access.2022.3173647|TeMoto: A Software Framework for Adaptive and Dependable Robotic Autonomy With Dynamic Resource Management}}, ''IEEE Access'' '''10''', 51889 - 51907.<br /> * Robert Valner, Jason Mario Dydynski, Sookyung Cho, Karl Kruusamäe (2021) {{doi-inline|10.1177/0018720820902293|Communication of Hazards in Mixed-Reality Telerobotic Systems: The Usage of Naturalistic Avoidance Cues in Driving Tasks}}, ''Human Factors: The Journal of the Human Factors and Ergonomics Society'' '''63'''(4), 619-634.<br /> * Veiko Vunder, Robert Valner, Conor McMahon, Karl Kruusamäe, Mitch Pryor (2018) {{doi-inline|10.1109/HSI.2018.8431062|Improved Situational Awareness in ROS using Panospheric Vision and Virtual Reality}}, ''2018 11th International Conference on Human System Interaction (HSI)'', 471 - 477.<br /> [[Our_publications|Full list of publications]]<br /> <br /> === Outreach ===<br /> * Massive open online course (MOOC) about ROS (Robot Operating System) robotics in Estonian (https://sisu.ut.ee/rosak).<br /> * Massive open online course (MOOC) about robotics in Estonian (https://sisu.ut.ee/robot).<br /> * Professional [https://sisu.ut.ee/ros ROS trainings] in Estonia<br /> * [http://www.robootika.ee/ School Robotics]<br /> <br /> [[Category:IMS-robotics]]</div>

Hans priks https://ims.ut.ee/index.php?title=Computational_Materials&diff=48621 Computational Materials 2026-10-20T08:32:08Z

<p>Hans priks: /* Members */</p> <hr /> <div>== Our vision, goal and what we do ==<br /> <br /> [[File:multiscale.png|200px|thumb|right| Simulations heat transfer and mechanical stress of FCC metal in multiscale framework.]]<br /> <br /> Computer simulations are some of the most fascinating tools made available due to the development of modern computational technology. Simulations in physics, chemistry, materials science, engineering etc. allow us to obtain detailed information of the phenomena of interest and provide often complete 3D and time dependent information of quantities like electromagnetic fields, temperature, forces and mechanical stresses, deformations. Such information leads to deep insights and understanding of nature around us, opening ways to understand complex physical and chemical processes and to the development of novel technologies and applications.<br /> <br /> The simulation activities conducted in the lab involve all levels from atomistic to macroscopic (DFT -> Molecular Dynamics -> Monter Carlo -> Finite Elements), including combinations of these methods i.e. multi scale simulations. The core capacity involves both, computational studies of materials and development of new methodology. <br /> <br /> Some examples of applications:<br /> <br /> * Mechanics<br /> * CFD (turbulent & laminar) <br /> * Heat transport<br /> * Electric and magnetic fields<br /> * Chemical reactions<br /> * Acoustics<br /> * Multiphysics combinations of these phenomena!<br /> <br /> === Image gallery ===<br /> <br /> <gallery mode="packed-hover"><br /> file:multiscale.png|''Multiscaling with FEM in nano-contact''<br /> file:strainsfinal_facebook.jpg|"Shear strain field around nanovoid in MD and FEM"<br /> file:tension2.gif|"Animation of stress and deformation in Cu during tensile testing"<br /> file:Foam_Graphical_abstract_png.png|"Ionic transport in 3D microbattery."<br /> </gallery><br /> <br /> === Tools we use ===<br /> * Comsol Multiphysics [https://www.comsol.com/]<br /> * LAMMPS [http://lammps.sandia.gov/]<br /> * DEAL.II open source finite element library [http://dealii.org/]<br /> * OpenFOAM CFD [https://www.openfoam.com/]<br /> * FEMOCS (https://github.com/veskem/femocs)<br /> <br /> <br /> == Research Projects ==<br /> === Ongoing Activities ===<br /> * [https://edukad.etag.ee/project/4359 Horizon 2020 ERA Chair MATTER]<br /> * [[PUT 1372 - Mechanisms of vacuum arching in high electric field systems]]<br /> <br /> === Ongoing PhD Projects ===<br /> * [[Computer assisted design and development of tailored nanostructures]]<br /> * [[Mechanisms of vacuum arching in high electric field systems]]<br /> * [[Development and optimization of flow electrode capacitor technology]]<br /> <br /> === Glory and Success ===<br /> * [https://novaator.err.ee/944778/mis-suunas-areneb-nanotehnoloogia Novaator - mis suunas areneb nanotehnoloogia]<br /> * [http://bonnier2b.ee/trykised/innovatiiv_2017.pdf Arvutisimulatsioonid ja nende rakendused disainis]<br /> * [https://www.uttv.ee/naita?id=26381 Tartu Ülikooli demopäev - Arvutisimulatsioonid tootearenduses]<br /> * [[PUT 57 - Multiscale simulations of dislocation generation in rf electric fields in the linear accelerator design (01.01.2013 - 31.12.2016)]]<br /> * [[ETF 9216 - Development and optimization of 3D-microbatteries (01.01.2012-31.21.2015)]]<br /> <br /> === Student projects ===<br /> * [[Materjalidefektide simuleerimine kõrgetes elektriväljades]]<br /> * [[Järgmise generatsiooni bioreaktorid]]<br /> * [[Ehitiste konstruktsioonielementide multiskaala mudelite arendamine]]<br /> * [[Virtuaalreaalsus keskkonnad teaduarvutusteks ja andmeanalüüsiks]]<br /> <br /> <br /> == Members ==<br /> <br /> {{Team|<br /> {{TeamMember|Vahur|Vahur Zadin|senior researcher (finite element modelling, molecular dynamics, high electric fields, CERN))}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Materials Engineering}}<br /> {{TeamMember|Heiki|Heiki Kasemägi|senior researcher (ion-conducting polymer, computer simulations) & Computer engineering study programme manager}}<br /> {{TeamMember|Alvo|Alvo Aabloo| professor, head of the IMS lab}}<br /> {{TeamMember|Kristiankuppart|Kristian Kuppart|PhD student (MD in high electric fields)}}<br /> {{TeamMember|Faiza|Faiza Summer|PhD student (Flow-capacitor)}}<br /> {{TeamMember|Ats.aasmaa|Ats Aasmaa|student (modelling of microbatteries)}}<br /> {{TeamMember|Mihkel.Veske|Mihkel Veske|in Helsinki University}}<br /> {{TeamMember|ye.wang|Ye Wang|PhD student (Design and development of tailored nanostructures)}}<br /> }}<br /> <br /> === Friends and collaborators ===<br /> <br /> * Flyura Djurabekova (Helsinki University)<br /> * Ville Jansson (Helsinki University)<br /> * Walter Wuench (CERN)<br /> * Daniel Brandell (Uppsala University)<br /> * Sergei Vlassov (UT, Institute of Physics)<br /> <br /> <br /> <br /> ==Publications==<br /> (All references in Harvard style from Google Scholar)<br /> <br /> # [[Data sets of migration barriers for atomistic Kinetic Monte Carlo simulations of Cu self-diffusion via first nearest neighbour atomic jumps. Data in Brief, 17, pp.739-743|Baibuz, E., Vigonski, S., Lahtinen, J., Zhao, J., Jansson, V., Zadin, V. and Djurabekova, F., 2018. Data sets of migration barriers for atomistic Kinetic Monte Carlo simulations of Cu self-diffusion via first nearest neighbour atomic jumps. Data in Brief, 17, pp.739-743]]<br /> # Zadin, V., Veske, M., Vigonski, S., Jansson, V., Muszynski, J., Parviainen, S., Aabloo, A. and Djurabekova, F., 2018. Simulations of surface stress effects in nanoscale single crystals. Modelling and Simulation in Materials Science and Engineering.<br /> # Metspalu, T., Jansson, V., Zadin, V., Avchaciov, K., Nordlund, K., Aabloo, A. and Djurabekova, F., 2018. Cu self-sputtering MD simulations for 0.1–5 keV ions at elevated temperatures. Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms, 415, pp.31-40.<br /> # Vigonski, S., Jansson, V., Vlassov, S., Polyakov, B., Baibuz, E., Oras, S., Aabloo, A., Djurabekova, F. and Zadin, V., 2017. Au nanowire junction breakup through surface atom diffusion. Nanotechnology, 29(1), p.015704.<br /> #Kyritsakis, A., Veske, M., Eimre, K., Zadin, V. and Djurabekova, F., 2017. Thermal runaway and evaporation of metal nano-tips during intense electron emission. arXiv preprint arXiv:1710.00050.<br /> #Priimägi, P., Kasemägi, H., Aabloo, A., Brandell, D. and Zadin, V., 2017. Thermal Simulations of Polymer Electrolyte 3D Li-Microbatteries. Electrochimica Acta, 244, pp.129-138.<br /> #Baibuz, E., Vigonski, S., Lahtinen, J., Zhao, J., Jansson, V., Zadin, V. and Djurabekova, F., 2017. Migration barriers for surface diffusion on a rigid lattice: challenges and solutions. arXiv preprint arXiv:1707.05765.<br /> #Veske, M., Kyritsakis, A., Eimre, K., Zadin, V., Aabloo, A. and Djurabekova, F., 2017. Dynamic coupling of a finite element solver to large-scale atomistic simulations. arXiv preprint arXiv:1706.09661.<br /> #Yanagisawa, H., Zadin, V., Kunze, K., Hafner, C., Aabloo, A., Kim, D.E., Kling, M.F., Djurabekova, F., Osterwalder, J. and Wuensch, W., 2016. Laser-induced asymmetric faceting and growth of a nano-protrusion on a tungsten tip. APL Photonics, 1(9), p.091305.<br /> #Mets, M., Antsov, M., Zadin, V., Dorogin, L.M., Aabloo, A., Polyakov, B., Lõhmus, R. and Vlassov, S., 2016. Structural factor in bending testing of fivefold twinned nanowires revealed by finite element analysis. Physica Scripta, 91(11), p.115701.<br /> #CLIC, T., Boland, M.J., Felzmann, U., Giansiracusa, P.J., Lucas, T.G., Rassool, R.P., Balazs, C., Charles, T.K., Afanaciev, K., Emeliantchik, I. and Ignatenko, A., 2016. Updated baseline for a staged Compact Linear Collider. arXiv preprint arXiv:1608.07537.<br /> #Priimägi, P., Brandell, D., Srivastav, S., Aabloo, A., Kasemägi, H. and Zadin, V., 2016. Optimizing the design of 3D-pillar microbatteries using finite element modelling. Electrochimica Acta, 209, pp.138-148.<br /> #Veske, M., Kyritsakis, A., Djurabekova, F., Aare, R., Eimre, K. and Zadin, V., 2016, July. Atomistic modeling of metal surfaces under high electric fields: Direct coupling of electric fields to the atomistic simulations. In Vacuum Nanoelectronics Conference (IVNC), 2016 29th International (pp. 1-2). IEEE.<br /> #Veske, M., Parviainen, S., Zadin, V., Aabloo, A. and Djurabekova, F., 2016. Electrodynamics—molecular dynamics simulations of the stability of Cu nanotips under high electric field. Journal of Physics D: Applied Physics, 49(21), p.215301.<br /> #Vigonski, S., Veske, M., Aabloo, A., Djurabekova, F. and Zadin, V., 2015. Verification of a multiscale surface stress model near voids in copper under the load induced by external high electric field. Applied Mathematics and Computation, 267, pp.476-486.<br /> #Zadin, V., Kasemägi, H., Valdna, V., Vigonski, S., Veske, M. and Aabloo, A., 2015. Application of multiphysics and multiscale simulations to optimize industrial wood drying kilns. Applied Mathematics and Computation, 267, pp.465-475.<br /> #Eimre, K., Parviainen, S., Aabloo, A., Djurabekova, F. and Zadin, V., 2015. Application of the general thermal field model to simulate the behaviour of nanoscale Cu field emitters. Journal of Applied Physics, 118(3), p.033303.<br /> #Vigonski, S., Djurabekova, F., Veske, M., Aabloo, A. and Zadin, V., 2015. Molecular dynamics simulations of near-surface Fe precipitates in Cu under high electric fields. Modelling and Simulation in Materials Science and Engineering, 23(2), p.025009.<br /> #Zadin, V., Krasheninnikov, A.V., Djurabekova, F. and Nordlund, K., 2015. Simulations of electromechanical shape transformations of Au nanoparticles. physica status solidi (b), 252(1), pp.144-148.<br /> #Zadin, V., Pohjonen, A., Aabloo, A., Nordlund, K. and Djurabekova, F., 2014. Electrostatic-elastoplastic simulations of copper surface under high electric fields. Physical Review Special Topics-Accelerators and Beams, 17(10), p.103501.<br /> #Zadin, V., Brandell, D., Kasemägi, H., Lellep, J. and Aabloo, A., 2013. Designing the 3D-microbattery geometry using the level-set method. Journal of Power Sources, 244, pp.417-428.<br /> <br /> <br /> ==Defended theses==<br /> <br /> === Masters Theses ===<br /> * Kristjan Eimre<br /> * Kristian Kuppart<br /> * Robert Aare<br /> <br /> <br /> === Bachelor's theses ===<br /> <br /> * [[Kristjan Eimre - title]]<br /> * [[Kristian Kuppart - title]]<br /> </div>

Hans priks https://ims.ut.ee/index.php?title=People&diff=48620 People 2026-10-20T08:30:43Z

<p>Hans priks: /* Staff */</p> <hr /> <div>{{DISPLAYTITLE:The Lab's Team}} __NOTOC__<br /> == Staff ==<br /> <br /> {{Team|<br /> {{TeamMember|Alvo|Alvo Aabloo|Professor of Polymeric Materials}} <br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Materials Engineering}}<br /> {{TeamMember|Karl|Karl Kruusamäe|Professor of Human-Centred Robotics, [[IMS robotics]]}}<br /> {{TeamMember|Indrekm|Indrek Must|Associate Professor of Soft Robotics}}<br /> {{TeamMember|Heiki|Heiki Kasemägi|Associate Professor (ion-conducting polymer, computer simulations) & Computer engineering study programme manager}}<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Urmas|Urmas Johanson|Research Fellow in Materials Technology (electrochemistry)}}<br /> {{TeamMember|Annaliisa|Anna-Liisa Peikolainen|Research Fellow in Materials Technology (carbon materials, chemistry, microfabrication)}}<br /> {{TeamMember|Ingridre|Ingrid Rebane|Research Fellow in Sustainable Materials (cellulose, silicone, elastomeric foams)}}<br /> {{TeamMember|Veix|Veiko Vunder|Lecturer (robotics)}}<br /> {{TeamMember|Jkalde|Jaanus Kalde|Lecturer in Radio Engineering}}<br /> {{TeamMember|Artur|Artur Abels|Junior Lecturer (digital electronics)}}<br /> {{TeamMember|Rennoraudmae|Renno Raudmäe|Junior Lecturer (robotics)}}<br /> {{TeamMember|Eva.m6tsh2rg|Eva Mõtshärg|Junior Lecturer (robotics design)}}<br /> {{TeamMember|Teet|Teet Tilk|Engineer (electronics)}}<br /> {{TeamMember|Tauri|Tauri Tätte|Engineer (robotics)}}<br /> {{TeamMember|Aune|Aune Tamm|Head of Administration}}<br /> {{TeamMember|Anett|Anett Toom|Project Assistant}}<br /> {{TeamMember|Kirsi|Kirsi Zirel|Project Assistant}}<br /> {{TeamMember|Mariana|Mariana Kukk|Delta X Coordinator and Communications Manager}}<br /> {{TeamMember|krisliin|Krisliin Rohtla|Industrial Masters Coordinator and Communication}}<br /> <br /> }}<br /> <br /> == PhD Students ==<br /> <br /> {{Team|<br /> {{TeamMember|Oleksandr.syzoniuk|Oleksandr Syzoniuk|PhD student (soft robotics)}}<br /> {{TeamMember|mvihmar|Marie Vihmar|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Kadriannvaldur|Kadri-Ann Valdur|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Siimkoort|Siim Koor|PhD student (geopolymers 3D printing)}}<br /> {{TeamMember|not-yet|Lisette Nagel|PhD student (biomaterials 3D printing)}}<br /> {{TeamMember|Sandra|Sandra Schumann|PhD student (robotics education)}}<br /> {{TeamMember|not-yet|Agnes Luhtaru|PhD student (multimodal human-robot interaction)}}<br /> {{TeamMember|Farnaz|Farnaz Baksh|PhD student (social robotics)}}<br /> {{TeamMember|Liis.tiisvelt|Liis Tiisvelt|PhD student (materials)}}<br /> {{TeamMember|Matevz|Matevž B. Zorec|PhD student (IoT and IoRT)}}<br /> {{TeamMember|DavidU|David Uslar|PhD student (materials)}}<br /> {{TeamMember|karljakob|Karl Jakob Levin|PhD student (materials)}}<br /> <br /> }}<br /> <br /> <br /> <br /> {{Team|<br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> }}<br /> <br /> ==Colleagues==<br /> <br /> {{Team|<br /> {{TeamMember|Rosin|Margus Rosin|lecturer (FPGA)}}<br /> {{TeamMember|Ramon.rantsus|Ramon Rantsus|educational robotics}}<br /> {{TeamMember|Iman.dadras|Iman Dadras| (Microfabrication)}}<br /> {{TeamMember|Fatemeh.rastgar|Fatemeh Rastgar|(Robotics)}}<br /> {{TeamMember|Pille|Pille Rinne| }}<br /> {{TeamMember|Gajanee|Kaija Põhako-Esko|associate professor of materials chemistry, former Marie Skłodowska-Curie fellow (chemistry, organic synthesis, ionic liquids)}}<br /> {{TeamMember|Frkaasik|Friedrich Kaasik| Head of Knowledge Transfer }}<br /> {{TeamMember|yauheni|Yauheni Sarokin|PhD student (Variable stiffness textiles)}}<br /> <br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=People&diff=48619 People 2026-10-20T08:22:23Z

<p>Hans priks: /* Staff */</p> <hr /> <div>{{DISPLAYTITLE:The Lab's Team}} __NOTOC__<br /> == Staff ==<br /> <br /> {{Team|<br /> {{TeamMember|Alvo|Alvo Aabloo|professor, head of the lab (polymer materials)}} <br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Materials Engineering}}<br /> {{TeamMember|Karl|Karl Kruusamäe|professor of human-centred robotics, [[IMS robotics]]}}<br /> {{TeamMember|Indrekm|Indrek Must|associate professor of soft robotics}}<br /> {{TeamMember|Heiki|Heiki Kasemägi|associate professor (ion-conducting polymer, computer simulations) & Computer engineering study programme manager}}<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Urmas|Urmas Johanson|researcher (electrochemistry)}}<br /> {{TeamMember|Annaliisa|Research Fellow in Materials Technology (carbon materials, chemistry)}}<br /> {{TeamMember|Ingridre|Ingrid Rebane|research fellow (sustainable materials technologies, cellulose, silicone, elastomeric foams)}}<br /> {{TeamMember|Veix|Veiko Vunder|lecturer (robotics)}}<br /> {{TeamMember|Jkalde|Jaanus Kalde|Lecturer in Radio Engineering}}<br /> {{TeamMember|Artur|Artur Abels|junior lecturer (digital electronics)}}<br /> {{TeamMember|Rennoraudmae|Renno Raudmäe|junior lecturer (robotics)}}<br /> {{TeamMember|Eva.m6tsh2rg|Eva Mõtshärg|junior lecturer (robotics design)}}<br /> {{TeamMember|Teet|Teet Tilk|engineer (electronics)}}<br /> {{TeamMember|Tauri|Tauri Tätte|engineer (robotics)}}<br /> {{TeamMember|Aune|Aune Tamm|head of administration}}<br /> {{TeamMember|Anett|Anett Toom|project assistant}}<br /> {{TeamMember|Kirsi|Kirsi Zirel|project assistant}}<br /> {{TeamMember|Mariana|Mariana Kukk|Delta X coordinator and communications manager}}<br /> {{TeamMember|krisliin|Krisliin Rohtla|industrial masters coordinator and communication}}<br /> <br /> }}<br /> <br /> == PhD Students ==<br /> <br /> {{Team|<br /> {{TeamMember|Oleksandr.syzoniuk|Oleksandr Syzoniuk|PhD student (soft robotics)}}<br /> {{TeamMember|mvihmar|Marie Vihmar|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Kadriannvaldur|Kadri-Ann Valdur|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Siimkoort|Siim Koor|PhD student (geopolymers 3D printing)}}<br /> {{TeamMember|not-yet|Lisette Nagel|PhD student (biomaterials 3D printing)}}<br /> {{TeamMember|Sandra|Sandra Schumann|PhD student (robotics education)}}<br /> {{TeamMember|not-yet|Agnes Luhtaru|PhD student (multimodal human-robot interaction)}}<br /> {{TeamMember|Farnaz|Farnaz Baksh|PhD student (social robotics)}}<br /> {{TeamMember|Liis.tiisvelt|Liis Tiisvelt|PhD student (materials)}}<br /> {{TeamMember|Matevz|Matevž B. Zorec|PhD student (IoT and IoRT)}}<br /> {{TeamMember|DavidU|David Uslar|PhD student (materials)}}<br /> {{TeamMember|karljakob|Karl Jakob Levin|PhD student (materials)}}<br /> <br /> }}<br /> <br /> <br /> <br /> {{Team|<br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> }}<br /> <br /> ==Colleagues==<br /> <br /> {{Team|<br /> {{TeamMember|Rosin|Margus Rosin|lecturer (FPGA)}}<br /> {{TeamMember|Ramon.rantsus|Ramon Rantsus|educational robotics}}<br /> {{TeamMember|Iman.dadras|Iman Dadras| (Microfabrication)}}<br /> {{TeamMember|Fatemeh.rastgar|Fatemeh Rastgar|(Robotics)}}<br /> {{TeamMember|Pille|Pille Rinne| }}<br /> {{TeamMember|Gajanee|Kaija Põhako-Esko|associate professor of materials chemistry, former Marie Skłodowska-Curie fellow (chemistry, organic synthesis, ionic liquids)}}<br /> {{TeamMember|Frkaasik|Friedrich Kaasik| Head of Knowledge Transfer }}<br /> {{TeamMember|yauheni|Yauheni Sarokin|PhD student (Variable stiffness textiles)}}<br /> <br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=People&diff=48618 People 2026-10-20T08:21:29Z

<p>Hans priks: /* Staff */</p> <hr /> <div>{{DISPLAYTITLE:The Lab's Team}} __NOTOC__<br /> == Staff ==<br /> <br /> {{Team|<br /> {{TeamMember|Alvo|Alvo Aabloo|professor, head of the lab (polymer materials)}} <br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Materials Engineering}}<br /> {{TeamMember|Karl|Karl Kruusamäe|professor of human-centred robotics, [[IMS robotics]]}}<br /> {{TeamMember|Indrekm|Indrek Must|associate professor of soft robotics}}<br /> {{TeamMember|Heiki|Heiki Kasemägi|associate professor (ion-conducting polymer, computer simulations) & Computer engineering study programme manager}}<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Urmas|Urmas Johanson|researcher (electrochemistry)}}<br /> {{TeamMember|Annaliisa|Anna-Liisa Peikolainen|researcher (carbon materials, chemistry)}}<br /> {{TeamMember|Ingridre|Ingrid Rebane|research fellow (sustainable materials technologies, cellulose, silicone, elastomeric foams)}}<br /> {{TeamMember|Veix|Veiko Vunder|lecturer (robotics)}}<br /> {{TeamMember|Jkalde|Jaanus Kalde|Lecturer in Radio Engineering}}<br /> {{TeamMember|Artur|Artur Abels|junior lecturer (digital electronics)}}<br /> {{TeamMember|Rennoraudmae|Renno Raudmäe|junior lecturer (robotics)}}<br /> {{TeamMember|Eva.m6tsh2rg|Eva Mõtshärg|junior lecturer (robotics design)}}<br /> {{TeamMember|Teet|Teet Tilk|engineer (electronics)}}<br /> {{TeamMember|Tauri|Tauri Tätte|engineer (robotics)}}<br /> {{TeamMember|Aune|Aune Tamm|head of administration}}<br /> {{TeamMember|Anett|Anett Toom|project assistant}}<br /> {{TeamMember|Kirsi|Kirsi Zirel|project assistant}}<br /> {{TeamMember|Mariana|Mariana Kukk|Delta X coordinator and communications manager}}<br /> {{TeamMember|krisliin|Krisliin Rohtla|industrial masters coordinator and communication}}<br /> <br /> }}<br /> <br /> == PhD Students ==<br /> <br /> {{Team|<br /> {{TeamMember|Oleksandr.syzoniuk|Oleksandr Syzoniuk|PhD student (soft robotics)}}<br /> {{TeamMember|mvihmar|Marie Vihmar|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Kadriannvaldur|Kadri-Ann Valdur|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Siimkoort|Siim Koor|PhD student (geopolymers 3D printing)}}<br /> {{TeamMember|not-yet|Lisette Nagel|PhD student (biomaterials 3D printing)}}<br /> {{TeamMember|Sandra|Sandra Schumann|PhD student (robotics education)}}<br /> {{TeamMember|not-yet|Agnes Luhtaru|PhD student (multimodal human-robot interaction)}}<br /> {{TeamMember|Farnaz|Farnaz Baksh|PhD student (social robotics)}}<br /> {{TeamMember|Liis.tiisvelt|Liis Tiisvelt|PhD student (materials)}}<br /> {{TeamMember|Matevz|Matevž B. Zorec|PhD student (IoT and IoRT)}}<br /> {{TeamMember|DavidU|David Uslar|PhD student (materials)}}<br /> {{TeamMember|karljakob|Karl Jakob Levin|PhD student (materials)}}<br /> <br /> }}<br /> <br /> <br /> <br /> {{Team|<br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> }}<br /> <br /> ==Colleagues==<br /> <br /> {{Team|<br /> {{TeamMember|Rosin|Margus Rosin|lecturer (FPGA)}}<br /> {{TeamMember|Ramon.rantsus|Ramon Rantsus|educational robotics}}<br /> {{TeamMember|Iman.dadras|Iman Dadras| (Microfabrication)}}<br /> {{TeamMember|Fatemeh.rastgar|Fatemeh Rastgar|(Robotics)}}<br /> {{TeamMember|Pille|Pille Rinne| }}<br /> {{TeamMember|Gajanee|Kaija Põhako-Esko|associate professor of materials chemistry, former Marie Skłodowska-Curie fellow (chemistry, organic synthesis, ionic liquids)}}<br /> {{TeamMember|Frkaasik|Friedrich Kaasik| Head of Knowledge Transfer }}<br /> {{TeamMember|yauheni|Yauheni Sarokin|PhD student (Variable stiffness textiles)}}<br /> <br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48617 Bioengineering 2026-10-20T08:21:05Z

<p>Hans priks: /* Primary contacts */</p> <hr /> <div>[[File:Embedded_prime.jpg|thumb|right|500px|Embedded Yeast Colony]]<br /> == Our vision and goal ==<br /> <br /> ====Bioengineering & Functional Biomaterials====<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> ====Engineered Living Materials (ELMs)====<br /> <br /> We design and investigate engineered living materials that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> ====Functional Hydrogels and 3D Printing====<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> ====Biohybrid Materials and Microbial Immobilisation====<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> ====Bio-based Functional Materials and Sensing====<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Electrochemical methods and characterisation, including cyclic voltammetry and electrochemical impedance spectroscopy.<br /> * Computational modelling and numerical simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Materials Engineering}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Materials&diff=48616 Materials 2026-10-20T08:20:33Z

<p>Hans priks: /* Members */</p> <hr /> <div>==Goal and motivation of IMS-Materials==<br /> <br /> Increasing requirements to the properties of new materials challenge to develop novel materials and find new approaches for their fabrication. IMS-Materials is focused on development of materials and in addition to academic [[#Basic research|basic research]], in collaboration with industry, [[#Applied & contract research|applied and contract research]] is carried out.<br /> <br /> ==Highlights==<br /> <br /> * [https://forte.delfi.ee/news/teadus/tartu-teadlased-valmistasid-koos-prantslastega-imeohukese-kuid-voimeka-tehislihase?id=80499456 Tartu teadlased valmistasid koos prantslastega imeõhukese, kuid võimeka tehislihase]<br /> <br /> ==Capabilities==<br /> All steps from materials development to device design and fabrication are covered<br /> <br /> ===Equipment===<br /> <br /> * potentiostats/galvanostats/frequenzy analyzers<br /> * SEM equipped with EDX<br /> * FT-IR spectrometer<br /> * KF titrator<br /> * dynamic mechanical analysis tool<br /> * chemistry lab equipped for organic synthesis<br /> * glove box<br /> * planetary ball mill<br /> * spin-coater<br /> * R&D micro-printing system<br /> * hot-rolling press<br /> <br /> ===Skills===<br /> <br /> * Electroactive polymers<br /> * [[Ionic Liquids|Ionic liquids]]<br /> * Microfabrication<br /> * Energy harvest and flow capacitors<br /> * [[Soft Robotics|Electroactive materials for soft robotics]]<br /> <br /> == Members ==<br /> <br /> {{Team|<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Materials Engineering}}<br /> {{TeamMember|Urmas|Urmas Johanson|Research Fellow in Materials Technology (electrochemistry)}}<br /> {{TeamMember|Annaliisa|Anna-Liisa Peikolainen|Research Fellow in Materials Technology (carbon materials, chemistry, microfabrication)}}<br /> {{TeamMember|Indrekm|Indrek Must|Associate Professor of Soft Robotics}}<br /> }}<br /> <br /> ==Student projects==<br /> <br /> [[Student projects in Materials|List of currently active and timely projects are here]]<br /> <br /> <br /> ==Portfolio==<br /> <br /> ===Selected projects===<br /> <br /> <br /> ==== Basic research ====<br /> <br /> * [[IUT 2024 - Stimuli-Responsive Smart Polymer Composite Materials and their Applications in Lab-on chip Devices and in Robotics]]-ongoing<br /> * PUT1696 - 3D printed Na-ion polymer microbatteries with carbon xerogel electrodes - ongoing<br /> * [[MOBTP 10 - Developmnt of biocompatible ionic electromechanically active polymer actuator (01.01.2017 - 31.12.2017)]]<br /> * [[ETF9236 - "Development and characterization of conducting polymer based composite materials for electromechanical applications"]] (1.01.2012−31.12.2015)<br /> * [[ETF7533 - "Design of conducting polymers of specific properties for promising applications" ]] (1.01.2008−31.12.2011)<br /> * [[ETF5830 - "Modeling of the specific properties of concuting polymers of technological interest"]] (1.01.2004−31.12.2007)<br /> <br /> ==== Applied & contract research ====<br /> <br /> * [[LLTTI17205 - Non-combustible mouldable silicone foams for public transportation seat upholstery ]]-ongoing<br /> * [[LLTTI17114 - "Development of reinforced porous concrete" ]]-ongoing<br /> * [["Soft materials for miniaturizable wearable sensory and feedback application in sports and rehabilitation ]] (01.09.2012 - 30.06.2015)<br /> * [["Toodetavate kinga- ja saapapaelte kvaliteedi parendamisele suunatud järeltöötlemistehnoloogiate väljatöötamine"]] (1.03.2012−30.10.2014)<br /> * [["Scannersock]] (15.01.2016−30.04.2016)<br /> * [["Analysis of corroding ship tubing"]](4.04.2016−31.05.2016)<br /> <br /> ===Selected publications===<br /> <br /> * Põldsalu, I., Rohtlaid, K., Nguyen, T.M.G., Plesse, C., Vidal, F., Khorram, M.S., Peikolainen, A.-L., Tamm, T., Kiefer, R. [http://doi.org/10.1016/j.snb.2017.11.147 <nowiki>Thin ink-jet printed trilayer actuators composed of PEDOT:PSS on interpenetrating polymer networks</nowiki>], Sensors and Actuators, B: Chemical, 2018.<br /> * Kisand, K., Sarapuu, A., Peikolainen, A.-L., Seemen, H., Kook, M., Käärik, M., Leis, J., Sammelselg, V., Tammeveski, K. [http://doi.org/10.1002/celc.201800353 <nowiki>Oxygen Reduction on Fe- and Co-Containing Nitrogen-Doped Nanocarbons</nowiki>], ChemElectroChem, 2018.<br /> <br /> <br /> [[Category:IMS-materials]]</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48615 Bioengineering 2026-10-20T08:12:30Z

<p>Hans priks: /* Research Projects */</p> <hr /> <div>[[File:Embedded_prime.jpg|thumb|right|500px|Embedded Yeast Colony]]<br /> == Our vision and goal ==<br /> <br /> ====Bioengineering & Functional Biomaterials====<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> ====Engineered Living Materials (ELMs)====<br /> <br /> We design and investigate engineered living materials that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> ====Functional Hydrogels and 3D Printing====<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> ====Biohybrid Materials and Microbial Immobilisation====<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> ====Bio-based Functional Materials and Sensing====<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Electrochemical methods and characterisation, including cyclic voltammetry and electrochemical impedance spectroscopy.<br /> * Computational modelling and numerical simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48614 Bioengineering 2026-10-20T08:11:59Z

<p>Hans priks: /* Examples of student research */</p> <hr /> <div>[[File:Embedded_prime.jpg|thumb|right|500px|Embedded Yeast Colony]]<br /> == Our vision and goal ==<br /> <br /> ====Bioengineering & Functional Biomaterials====<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> ====Engineered Living Materials (ELMs)====<br /> <br /> We design and investigate engineered living materials that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> ====Functional Hydrogels and 3D Printing====<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> ====Biohybrid Materials and Microbial Immobilisation====<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> ====Bio-based Functional Materials and Sensing====<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Electrochemical methods and characterisation, including cyclic voltammetry and electrochemical impedance spectroscopy.<br /> * Computational modelling and numerical simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48613 Bioengineering 2026-10-20T08:09:54Z

<p>Hans priks: </p> <hr /> <div>[[File:Embedded_prime.jpg|thumb|right|500px|Embedded Yeast Colony]]<br /> == Our vision and goal ==<br /> <br /> ====Bioengineering & Functional Biomaterials====<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> ====Engineered Living Materials (ELMs)====<br /> <br /> We design and investigate engineered living materials that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> ====Functional Hydrogels and 3D Printing====<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> ====Biohybrid Materials and Microbial Immobilisation====<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> ====Bio-based Functional Materials and Sensing====<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Electrochemical methods and characterisation, including cyclic voltammetry and electrochemical impedance spectroscopy.<br /> * Computational modelling and numerical simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated poloxamine hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48612 Bioengineering 2026-10-20T08:08:12Z

<p>Hans priks: </p> <hr /> <div>[[File:YourImage.jpg|thumb|right|500px|Embedded Yeast Colony]]<br /> == Our vision and goal ==<br /> <br /> ====Bioengineering & Functional Biomaterials====<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> ====Engineered Living Materials (ELMs)====<br /> <br /> We design and investigate engineered living materials that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> ====Functional Hydrogels and 3D Printing====<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> ====Biohybrid Materials and Microbial Immobilisation====<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> ====Bio-based Functional Materials and Sensing====<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Electrochemical methods and characterisation, including cyclic voltammetry and electrochemical impedance spectroscopy.<br /> * Computational modelling and numerical simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated poloxamine hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48611 Bioengineering 2026-10-20T08:05:42Z

<p>Hans priks: </p> <hr /> <div>[[File:Embedded prime.jpg|thumb|Embedded Yeast Colony]]<br /> == Our vision and goal ==<br /> <br /> ====Bioengineering & Functional Biomaterials====<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> ====Engineered Living Materials (ELMs)====<br /> <br /> We design and investigate engineered living materials that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> ====Functional Hydrogels and 3D Printing====<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> ====Biohybrid Materials and Microbial Immobilisation====<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> ====Bio-based Functional Materials and Sensing====<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Electrochemical methods and characterisation, including cyclic voltammetry and electrochemical impedance spectroscopy.<br /> * Computational modelling and numerical simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated poloxamine hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=File:Embedded_prime.jpg&diff=48610 File:Embedded prime.jpg 2026-10-20T08:05:02Z

<p>Hans priks: </p> <hr /> <div></div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48609 Bioengineering 2026-10-20T07:53:04Z

<p>Hans priks: </p> <hr /> <div><br /> == Our vision and goal ==<br /> <br /> ====Bioengineering & Functional Biomaterials====<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> ====Engineered Living Materials (ELMs)====<br /> <br /> We design and investigate engineered living materials that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> ====Functional Hydrogels and 3D Printing====<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> ====Biohybrid Materials and Microbial Immobilisation====<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> ====Bio-based Functional Materials and Sensing====<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Electrochemical methods and characterisation, including cyclic voltammetry and electrochemical impedance spectroscopy.<br /> * Computational modelling and numerical simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated poloxamine hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48608 Bioengineering 2026-10-20T07:49:22Z

<p>Hans priks: /* Possible topics for student projects */</p> <hr /> <div><br /> == Our vision and goal ==<br /> <br /> ====Bioengineering & Functional Biomaterials====<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> ====Engineered Living Materials (ELMs)====<br /> <br /> We design and investigate engineered living materials that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> ====Functional Hydrogels and 3D Printing====<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> ====Biohybrid Materials and Microbial Immobilisation====<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> ====Bio-based Functional Materials and Sensing====<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Computational modelling and numerical simulation.<br /> <br /> === Equipment ===<br /> <br /> Equipment and facilities used in our research include:<br /> <br /> * Extrusion-based 3D printing systems for hydrogels and polymeric materials.<br /> * UV curing and photopolymerisation equipment.<br /> * Mechanical testing equipment for polymeric and soft materials.<br /> * Optical microscopy and electron microscopy (SEM).<br /> * Flow cytometry for microbial analysis.<br /> * Computational tools for materials modelling and simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated poloxamine hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48607 Bioengineering 2026-10-20T07:47:44Z

<p>Hans priks: /* Capabilities */</p> <hr /> <div><br /> == Our vision and goal ==<br /> <br /> ====Bioengineering & Functional Biomaterials====<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> ====Engineered Living Materials (ELMs)====<br /> <br /> We design and investigate engineered living materials that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> ====Functional Hydrogels and 3D Printing====<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> ====Biohybrid Materials and Microbial Immobilisation====<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> ====Bio-based Functional Materials and Sensing====<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Computational modelling and numerical simulation.<br /> <br /> === Equipment ===<br /> <br /> Equipment and facilities used in our research include:<br /> <br /> * Extrusion-based 3D printing systems for hydrogels and polymeric materials.<br /> * UV curing and photopolymerisation equipment.<br /> * Mechanical testing equipment for polymeric and soft materials.<br /> * Optical microscopy and electron microscopy (SEM).<br /> * Flow cytometry for microbial analysis.<br /> * Computational tools for materials modelling and simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated poloxamine hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of novel hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48606 Bioengineering 2026-10-20T07:34:07Z

<p>Hans priks: /* Engineered Living Materials (ELMs) */</p> <hr /> <div><br /> == Our vision and goal ==<br /> <br /> ====Bioengineering & Functional Biomaterials====<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> ====Engineered Living Materials (ELMs)====<br /> <br /> We design and investigate engineered living materials that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> ====Functional Hydrogels and 3D Printing====<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> ====Biohybrid Materials and Microbial Immobilisation====<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> ====Bio-based Functional Materials and Sensing====<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Computational modelling and numerical simulation.<br /> <br /> === Equipment ===<br /> <br /> Equipment and facilities used in our research include:<br /> <br /> * Extrusion-based 3D printing systems for hydrogels and polymeric materials.<br /> * UV curing and photopolymerisation equipment.<br /> * Mechanical testing equipment for polymeric and soft materials.<br /> * Optical microscopy and access to scanning electron microscopy (SEM).<br /> * Flow cytometry facilities for microbial analysis.<br /> * Temperature- and humidity-controlled environments for material testing.<br /> * Computational tools for materials modelling and simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated poloxamine hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of novel hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48605 Bioengineering 2026-10-20T07:32:08Z

<p>Hans priks: </p> <hr /> <div><br /> == Our vision and goal ==<br /> <br /> ====Bioengineering & Functional Biomaterials====<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> ====Engineered Living Materials (ELMs)====<br /> <br /> We design and investigate [[wikipedia:Engineered living materials|engineered living materials]] that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> ====Functional Hydrogels and 3D Printing====<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> ====Biohybrid Materials and Microbial Immobilisation====<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> ====Bio-based Functional Materials and Sensing====<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Computational modelling and numerical simulation.<br /> <br /> === Equipment ===<br /> <br /> Equipment and facilities used in our research include:<br /> <br /> * Extrusion-based 3D printing systems for hydrogels and polymeric materials.<br /> * UV curing and photopolymerisation equipment.<br /> * Mechanical testing equipment for polymeric and soft materials.<br /> * Optical microscopy and access to scanning electron microscopy (SEM).<br /> * Flow cytometry facilities for microbial analysis.<br /> * Temperature- and humidity-controlled environments for material testing.<br /> * Computational tools for materials modelling and simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated poloxamine hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of novel hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48604 Bioengineering 2026-10-20T07:30:42Z

<p>Hans priks: </p> <hr /> <div><br /> == Our vision and goal ==<br /> <br /> ''Bioengineering & Functional Biomaterials''<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> '''Engineered Living Materials (ELMs)'''<br /> <br /> We design and investigate [[wikipedia:Engineered living materials|engineered living materials]] that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> ====Functional Hydrogels and 3D Printing====<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> == Biohybrid Materials and Microbial Immobilisation ==<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> === Bio-based Functional Materials and Sensing ===<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Computational modelling and numerical simulation.<br /> <br /> === Equipment ===<br /> <br /> Equipment and facilities used in our research include:<br /> <br /> * Extrusion-based 3D printing systems for hydrogels and polymeric materials.<br /> * UV curing and photopolymerisation equipment.<br /> * Mechanical testing equipment for polymeric and soft materials.<br /> * Optical microscopy and access to scanning electron microscopy (SEM).<br /> * Flow cytometry facilities for microbial analysis.<br /> * Temperature- and humidity-controlled environments for material testing.<br /> * Computational tools for materials modelling and simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated poloxamine hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of novel hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48603 Bioengineering 2026-10-20T07:30:03Z

<p>Hans priks: </p> <hr /> <div><br /> == Our vision and goal ==<br /> <br /> ''Bioengineering & Functional Biomaterials''<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> '''Engineered Living Materials (ELMs)'''<br /> <br /> We design and investigate [[wikipedia:Engineered living materials|engineered living materials]] that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> ==== Functional Hydrogels and 3D Printing ====<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> == Biohybrid Materials and Microbial Immobilisation ==<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> === Bio-based Functional Materials and Sensing ===<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Computational modelling and numerical simulation.<br /> <br /> === Equipment ===<br /> <br /> Equipment and facilities used in our research include:<br /> <br /> * Extrusion-based 3D printing systems for hydrogels and polymeric materials.<br /> * UV curing and photopolymerisation equipment.<br /> * Mechanical testing equipment for polymeric and soft materials.<br /> * Optical microscopy and access to scanning electron microscopy (SEM).<br /> * Flow cytometry facilities for microbial analysis.<br /> * Temperature- and humidity-controlled environments for material testing.<br /> * Computational tools for materials modelling and simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated poloxamine hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of novel hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48602 Bioengineering 2026-10-20T07:29:37Z

<p>Hans priks: </p> <hr /> <div><br /> == Our vision and goal ==<br /> <br /> ''Bioengineering & Functional Biomaterials''<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> '''Engineered Living Materials (ELMs)'''<br /> <br /> We design and investigate [[wikipedia:Engineered living materials|engineered living materials]] that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> '''Functional Hydrogels and 3D Printing'''<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> == Biohybrid Materials and Microbial Immobilisation ==<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> === Bio-based Functional Materials and Sensing ===<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Computational modelling and numerical simulation.<br /> <br /> === Equipment ===<br /> <br /> Equipment and facilities used in our research include:<br /> <br /> * Extrusion-based 3D printing systems for hydrogels and polymeric materials.<br /> * UV curing and photopolymerisation equipment.<br /> * Mechanical testing equipment for polymeric and soft materials.<br /> * Optical microscopy and access to scanning electron microscopy (SEM).<br /> * Flow cytometry facilities for microbial analysis.<br /> * Temperature- and humidity-controlled environments for material testing.<br /> * Computational tools for materials modelling and simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated poloxamine hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of novel hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48601 Bioengineering 2026-10-20T07:29:14Z

<p>Hans priks: </p> <hr /> <div><br /> == Our vision and goal ==<br /> <br /> ''Bioengineering & Functional Biomaterials''<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> '''Engineered Living Materials (ELMs)'''<br /> <br /> We design and investigate [[wikipedia:Engineered living materials|engineered living materials]] that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> '''Functional Hydrogels and 3D Printing'''<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> === Biohybrid Materials and Microbial Immobilisation ===<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> === Bio-based Functional Materials and Sensing ===<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Computational modelling and numerical simulation.<br /> <br /> === Equipment ===<br /> <br /> Equipment and facilities used in our research include:<br /> <br /> * Extrusion-based 3D printing systems for hydrogels and polymeric materials.<br /> * UV curing and photopolymerisation equipment.<br /> * Mechanical testing equipment for polymeric and soft materials.<br /> * Optical microscopy and access to scanning electron microscopy (SEM).<br /> * Flow cytometry facilities for microbial analysis.<br /> * Temperature- and humidity-controlled environments for material testing.<br /> * Computational tools for materials modelling and simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated poloxamine hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of novel hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48600 Bioengineering 2026-10-20T07:28:49Z

<p>Hans priks: </p> <hr /> <div><br /> == Our vision and goal ==<br /> <br /> '''Bioengineering & Functional Biomaterials'''<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> '''Engineered Living Materials (ELMs)'''<br /> <br /> We design and investigate [[wikipedia:Engineered living materials|engineered living materials]] that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> '''Functional Hydrogels and 3D Printing'''<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> === Biohybrid Materials and Microbial Immobilisation ===<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> === Bio-based Functional Materials and Sensing ===<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Computational modelling and numerical simulation.<br /> <br /> === Equipment ===<br /> <br /> Equipment and facilities used in our research include:<br /> <br /> * Extrusion-based 3D printing systems for hydrogels and polymeric materials.<br /> * UV curing and photopolymerisation equipment.<br /> * Mechanical testing equipment for polymeric and soft materials.<br /> * Optical microscopy and access to scanning electron microscopy (SEM).<br /> * Flow cytometry facilities for microbial analysis.<br /> * Temperature- and humidity-controlled environments for material testing.<br /> * Computational tools for materials modelling and simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated poloxamine hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of novel hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48599 Bioengineering 2026-10-20T07:24:23Z

<p>Hans priks: </p> <hr /> <div><br /> == Our vision and goal ==<br /> <br /> '''Bioengineering & Functional Biomaterials'''<br /> <br /> We develop advanced functional materials by combining polymer chemistry, materials science, biotechnology, and additive manufacturing. Our research focuses on the design and characterisation of engineered living materials, functional hydrogels, biohybrid systems, and responsive biomaterials.<br /> <br /> A central goal is to understand and control interactions between biological systems and their surrounding materials. By integrating microorganisms with engineered polymeric matrices, we aim to develop materials that combine biological functionality with tailored mechanical, structural, and physicochemical properties.<br /> <br /> Our work contributes to the development of sustainable technologies for biomanufacturing, environmental biotechnology, microbial immobilisation, and sensing applications.<br /> <br /> == Research areas ==<br /> <br /> === Engineered Living Materials (ELMs) ===<br /> <br /> We design and investigate [[wikipedia:Engineered living materials|engineered living materials]] that combine living microorganisms with synthetic or bio-based matrices. Our research addresses microbial viability, growth, spatial confinement, material–cell interactions, and biological functionality.<br /> <br /> We investigate how material properties influence microbial behaviour and how these interactions can be controlled to improve material performance and enable applications in sustainable bioproduction.<br /> <br /> === Functional Hydrogels and 3D Printing ===<br /> <br /> We develop and characterise polymeric hydrogel systems suitable for additive manufacturing and biological applications.<br /> <br /> Our research includes photopolymerisable and stimuli-responsive polymer networks, with particular emphasis on mechanical properties, swelling, molecular diffusion, structural stability, and printability.<br /> <br /> We use 3D printing to fabricate functional structures and integrate biological components into engineered materials.<br /> <br /> === Biohybrid Materials and Microbial Immobilisation ===<br /> <br /> We investigate polymeric and porous materials that support microbial attachment, growth, and biological activity.<br /> <br /> Our research focuses on material–microorganism interactions, microbial immobilisation, biofilm formation, and the development of functional biocarriers.<br /> <br /> Potential applications include bioprocess engineering, fermentation, and biological wastewater treatment.<br /> <br /> === Bio-based Functional Materials and Sensing ===<br /> <br /> We explore responsive and bio-based materials that undergo measurable changes in response to environmental conditions.<br /> <br /> Research includes functional polymer films, colourimetric indicator systems, and sustainable material solutions for sensing and monitoring.<br /> <br /> Potential applications include environmental monitoring, food packaging, and other systems requiring passive indication of changes in environmental conditions.<br /> <br /> == Highlights ==<br /> <br /> * Development of 3D-printed engineered living materials for microbial cultivation and bioproduction.<br /> * Design and characterisation of photopolymerisable and stimuli-responsive hydrogels.<br /> * Investigation of the relationships between hydrogel properties, microbial confinement, cell behaviour, and material performance.<br /> * Development and evaluation of porous polymeric materials for microbial immobilisation and biofilm formation.<br /> * Exploration of bio-based responsive materials for sensing and monitoring applications.<br /> <br /> == Capabilities ==<br /> <br /> Our interdisciplinary research combines materials development, biological experimentation, and computational analysis.<br /> <br /> # Design, synthesis, and modification of functional polymeric materials.<br /> # Hydrogel formulation, crosslinking, and additive manufacturing.<br /> # Integration and immobilisation of microorganisms in polymeric matrices.<br /> # Characterisation of mechanical properties, swelling, diffusion, and material stability.<br /> # Evaluation of microbial viability, growth, and material–cell interactions.<br /> # Investigation of porous polymeric structures and biofilm formation.<br /> # Development and characterisation of responsive functional materials.<br /> # Computational modelling of material behaviour and biological interactions.<br /> <br /> === Tools we use ===<br /> <br /> * Extrusion-based additive manufacturing and 3D printing.<br /> * UV-induced polymerisation and hydrogel crosslinking.<br /> * Mechanical testing and physicochemical characterisation.<br /> * Optical and scanning electron microscopy.<br /> * Flow cytometry for cellular analysis and viability assessment.<br /> * Microbial cultivation and functional characterisation.<br /> * Image analysis and colourimetric measurements.<br /> * Computational modelling and numerical simulation.<br /> <br /> === Equipment ===<br /> <br /> Equipment and facilities used in our research include:<br /> <br /> * Extrusion-based 3D printing systems for hydrogels and polymeric materials.<br /> * UV curing and photopolymerisation equipment.<br /> * Mechanical testing equipment for polymeric and soft materials.<br /> * Optical microscopy and access to scanning electron microscopy (SEM).<br /> * Flow cytometry facilities for microbial analysis.<br /> * Temperature- and humidity-controlled environments for material testing.<br /> * Computational tools for materials modelling and simulation.<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm|Professor of Applied Materials Science}}<br /> }}<br /> <br /> == Examples of student research ==<br /> <br /> * Synthesis and characterisation of methacrylated poloxamine hydrogels for engineered living material matrices.<br /> * Investigation of microbial growth and adhesion in porous polymeric materials.<br /> * Characterisation of functional polymeric materials for biological applications.<br /> <br /> == Possible topics for student projects ==<br /> <br /> * Development of novel hydrogel formulations for 3D printing.<br /> * Design and characterisation of engineered living materials.<br /> * Microbial immobilisation in functional polymeric matrices.<br /> * Development of porous biocarriers for environmental biotechnology.<br /> * Characterisation of microbial–material interactions.<br /> * Development of bio-based functional films and indicator systems.<br /> * Microscopy and computational modelling of biohybrid materials.<br /> <br /> Students interested in bachelor's, master's, or other research projects are welcome to contact us to discuss available topics.<br /> <br /> == Portfolio ==<br /> <br /> === Research Projects ===<br /> <br /> Our research activities include:<br /> <br /> * '''Engineered living materials for sustainable biomanufacturing''' – Development of microbial-containing polymeric matrices and investigation of their biological functionality.<br /> * '''Functional hydrogels and additive manufacturing''' – Design and characterisation of printable polymer networks for biological and technological applications.<br /> * '''Polymeric biocarriers and microbial immobilisation''' – Investigation of porous materials and microbial–material interactions for environmental and bioprocessing applications.<br /> * '''Bio-based functional materials and sensing''' – Development of responsive films and material systems for monitoring environmental conditions.<br /> <br /> === Selected Publications ===<br /> <br /> * H. Priks, V. Zadin, I. R. Talgre, I. Zekker, T. Tamm (2025) {{doi-inline|10.1016/j.matdes.2025.114347|Linking physical properties of micellar hydrogels to engineered living material performance}}, ''Materials & Design'', '''256''', 114347.<br /> <br /> * H. Priks et al. (2024) {{doi-inline|10.1007/s11356-024-35405-0|Enhanced anammox-mediated nitrogen removal in bioelectrochemical systems at prolonged negative electrode potentials}}, ''Environmental Science and Pollution Research'', '''31''', 63312–63324.<br /> <br /> * I. Rebane, H. Priks, K. J. Levin et al. (2023) {{doi-inline|10.1038/s41598-023-35239-9|Microbial growth and adhesion of Escherichia coli in elastomeric silicone foams with commonly used additives}}, ''Scientific Reports'', '''13''', 8541.<br /> <br /> * T. Butelmann, H. Priks, Z. Parent et al. (2021) {{doi-inline|10.1021/acsabm.1c00754|Metabolism Control in 3D-Printed Living Materials Improves Fermentation}}, ''ACS Applied Bio Materials'', '''4''', 7195–7203.<br /> <br /> * H. Priks, T. Butelmann, A. Illarionov et al. (2020) {{doi-inline|10.1021/acsabm.0c00335|Physical Confinement Impacts Cellular Phenotypes within Living Materials}}, ''ACS Applied Bio Materials'', '''3''', 4273–4281.<br /> <br /> === Related Earlier Research ===<br /> <br /> Our research expertise also builds on previous work in electroactive polymers, bio-inspired materials, and soft robotic systems.<br /> <br /> * D. Nevstrueva et al. (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'', '''161''', 244–251.<br /> <br /> === Outreach and Collaboration ===<br /> <br /> We welcome interdisciplinary scientific collaborations and industrial partnerships in functional biomaterials, engineered living materials, additive manufacturing, and environmental biotechnology.<br /> <br /> For collaboration opportunities or student research enquiries, please contact the researchers listed above.</div>

Hans priks https://ims.ut.ee/index.php?title=User:Hans_priks&diff=48585 User:Hans priks 2026-10-19T10:00:31Z

<p>Hans priks: </p> <hr /> <div>{{UserProfile | <br /> picture=DSC 0933.jpg |<br /> fullname=Hans Priks |<br /> mobile=+372 5554-2691 |<br /> email=hans.priks@ut.ee |<br /> orcid=0000-0001-5234-8912 |<br /> other=<br /> {{UserProfileItem | WEB | [https://tuit.ut.ee/en/content/hans-priks TUIT]}}<br /> <br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=User:Hans_priks&diff=48584 User:Hans priks 2026-10-19T10:00:06Z

<p>Hans priks: </p> <hr /> <div>{{UserProfile | <br /> picture=DSC 0933.jpg |<br /> fullname=Hans Priks |<br /> mobile=+372 5554-2691 |<br /> email=hans.priks@ut.ee |<br /> orcid=0000-0001-5234-8912 |<br /> other=<br /> {{UserProfileItem | Google Scholar | [https://scholar.google.com/citations?user=xr_lp-IAAAAJ&hl Hans Priks]}}<br /> {{UserProfileItem | WEB | [https://tuit.ut.ee/en/content/hans-priks TUIT]}}<br /> <br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=People&diff=48583 People 2026-10-19T09:58:35Z

<p>Hans priks: /* Staff */</p> <hr /> <div>{{DISPLAYTITLE:The Lab's Team}} __NOTOC__<br /> == Staff ==<br /> <br /> {{Team|<br /> {{TeamMember|Alvo|Alvo Aabloo|professor, head of the lab (polymer materials)}} <br /> {{TeamMember|Tarmo|Tarmo Tamm| Professor of applied materials science}}<br /> {{TeamMember|Karl|Karl Kruusamäe|professor of human-centred robotics, [[IMS robotics]]}}<br /> {{TeamMember|Indrekm|Indrek Must|associate professor of soft robotics}}<br /> {{TeamMember|Heiki|Heiki Kasemägi|associate professor (ion-conducting polymer, computer simulations) & Computer engineering study programme manager}}<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Urmas|Urmas Johanson|researcher (electrochemistry)}}<br /> {{TeamMember|Annaliisa|Anna-Liisa Peikolainen|researcher (carbon materials, chemistry)}}<br /> {{TeamMember|Ingridre|Ingrid Rebane|research fellow (sustainable materials technologies, cellulose, silicone, elastomeric foams)}}<br /> {{TeamMember|Veix|Veiko Vunder|lecturer (robotics)}}<br /> {{TeamMember|Jkalde|Jaanus Kalde|Lecturer in Radio Engineering}}<br /> {{TeamMember|Artur|Artur Abels|junior lecturer (digital electronics)}}<br /> {{TeamMember|Rennoraudmae|Renno Raudmäe|junior lecturer (robotics)}}<br /> {{TeamMember|Eva.m6tsh2rg|Eva Mõtshärg|junior lecturer (robotics design)}}<br /> {{TeamMember|Teet|Teet Tilk|engineer (electronics)}}<br /> {{TeamMember|Tauri|Tauri Tätte|engineer (robotics)}}<br /> {{TeamMember|Aune|Aune Tamm|head of administration}}<br /> {{TeamMember|Anett|Anett Toom|project assistant}}<br /> {{TeamMember|Kirsi|Kirsi Zirel|project assistant}}<br /> {{TeamMember|Mariana|Mariana Kukk|Delta X coordinator and communications manager}}<br /> {{TeamMember|krisliin|Krisliin Rohtla|industrial masters coordinator and communication}}<br /> <br /> }}<br /> <br /> == PhD Students ==<br /> <br /> {{Team|<br /> {{TeamMember|Oleksandr.syzoniuk|Oleksandr Syzoniuk|PhD student (soft robotics)}}<br /> {{TeamMember|mvihmar|Marie Vihmar|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Kadriannvaldur|Kadri-Ann Valdur|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Siimkoort|Siim Koor|PhD student (geopolymers 3D printing)}}<br /> {{TeamMember|not-yet|Lisette Nagel|PhD student (biomaterials 3D printing)}}<br /> {{TeamMember|Sandra|Sandra Schumann|PhD student (robotics education)}}<br /> {{TeamMember|not-yet|Agnes Luhtaru|PhD student (multimodal human-robot interaction)}}<br /> {{TeamMember|Farnaz|Farnaz Baksh|PhD student (social robotics)}}<br /> {{TeamMember|Liis.tiisvelt|Liis Tiisvelt|PhD student (materials)}}<br /> {{TeamMember|Matevz|Matevž B. Zorec|PhD student (IoT and IoRT)}}<br /> {{TeamMember|DavidU|David Uslar|PhD student (materials)}}<br /> {{TeamMember|karljakob|Karl Jakob Levin|PhD student (materials)}}<br /> <br /> }}<br /> <br /> <br /> <br /> {{Team|<br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> }}<br /> <br /> ==Colleagues==<br /> <br /> {{Team|<br /> {{TeamMember|Rosin|Margus Rosin|lecturer (FPGA)}}<br /> {{TeamMember|Ramon.rantsus|Ramon Rantsus|educational robotics}}<br /> {{TeamMember|Iman.dadras|Iman Dadras| (Microfabrication)}}<br /> {{TeamMember|Fatemeh.rastgar|Fatemeh Rastgar|(Robotics)}}<br /> {{TeamMember|Pille|Pille Rinne| }}<br /> {{TeamMember|Gajanee|Kaija Põhako-Esko|associate professor of materials chemistry, former Marie Skłodowska-Curie fellow (chemistry, organic synthesis, ionic liquids)}}<br /> {{TeamMember|Frkaasik|Friedrich Kaasik| Head of Knowledge Transfer }}<br /> {{TeamMember|yauheni|Yauheni Sarokin|PhD student (Variable stiffness textiles)}}<br /> <br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48582 Bioengineering 2026-10-19T09:56:44Z

<p>Hans priks: /* Primary contacts */</p> <hr /> <div>== Our vision and goal ==<br /> We are researching how biopolymeric electroactive systems based on cellulose, chitosan, silk etc. can be used as delivery platforms for medication such as chemotherapy that would take the medication precisely to the target area and not have it be circulated throughout the entire body (release-capture), where its toxicity can hurt patients as much as help them. These biopolymers are known for "fooling" the body into thinking it is part of its system, it is delivering medicine in a focused, pinpoint way what that could greatly accelerate regeneration and healing.<br /> <br /> == Highlights ==<br /> * Creation of ‘designer’ biopolymers that can be used inside the body<br /> * We have developed a ionic muscle-like structures from natural cellulose<br /> * We can build soft manipulators for accommodation and delivery of therapeutic compounds <br /> <br /> == Capabilities ==<br /> We of soft biopolymeric electroactive platform for therapeutic applications<br /> # Biocompatible 3-D matrix for doping<br /> # Controlled delivery and release mechanisms<br /> # Trapping and capture of bioorganic compounds<br /> <br /> === Tools we use ===<br /> * Additive fabrication methods for building soft electroactive laminates and 3-D structures<br /> * Electrochemical and electro-visio-mechanical impedance spectroscopy<br /> * Electrodeposition and -coating of soft actuators<br /> <br /> === Equipment ===<br /> * Customized spray-coating set-up<br /> * Electromechanical testbenches with full electronic control<br /> * Computer vision set-up for robotics materials characterization<br /> * In-situ characterization of robotic materials using scanning electron microscopy <br /> * Dynamic mechanical analysis of robotic materials in a controlled atmosphere<br /> * Thermal imaging of robot's action<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Tarmo|Tarmo Tamm| Professor of applied materials science}}<br /> }}<br /> <br /> == Some completed student projects ==<br /> * A self-rolling wheel based on artificial muscles<br /> * An insect-inspored walking robot with artificial muscles<br /> * Spray-fabrication of artificial muscles on glass fiber cloth<br /> * Measurement device for characterization of mechano-sensing laminates<br /> * Measurement device for mechanical properties of soft laminates<br /> <br /> == Possible topics for student projects ==<br /> * [[Student projects in Soft Robotics|List of currently active and timely projects]]<br /> <br /> <br /> <br /> == Porfolio ==<br /> <br /> === Research Projects ===<br /> ...<br /> <br /> === Selected Publications ===<br /> *D. Nevstrueva, K. Murashko, V. Vunder, A. Aabloo, A. Pihlajamäki, M. Mänttäri, J. Pyrhönen, T. Koiranen, J. Torop, (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'' ''161'' ''244-251''<br /> <br /> *Janno Torop; Alvo Aabloo; Edwin W.H. Jager (2014) {{doi-inline|10.1016/j.carbon.2014.08.078|Novel actuators based on polypyrrole/carbide-derived carbon hybrid materials}} ''Carbon'', '''80''',387–395.<br /> <br /> === Outreach ===</div>

Hans priks https://ims.ut.ee/index.php?title=Bioengineering&diff=48581 Bioengineering 2026-10-19T09:56:01Z

<p>Hans priks: /* Primary contacts */</p> <hr /> <div>== Our vision and goal ==<br /> We are researching how biopolymeric electroactive systems based on cellulose, chitosan, silk etc. can be used as delivery platforms for medication such as chemotherapy that would take the medication precisely to the target area and not have it be circulated throughout the entire body (release-capture), where its toxicity can hurt patients as much as help them. These biopolymers are known for "fooling" the body into thinking it is part of its system, it is delivering medicine in a focused, pinpoint way what that could greatly accelerate regeneration and healing.<br /> <br /> == Highlights ==<br /> * Creation of ‘designer’ biopolymers that can be used inside the body<br /> * We have developed a ionic muscle-like structures from natural cellulose<br /> * We can build soft manipulators for accommodation and delivery of therapeutic compounds <br /> <br /> == Capabilities ==<br /> We of soft biopolymeric electroactive platform for therapeutic applications<br /> # Biocompatible 3-D matrix for doping<br /> # Controlled delivery and release mechanisms<br /> # Trapping and capture of bioorganic compounds<br /> <br /> === Tools we use ===<br /> * Additive fabrication methods for building soft electroactive laminates and 3-D structures<br /> * Electrochemical and electro-visio-mechanical impedance spectroscopy<br /> * Electrodeposition and -coating of soft actuators<br /> <br /> === Equipment ===<br /> * Customized spray-coating set-up<br /> * Electromechanical testbenches with full electronic control<br /> * Computer vision set-up for robotics materials characterization<br /> * In-situ characterization of robotic materials using scanning electron microscopy <br /> * Dynamic mechanical analysis of robotic materials in a controlled atmosphere<br /> * Thermal imaging of robot's action<br /> <br /> == Primary contacts ==<br /> <br /> {{Team|<br /> {{TeamMember|Tarmo|Tarmo Tamm| Professor of applied materials science}}<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> }}<br /> <br /> == Some completed student projects ==<br /> * A self-rolling wheel based on artificial muscles<br /> * An insect-inspored walking robot with artificial muscles<br /> * Spray-fabrication of artificial muscles on glass fiber cloth<br /> * Measurement device for characterization of mechano-sensing laminates<br /> * Measurement device for mechanical properties of soft laminates<br /> <br /> == Possible topics for student projects ==<br /> * [[Student projects in Soft Robotics|List of currently active and timely projects]]<br /> <br /> <br /> <br /> == Porfolio ==<br /> <br /> === Research Projects ===<br /> ...<br /> <br /> === Selected Publications ===<br /> *D. Nevstrueva, K. Murashko, V. Vunder, A. Aabloo, A. Pihlajamäki, M. Mänttäri, J. Pyrhönen, T. Koiranen, J. Torop, (2018) {{doi-inline|10.1016/j.colsurfb.2017.10.053|Natural cellulose ionogels for soft artificial muscles}}, ''Colloids and Surfaces B: Biointerfaces'' ''161'' ''244-251''<br /> <br /> *Janno Torop; Alvo Aabloo; Edwin W.H. Jager (2014) {{doi-inline|10.1016/j.carbon.2014.08.078|Novel actuators based on polypyrrole/carbide-derived carbon hybrid materials}} ''Carbon'', '''80''',387–395.<br /> <br /> === Outreach ===</div>

Hans priks https://ims.ut.ee/index.php?title=Materials&diff=48580 Materials 2026-10-19T09:43:37Z

<p>Hans priks: /* Members */</p> <hr /> <div>==Goal and motivation of IMS-Materials==<br /> <br /> Increasing requirements to the properties of new materials challenge to develop novel materials and find new approaches for their fabrication. IMS-Materials is focused on development of materials and in addition to academic [[#Basic research|basic research]], in collaboration with industry, [[#Applied & contract research|applied and contract research]] is carried out.<br /> <br /> ==Highlights==<br /> <br /> * [https://forte.delfi.ee/news/teadus/tartu-teadlased-valmistasid-koos-prantslastega-imeohukese-kuid-voimeka-tehislihase?id=80499456 Tartu teadlased valmistasid koos prantslastega imeõhukese, kuid võimeka tehislihase]<br /> <br /> ==Capabilities==<br /> All steps from materials development to device design and fabrication are covered<br /> <br /> ===Equipment===<br /> <br /> * potentiostats/galvanostats/frequenzy analyzers<br /> * SEM equipped with EDX<br /> * FT-IR spectrometer<br /> * KF titrator<br /> * dynamic mechanical analysis tool<br /> * chemistry lab equipped for organic synthesis<br /> * glove box<br /> * planetary ball mill<br /> * spin-coater<br /> * R&D micro-printing system<br /> * hot-rolling press<br /> <br /> ===Skills===<br /> <br /> * Electroactive polymers<br /> * [[Ionic Liquids|Ionic liquids]]<br /> * Microfabrication<br /> * Energy harvest and flow capacitors<br /> * [[Soft Robotics|Electroactive materials for soft robotics]]<br /> <br /> == Members ==<br /> <br /> {{Team|<br /> {{TeamMember|Tarmo|Tarmo Tamm|senior research fellow (materials chemistry, polymeric materials)}}<br /> {{TeamMember|Urmas|Urmas Johanson|researcher (electrochemistry)}}<br /> {{TeamMember|Annaliisa|Anna-Liisa Peikolainen|researcher (carbon materials, chemistry, microfabrication)}}<br /> {{TeamMember|Indrekm|Indrek Must|associate professor}}<br /> }}<br /> <br /> ==Student projects==<br /> <br /> [[Student projects in Materials|List of currently active and timely projects are here]]<br /> <br /> <br /> ==Portfolio==<br /> <br /> ===Selected projects===<br /> <br /> <br /> ==== Basic research ====<br /> <br /> * [[IUT 2024 - Stimuli-Responsive Smart Polymer Composite Materials and their Applications in Lab-on chip Devices and in Robotics]]-ongoing<br /> * PUT1696 - 3D printed Na-ion polymer microbatteries with carbon xerogel electrodes - ongoing<br /> * [[MOBTP 10 - Developmnt of biocompatible ionic electromechanically active polymer actuator (01.01.2017 - 31.12.2017)]]<br /> * [[ETF9236 - "Development and characterization of conducting polymer based composite materials for electromechanical applications"]] (1.01.2012−31.12.2015)<br /> * [[ETF7533 - "Design of conducting polymers of specific properties for promising applications" ]] (1.01.2008−31.12.2011)<br /> * [[ETF5830 - "Modeling of the specific properties of concuting polymers of technological interest"]] (1.01.2004−31.12.2007)<br /> <br /> ==== Applied & contract research ====<br /> <br /> * [[LLTTI17205 - Non-combustible mouldable silicone foams for public transportation seat upholstery ]]-ongoing<br /> * [[LLTTI17114 - "Development of reinforced porous concrete" ]]-ongoing<br /> * [["Soft materials for miniaturizable wearable sensory and feedback application in sports and rehabilitation ]] (01.09.2012 - 30.06.2015)<br /> * [["Toodetavate kinga- ja saapapaelte kvaliteedi parendamisele suunatud järeltöötlemistehnoloogiate väljatöötamine"]] (1.03.2012−30.10.2014)<br /> * [["Scannersock]] (15.01.2016−30.04.2016)<br /> * [["Analysis of corroding ship tubing"]](4.04.2016−31.05.2016)<br /> <br /> ===Selected publications===<br /> <br /> * Põldsalu, I., Rohtlaid, K., Nguyen, T.M.G., Plesse, C., Vidal, F., Khorram, M.S., Peikolainen, A.-L., Tamm, T., Kiefer, R. [http://doi.org/10.1016/j.snb.2017.11.147 <nowiki>Thin ink-jet printed trilayer actuators composed of PEDOT:PSS on interpenetrating polymer networks</nowiki>], Sensors and Actuators, B: Chemical, 2018.<br /> * Kisand, K., Sarapuu, A., Peikolainen, A.-L., Seemen, H., Kook, M., Käärik, M., Leis, J., Sammelselg, V., Tammeveski, K. [http://doi.org/10.1002/celc.201800353 <nowiki>Oxygen Reduction on Fe- and Co-Containing Nitrogen-Doped Nanocarbons</nowiki>], ChemElectroChem, 2018.<br /> <br /> <br /> [[Category:IMS-materials]]</div>

Hans priks https://ims.ut.ee/index.php?title=User:Hans_priks&diff=48579 User:Hans priks 2026-10-19T09:27:26Z

<p>Hans priks: </p> <hr /> <div>{{UserProfile | <br /> picture=DSC 0933.jpg |<br /> fullname=Hans Priks |<br /> mobile=+372 5554-2691 |<br /> email=hans.priks@ut.ee |<br /> orcid=0000-0001-5234-8912 |<br /> other=<br /> {{UserProfileItem | Google Scholar | [https://scholar.google.com/citations?user=xr_lp-IAAAAJ&hl=en&oi=ao Hans Priks]}}<br /> {{UserProfileItem | WEB | [https://tuit.ut.ee/en/content/hans-priks TUIT]}}<br /> <br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=User:Hans_priks&diff=48578 User:Hans priks 2026-10-19T09:25:59Z

<p>Hans priks: </p> <hr /> <div>{{UserProfile | <br /> picture=DSC 0933.jpg |<br /> fullname=Hans Priks |<br /> mobile=+372 5554-2691 |<br /> email=hans.priks@ut.ee |<br /> orcid=0000-0001-5234-8912 |<br /> other=<br /> {{UserProfileItem | Google Scholar | [https://scholar.google.com/citations?user=xr_lp-IAAAAJ&hl=en&oi=ao Hans Priks]}}<br /> {{UserProfileItem | Fax | +372 737 4825}}<br /> <br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=User:Hans_priks&diff=48577 User:Hans priks 2026-10-19T09:23:56Z

<p>Hans priks: </p> <hr /> <div>{{UserProfile | <br /> picture=DSC 0933.jpg |<br /> fullname=Hans Priks |<br /> mobile=+372 5554-2691 |<br /> email=hans.priks@ut.ee |<br /> orcid=0000-0001-5234-8912 |<br /> <br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=User:Hans_priks&diff=48576 User:Hans priks 2026-10-19T09:23:02Z

<p>Hans priks: </p> <hr /> <div>{{UserProfile | <br /> picture=DSC 0933.jpg |<br /> fullname=Hans Priks |<br /> mobile=+372 5554-2691 |<br /> email=hans.priks@ut.ee |<br /> ORCID=0000-0001-5234-8912 |<br /> <br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=User:Hans_priks&diff=48575 User:Hans priks 2026-10-19T09:22:46Z

<p>Hans priks: </p> <hr /> <div>{{UserProfile | <br /> picture=DSC 0933.jpg |<br /> fullname=Hans Priks |<br /> mobile=+372 5554-2691 |<br /> email=hans.priks@ut.ee |<br /> ORCID=0000-0001-5234-8912 |<br /> <br /> }}<br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=User:Hans_priks&diff=48574 User:Hans priks 2026-10-19T09:20:21Z

<p>Hans priks: </p> <hr /> <div>{{UserProfile | <br /> picture=DSC 0933.jpg |<br /> fullname=Hans Priks |<br /> mobile=+372 5554-2691 |<br /> email=hans.priks@ut.ee |<br /> ORCID=https://orcid.org/0000-0001-5234-8912 |<br /> <br /> }}<br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=People&diff=48573 People 2026-10-19T09:12:27Z

<p>Hans priks: /* PhD Students */</p> <hr /> <div>{{DISPLAYTITLE:The Lab's Team}} __NOTOC__<br /> == Staff ==<br /> <br /> {{Team|<br /> {{TeamMember|Alvo|Alvo Aabloo|professor, head of the lab (polymer materials)}} <br /> {{TeamMember|Longfei|Longfei Chang| guest professor, polymeric transducers}} <br /> {{TeamMember|Tarmo|Tarmo Tamm| Professor of applied materials science}}<br /> {{TeamMember|Karl|Karl Kruusamäe|professor of human-centred robotics, [[IMS robotics]]}}<br /> {{TeamMember|Indrekm|Indrek Must|associate professor of soft robotics}}<br /> {{TeamMember|Heiki|Heiki Kasemägi|associate professor (ion-conducting polymer, computer simulations) & Computer engineering study programme manager}}<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Urmas|Urmas Johanson|researcher (electrochemistry)}}<br /> {{TeamMember|Annaliisa|Anna-Liisa Peikolainen|researcher (carbon materials, chemistry)}}<br /> {{TeamMember|Ingridre|Ingrid Rebane|research fellow (sustainable materials technologies, cellulose, silicone, elastomeric foams)}}<br /> {{TeamMember|Veix|Veiko Vunder|lecturer (robotics)}}<br /> {{TeamMember|Jkalde|Jaanus Kalde|Lecturer in Radio Engineering}}<br /> {{TeamMember|Artur|Artur Abels|junior lecturer (digital electronics)}}<br /> {{TeamMember|Rennoraudmae|Renno Raudmäe|junior lecturer (robotics)}}<br /> {{TeamMember|Eva.m6tsh2rg|Eva Mõtshärg|junior lecturer (robotics design)}}<br /> {{TeamMember|Teet|Teet Tilk|engineer (electronics)}}<br /> {{TeamMember|Tauri|Tauri Tätte|engineer (robotics)}}<br /> {{TeamMember|Aune|Aune Tamm|head of administration}}<br /> {{TeamMember|Anett|Anett Toom|project assistant}}<br /> {{TeamMember|Kirsi|Kirsi Zirel|project assistant}}<br /> {{TeamMember|Mariana|Mariana Kukk|Delta X coordinator and communications manager}}<br /> {{TeamMember|krisliin|Krisliin Rohtla|industrial masters coordinator and communication}}<br /> <br /> }}<br /> <br /> == PhD Students ==<br /> <br /> {{Team|<br /> {{TeamMember|Oleksandr.syzoniuk|Oleksandr Syzoniuk|PhD student (soft robotics)}}<br /> {{TeamMember|mvihmar|Marie Vihmar|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Kadriannvaldur|Kadri-Ann Valdur|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Siimkoort|Siim Koor|PhD student (geopolymers 3D printing)}}<br /> {{TeamMember|not-yet|Lisette Nagel|PhD student (biomaterials 3D printing)}}<br /> {{TeamMember|Sandra|Sandra Schumann|PhD student (robotics education)}}<br /> {{TeamMember|not-yet|Agnes Luhtaru|PhD student (multimodal human-robot interaction)}}<br /> {{TeamMember|Farnaz|Farnaz Baksh|PhD student (social robotics)}}<br /> {{TeamMember|Liis.tiisvelt|Liis Tiisvelt|PhD student (materials)}}<br /> {{TeamMember|Matevz|Matevž B. Zorec|PhD student (IoT and IoRT)}}<br /> {{TeamMember|DavidU|David Uslar|PhD student (materials)}}<br /> {{TeamMember|karljakob|Karl Jakob Levin|PhD student (materials)}}<br /> <br /> }}<br /> <br /> <br /> <br /> {{Team|<br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> }}<br /> <br /> ==Colleagues==<br /> <br /> {{Team|<br /> {{TeamMember|Rosin|Margus Rosin|lecturer (FPGA)}}<br /> {{TeamMember|Ramon.rantsus|Ramon Rantsus|educational robotics}}<br /> {{TeamMember|Iman.dadras|Iman Dadras| (Microfabrication)}}<br /> {{TeamMember|Fatemeh.rastgar|Fatemeh Rastgar|(Robotics)}}<br /> {{TeamMember|Pille|Pille Rinne| }}<br /> {{TeamMember|Gajanee|Kaija Põhako-Esko|associate professor of materials chemistry, former Marie Skłodowska-Curie fellow (chemistry, organic synthesis, ionic liquids)}}<br /> {{TeamMember|Frkaasik|Friedrich Kaasik| Head of Knowledge Transfer }}<br /> {{TeamMember|yauheni|Yauheni Sarokin|PhD student (Variable stiffness textiles)}}<br /> <br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=People&diff=48572 People 2026-10-19T09:10:47Z

<p>Hans priks: /* Staff */</p> <hr /> <div>{{DISPLAYTITLE:The Lab's Team}} __NOTOC__<br /> == Staff ==<br /> <br /> {{Team|<br /> {{TeamMember|Alvo|Alvo Aabloo|professor, head of the lab (polymer materials)}} <br /> {{TeamMember|Longfei|Longfei Chang| guest professor, polymeric transducers}} <br /> {{TeamMember|Tarmo|Tarmo Tamm| Professor of applied materials science}}<br /> {{TeamMember|Karl|Karl Kruusamäe|professor of human-centred robotics, [[IMS robotics]]}}<br /> {{TeamMember|Indrekm|Indrek Must|associate professor of soft robotics}}<br /> {{TeamMember|Heiki|Heiki Kasemägi|associate professor (ion-conducting polymer, computer simulations) & Computer engineering study programme manager}}<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> {{TeamMember|Urmas|Urmas Johanson|researcher (electrochemistry)}}<br /> {{TeamMember|Annaliisa|Anna-Liisa Peikolainen|researcher (carbon materials, chemistry)}}<br /> {{TeamMember|Ingridre|Ingrid Rebane|research fellow (sustainable materials technologies, cellulose, silicone, elastomeric foams)}}<br /> {{TeamMember|Veix|Veiko Vunder|lecturer (robotics)}}<br /> {{TeamMember|Jkalde|Jaanus Kalde|Lecturer in Radio Engineering}}<br /> {{TeamMember|Artur|Artur Abels|junior lecturer (digital electronics)}}<br /> {{TeamMember|Rennoraudmae|Renno Raudmäe|junior lecturer (robotics)}}<br /> {{TeamMember|Eva.m6tsh2rg|Eva Mõtshärg|junior lecturer (robotics design)}}<br /> {{TeamMember|Teet|Teet Tilk|engineer (electronics)}}<br /> {{TeamMember|Tauri|Tauri Tätte|engineer (robotics)}}<br /> {{TeamMember|Aune|Aune Tamm|head of administration}}<br /> {{TeamMember|Anett|Anett Toom|project assistant}}<br /> {{TeamMember|Kirsi|Kirsi Zirel|project assistant}}<br /> {{TeamMember|Mariana|Mariana Kukk|Delta X coordinator and communications manager}}<br /> {{TeamMember|krisliin|Krisliin Rohtla|industrial masters coordinator and communication}}<br /> <br /> }}<br /> <br /> == PhD Students ==<br /> <br /> {{Team|<br /> {{TeamMember|Oleksandr.syzoniuk|Oleksandr Syzoniuk|PhD student (soft robotics)}}<br /> {{TeamMember|mvihmar|Marie Vihmar|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Kadriannvaldur|Kadri-Ann Valdur|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Siimkoort|Siim Koor|PhD student (biomaterials 3D printing)}}<br /> {{TeamMember|Sandra|Sandra Schumann|PhD student (robotics education)}}<br /> {{TeamMember|not-yet|Agnes Luhtaru|PhD student (multimodal human-robot interaction)}}<br /> {{TeamMember|Farnaz|Farnaz Baksh|PhD student (social robotics)}}<br /> {{TeamMember|Liis.tiisvelt|Liis Tiisvelt|PhD student (materials)}}<br /> {{TeamMember|Matevz|Matevž B. Zorec|PhD student (IoT and IoRT)}}<br /> {{TeamMember|DavidU|David Uslar|PhD student (materials)}}<br /> {{TeamMember|karljakob|Karl Jakob Levin|PhD student (materials)}}<br /> <br /> }}<br /> <br /> <br /> <br /> {{Team|<br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> }}<br /> <br /> ==Colleagues==<br /> <br /> {{Team|<br /> {{TeamMember|Rosin|Margus Rosin|lecturer (FPGA)}}<br /> {{TeamMember|Ramon.rantsus|Ramon Rantsus|educational robotics}}<br /> {{TeamMember|Iman.dadras|Iman Dadras| (Microfabrication)}}<br /> {{TeamMember|Fatemeh.rastgar|Fatemeh Rastgar|(Robotics)}}<br /> {{TeamMember|Pille|Pille Rinne| }}<br /> {{TeamMember|Gajanee|Kaija Põhako-Esko|associate professor of materials chemistry, former Marie Skłodowska-Curie fellow (chemistry, organic synthesis, ionic liquids)}}<br /> {{TeamMember|Frkaasik|Friedrich Kaasik| Head of Knowledge Transfer }}<br /> {{TeamMember|yauheni|Yauheni Sarokin|PhD student (Variable stiffness textiles)}}<br /> <br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=People&diff=48490 People 2026-10-12T11:57:57Z

<p>Hans priks: /* Staff */</p> <hr /> <div>{{DISPLAYTITLE:The Lab's Team}} __NOTOC__<br /> == Staff ==<br /> <br /> {{Team|<br /> {{TeamMember|Alvo|Alvo Aabloo|professor, head of the lab (polymer materials)}} <br /> {{TeamMember|Longfei|Longfei Chang| guest professor, polymeric transducers}} <br /> {{TeamMember|Tarmo|Tarmo Tamm| Professor of applied materials science}}<br /> {{TeamMember|Karl|Karl Kruusamäe|professor of human-centred robotics, [[IMS robotics]]}}<br /> {{TeamMember|Indrekm|Indrek Must|associate professor of soft robotics}}<br /> {{TeamMember|Heiki|Heiki Kasemägi|associate professor (ion-conducting polymer, computer simulations) & Computer engineering study programme manager}}<br /> {{TeamMember|Urmas|Urmas Johanson|researcher (electrochemistry)}}<br /> {{TeamMember|Annaliisa|Anna-Liisa Peikolainen|researcher (carbon materials, chemistry)}}<br /> {{TeamMember|Ingridre|Ingrid Rebane|research fellow (sustainable materials technologies, cellulose, silicone, elastomeric foams)}}<br /> {{TeamMember|Veix|Veiko Vunder|lecturer (robotics)}}<br /> {{TeamMember|Jkalde|Jaanus Kalde|Lecturer in Radio Engineering}}<br /> {{TeamMember|Artur|Artur Abels|junior lecturer (digital electronics)}}<br /> {{TeamMember|Rennoraudmae|Renno Raudmäe|junior lecturer (robotics)}}<br /> {{TeamMember|Eva.m6tsh2rg|Eva Mõtshärg|junior lecturer (robotics design)}}<br /> {{TeamMember|Teet|Teet Tilk|engineer (electronics)}}<br /> {{TeamMember|Tauri|Tauri Tätte|engineer (robotics)}}<br /> {{TeamMember|Aune|Aune Tamm|head of administration}}<br /> {{TeamMember|Anett|Anett Toom|project assistant}}<br /> {{TeamMember|Kirsi|Kirsi Zirel|project assistant}}<br /> {{TeamMember|Mariana|Mariana Kukk|Delta X coordinator and communications manager}}<br /> {{TeamMember|krisliin|Krisliin Rohtla|industrial masters coordinator and communication}}<br /> {{TeamMember|hans_priks|Hans Priks|Research Fellow in Biomaterials Technology}}<br /> <br /> }}<br /> <br /> == PhD Students ==<br /> <br /> {{Team|<br /> {{TeamMember|Oleksandr.syzoniuk|Oleksandr Syzoniuk|PhD student (soft robotics)}}<br /> {{TeamMember|mvihmar|Marie Vihmar|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Kadriannvaldur|Kadri-Ann Valdur|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Siimkoort|Siim Koor|PhD student (biomaterials 3D printing)}}<br /> {{TeamMember|Sandra|Sandra Schumann|PhD student (robotics education)}}<br /> {{TeamMember|not-yet|Agnes Luhtaru|PhD student (multimodal human-robot interaction)}}<br /> {{TeamMember|Farnaz|Farnaz Baksh|PhD student (social robotics)}}<br /> {{TeamMember|Liis.tiisvelt|Liis Tiisvelt|PhD student (materials)}}<br /> {{TeamMember|Matevz|Matevž B. Zorec|PhD student (IoT and IoRT)}}<br /> {{TeamMember|DavidU|David Uslar|PhD student (materials)}}<br /> {{TeamMember|karljakob|Karl Jakob Levin|PhD student (materials)}}<br /> <br /> }}<br /> <br /> <br /> <br /> {{Team|<br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> }}<br /> <br /> ==Colleagues==<br /> <br /> {{Team|<br /> {{TeamMember|Rosin|Margus Rosin|lecturer (FPGA)}}<br /> {{TeamMember|Ramon.rantsus|Ramon Rantsus|educational robotics}}<br /> {{TeamMember|Iman.dadras|Iman Dadras| (Microfabrication)}}<br /> {{TeamMember|Fatemeh.rastgar|Fatemeh Rastgar|(Robotics)}}<br /> {{TeamMember|Pille|Pille Rinne| }}<br /> {{TeamMember|Gajanee|Kaija Põhako-Esko|associate professor of materials chemistry, former Marie Skłodowska-Curie fellow (chemistry, organic synthesis, ionic liquids)}}<br /> {{TeamMember|Frkaasik|Friedrich Kaasik| Head of Knowledge Transfer }}<br /> {{TeamMember|yauheni|Yauheni Sarokin|PhD student (Variable stiffness textiles)}}<br /> <br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=People&diff=48489 People 2026-10-12T11:56:51Z

<p>Hans priks: /* Colleagues */</p> <hr /> <div>{{DISPLAYTITLE:The Lab's Team}} __NOTOC__<br /> == Staff ==<br /> <br /> {{Team|<br /> {{TeamMember|Alvo|Alvo Aabloo|professor, head of the lab (polymer materials)}} <br /> {{TeamMember|Longfei|Longfei Chang| guest professor, polymeric transducers}} <br /> {{TeamMember|Tarmo|Tarmo Tamm| Professor of applied materials science}}<br /> {{TeamMember|Karl|Karl Kruusamäe|professor of human-centred robotics, [[IMS robotics]]}}<br /> {{TeamMember|Indrekm|Indrek Must|associate professor of soft robotics}}<br /> {{TeamMember|Heiki|Heiki Kasemägi|associate professor (ion-conducting polymer, computer simulations) & Computer engineering study programme manager}}<br /> {{TeamMember|Urmas|Urmas Johanson|researcher (electrochemistry)}}<br /> {{TeamMember|Annaliisa|Anna-Liisa Peikolainen|researcher (carbon materials, chemistry)}}<br /> {{TeamMember|Ingridre|Ingrid Rebane|research fellow (sustainable materials technologies, cellulose, silicone, elastomeric foams)}}<br /> {{TeamMember|Veix|Veiko Vunder|lecturer (robotics)}}<br /> {{TeamMember|Jkalde|Jaanus Kalde|Lecturer in Radio Engineering}}<br /> {{TeamMember|Artur|Artur Abels|junior lecturer (digital electronics)}}<br /> {{TeamMember|Rennoraudmae|Renno Raudmäe|junior lecturer (robotics)}}<br /> {{TeamMember|Eva.m6tsh2rg|Eva Mõtshärg|junior lecturer (robotics design)}}<br /> {{TeamMember|Teet|Teet Tilk|engineer (electronics)}}<br /> {{TeamMember|Tauri|Tauri Tätte|engineer (robotics)}}<br /> {{TeamMember|Aune|Aune Tamm|head of administration}}<br /> {{TeamMember|Anett|Anett Toom|project assistant}}<br /> {{TeamMember|Kirsi|Kirsi Zirel|project assistant}}<br /> {{TeamMember|Mariana|Mariana Kukk|Delta X coordinator and communications manager}}<br /> {{TeamMember|krisliin|Krisliin Rohtla|industrial masters coordinator and communication}}<br /> <br /> }}<br /> <br /> == PhD Students ==<br /> <br /> {{Team|<br /> {{TeamMember|Oleksandr.syzoniuk|Oleksandr Syzoniuk|PhD student (soft robotics)}}<br /> {{TeamMember|mvihmar|Marie Vihmar|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Kadriannvaldur|Kadri-Ann Valdur|PhD student (bioinspired soft robotics)}}<br /> {{TeamMember|Siimkoort|Siim Koor|PhD student (biomaterials 3D printing)}}<br /> {{TeamMember|Sandra|Sandra Schumann|PhD student (robotics education)}}<br /> {{TeamMember|not-yet|Agnes Luhtaru|PhD student (multimodal human-robot interaction)}}<br /> {{TeamMember|Farnaz|Farnaz Baksh|PhD student (social robotics)}}<br /> {{TeamMember|Liis.tiisvelt|Liis Tiisvelt|PhD student (materials)}}<br /> {{TeamMember|Matevz|Matevž B. Zorec|PhD student (IoT and IoRT)}}<br /> {{TeamMember|DavidU|David Uslar|PhD student (materials)}}<br /> {{TeamMember|karljakob|Karl Jakob Levin|PhD student (materials)}}<br /> <br /> }}<br /> <br /> <br /> <br /> {{Team|<br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> <br /> }}<br /> <br /> ==Colleagues==<br /> <br /> {{Team|<br /> {{TeamMember|Rosin|Margus Rosin|lecturer (FPGA)}}<br /> {{TeamMember|Ramon.rantsus|Ramon Rantsus|educational robotics}}<br /> {{TeamMember|Iman.dadras|Iman Dadras| (Microfabrication)}}<br /> {{TeamMember|Fatemeh.rastgar|Fatemeh Rastgar|(Robotics)}}<br /> {{TeamMember|Pille|Pille Rinne| }}<br /> {{TeamMember|Gajanee|Kaija Põhako-Esko|associate professor of materials chemistry, former Marie Skłodowska-Curie fellow (chemistry, organic synthesis, ionic liquids)}}<br /> {{TeamMember|Frkaasik|Friedrich Kaasik| Head of Knowledge Transfer }}<br /> {{TeamMember|yauheni|Yauheni Sarokin|PhD student (Variable stiffness textiles)}}<br /> <br /> }}</div>

Hans priks https://ims.ut.ee/index.php?title=Climate_chamber&diff=47068 Climate chamber 2026-06-12T10:30:09Z

<p>Hans priks: /* Booking list */</p> <hr /> <div>=='''Booking list'''==<br /> <br /> <span style="color:red">'''NB! Please remind your students - ALL sessions must be registered before use!''' </span><br /> <br>'''NB! Newer bookings on top!''' </span><br /> <br>'''NB! Milli-ρ water only!''' </span><br /> <br>'''NB! Make sure the chamber has sufficient amount of water!''' </span><br /> <br /> {| class="wikitable"<br /> !colspan="7"|Booking list<br /> |-<br /> |Name<br /> |Start date<br /> |Start time<br /> |End date<br /> |End time<br /> |Temp<br /> |RH<br /> |-<br /> |Name<br /> |dd.mm.yy<br /> |mm:hh<br /> |dd.mm.yy<br /> |mm:hh<br /> |°C<br /> |%<br /> |-<br /> |Hans<br /> |01.08.26<br /> |10:00<br /> |31.08.26<br /> |20:00<br /> |4,25 & 30 <br /> |50,75 & 80<br /> |-<br /> |Merily<br /> |11.06.26<br /> |17:00<br /> |31.07.26<br /> |20:00<br /> |30<br /> |50<br /> |-<br /> |Artur ja Jakob<br /> |09.06.26<br /> |14:00<br /> |10.06.26<br /> |11:00<br /> |25<br /> |80<br /> |-<br /> |Hans, Kaido<br /> |19.05.26<br /> |10:00<br /> |08.06.26<br /> |12:00<br /> |ambient<br /> |65-70<br /> |-<br /> |Merily<br /> |18.05.26<br /> |10:00<br /> |19.05.26<br /> |10:00<br /> |30<br /> |50<br /> |-<br /> |Merily<br /> |16.05.26<br /> |10:00<br /> |17.05.26<br /> |10:00<br /> |30<br /> |50<br /> |-</div>

Hans priks https://ims.ut.ee/index.php?title=Climate_chamber&diff=46972 Climate chamber 2026-06-04T11:40:04Z

<p>Hans priks: /* Booking list */</p> <hr /> <div>=='''Booking list'''==<br /> <br /> <span style="color:red">'''NB! Please remind your students - ALL sessions must be registered before use!''' </span><br /> <br>'''NB! Newer bookings on top!''' </span><br /> <br>'''NB! Milli-ρ water only!''' </span><br /> <br>'''NB! Make sure the chamber has sufficient amount of water!''' </span><br /> <br /> {| class="wikitable"<br /> !colspan="7"|Booking list<br /> |-<br /> |Name<br /> |Start date<br /> |Start time<br /> |End date<br /> |End time<br /> |Temp<br /> |RH<br /> |-<br /> |Name<br /> |dd.mm.yy<br /> |mm:hh<br /> |dd.mm.yy<br /> |mm:hh<br /> |°C<br /> |%<br /> |-<br /> |Merily<br /> |8.06.26<br /> |12:00<br /> |31.07.26<br /> |20:00<br /> |30<br /> |50<br /> |-<br /> |Hans, Kaido<br /> |19.05.26<br /> |10:00<br /> |08.06.26<br /> |12:00<br /> |ambient<br /> |65-70<br /> |-<br /> |Merily<br /> |18.05.26<br /> |10:00<br /> |19.05.26<br /> |10:00<br /> |30<br /> |50<br /> |-<br /> |Merily<br /> |16.05.26<br /> |10:00<br /> |17.05.26<br /> |10:00<br /> |30<br /> |50<br /> |-</div>

Hans priks https://ims.ut.ee/index.php?title=Climate_chamber&diff=46635 Climate chamber 2026-05-07T10:30:16Z

<p>Hans priks: /* Booking list */</p> <hr /> <div>=='''Booking list'''==<br /> <br /> <span style="color:red">'''NB! Please remind your students - ALL sessions must be registered before use!''' </span><br /> <br>'''NB! Newer bookings on top!''' </span><br /> <br>'''NB! Milli-ρ water only!''' </span><br /> <br>'''NB! Make sure the chamber has sufficient amount of water!''' </span><br /> <br /> {| class="wikitable"<br /> !colspan="7"|Booking list<br /> |-<br /> |Name<br /> |Start date<br /> |Start time<br /> |End date<br /> |End time<br /> |Temp<br /> |RH<br /> |-<br /> |Name<br /> |dd.mm.yy<br /> |mm:hh<br /> |dd.mm.yy<br /> |mm:hh<br /> |°C<br /> |%<br /> |-<br /> <br /> |Hans, Kaido<br /> |19.05.26<br /> |10:00<br /> |29.05.26<br /> |17:00<br /> |ambient °C<br /> |65-70%<br /> |-</div>

Hans priks https://ims.ut.ee/index.php?title=Climate_chamber&diff=46634 Climate chamber 2026-05-07T10:29:54Z

<p>Hans priks: /* Booking list */</p> <hr /> <div>=='''Booking list'''==<br /> <br /> <span style="color:red">'''NB! Please remind your students - ALL sessions must be registered before use!''' </span><br /> <br>'''NB! Newer bookings on top!''' </span><br /> <br>'''NB! Milli-ρ water only!''' </span><br /> <br>'''NB! Make sure the chamber has sufficient amount of water!''' </span><br /> <br /> {| class="wikitable"<br /> !colspan="7"|Booking list<br /> |-<br /> |Name<br /> |Start date<br /> |Start time<br /> |End date<br /> |End time<br /> |Temp<br /> |RH<br /> |-<br /> |Name<br /> |dd.mm.yy<br /> |mm:hh<br /> |dd.mm.yy<br /> |mm:hh<br /> |°C<br /> |%<br /> |-<br /> <br /> |Hans, Kaido<br /> |19.07.26<br /> |10:00<br /> |29.07.26<br /> |17:00<br /> |ambient °C<br /> |65-70%<br /> |-</div>

Hans priks https://ims.ut.ee/index.php?title=Climate_chamber&diff=46633 Climate chamber 2026-05-07T10:29:15Z

<p>Hans priks: /* Booking list */</p> <hr /> <div>=='''Booking list'''==<br /> <br /> <span style="color:red">'''NB! Please remind your students - ALL sessions must be registered before use!''' </span><br /> <br>'''NB! Newer bookings on top!''' </span><br /> <br>'''NB! Milli-ρ water only!''' </span><br /> <br>'''NB! Make sure the chamber has sufficient amount of water!''' </span><br /> <br /> {| class="wikitable"<br /> !colspan="7"|Booking list<br /> |-<br /> |Name<br /> |Start date<br /> |Start time<br /> |End date<br /> |End time<br /> |Temp<br /> |RH<br /> |-<br /> |Name<br /> |dd.mm.yy<br /> |mm:hh<br /> |dd.mm.yy<br /> |mm:hh<br /> |°C<br /> |%<br /> |-<br /> <br /> |Hans, Kaido<br /> |19.07.26<br /> |10:00<br /> |29.07.26<br /> |17:00<br /> |ambient °C<br /> |%<br /> |-</div>

Hans priks https://ims.ut.ee/index.php?title=SEM_booking&diff=42161 SEM booking 2025-04-21T07:23:54Z

<p>Hans priks: /* Booking list */</p> <hr /> <div>If you wish to book the scanning electron microscope in the clean room for your experiments, please write here your name and the time when you will use SEM, so others can also plan their experiments.<br /> <br /> =='''Booking list'''==<br /> <br /> <span style="color:red">'''NB! Please remind your students - ALL SEM sessions must be registered before use!''' </span><br /> <br>'''NB! Newer bookings on top!''' </span><br /> <br /> {| class="wikitable"<br /> !colspan="6"|Booking list<br /> |-<br /> |Hans<br /> |21.04.2025<br /> |11:30-15:00<br /> |-<br /> |Siim & Merily<br /> |18.04.2025<br /> |12:00-16:00<br /> |-<br /> |Hans<br /> |17.04.2025<br /> |13:30-16:00<br /> |-<br /> |David U<br /> |14.04.2025<br /> |14:30-17:00<br /> |-<br /> |Hans<br /> |11.04.2025<br /> |11:40-13:00<br /> |-<br /> |Tarmo<br /> |11.04.2025<br /> |13:00-17:00<br /> |-<br /> |David U<br /> |26.03.2025<br /> |13:00-14:00<br /> |-<br /> |Liis T<br /> |15.-16.03.2025<br /> |11:00-19:00<br /> |-<br /> |Liis T<br /> |11.03.2025<br /> |17:00-19:00<br /> |-<br /> |Tarmo, Liis<br /> |10.03.2025<br /> |12:00-15:00<br /> |-<br /> |Karl Jakob<br /> |17.01.2025<br /> |13:00-14:00<br /> |-<br /> |Kadri-Ann<br /> |17.12.2024<br /> |15:00-17:00<br /> |-<br /> |Siim<br /> |03.12.2024<br /> |15:00-16:00<br /> |-<br /> |David U<br /> |02.12.2024<br /> |10:00-15:00<br /> |-<br /> |Siim & Ankush<br /> |29.11.2024<br /> |12:00-14:00<br /> |-<br /> |Siim<br /> |09.10.2024<br /> |14:00-16:00<br /> |-<br /> |Kadri-Ann<br /> |11.09.2024<br /> |08:30-10:00<br /> |-<br /> |Kadri-Ann<br /> |11.09.2024<br /> |17:45-19:00<br /> |-<br /> |Kadri-Ann (EDX)<br /> |11.09.2024<br /> |10.15-11:30<br /> |-<br /> |Lii (EDX)<br /> |18.06.2024<br /> |16:30-18:30<br /> |-<br /> |Lii (EDX)<br /> |13.06.2024<br /> |16:00-18:00<br /> |-<br /> |Jakob ja Lii<br /> |10.06.2024<br /> |12:00-14:00<br /> |-<br /> |Jakob<br /> |05.06.2024<br /> |10:00-11:00<br /> |-<br /> |Jakob<br /> |04.06.2024<br /> |10:00-12:00<br /> |-<br /> |Jakob ja Janno<br /> |28.05.2024<br /> |10:00-12:00<br /> |-<br /> |Ingrid (canceled)<br /> |24.05.2024<br /> |09:00-12:00<br /> |-<br /> |Kadri-Ann<br /> |30.04.2024<br /> |15:00-18:00<br /> |-<br /> |Jakob<br /> |29.04.2024<br /> |19:00-21:00<br /> |-<br /> |Siim<br /> |29.04.2024<br /> |11:00-12:00<br /> |-<br /> |Siim<br /> |28.04.2024<br /> |15:00-16:00<br /> |-<br /> |Siim<br /> |23.04.2024<br /> |15:00-16:00<br /> |-<br /> |Siim<br /> |15.04.2024<br /> |15:00-16:00<br /> |-<br /> |Siim<br /> |02.04.2024<br /> |12:00-14:00<br /> |-<br /> |Marie (EDX)<br /> |23.03.2024<br /> |10:00-12:00<br /> |-<br /> |Yauheni (SEM)<br /> |22.03.2024<br /> |16:00-17:00<br /> |-<br /> |Siim (EDX)<br /> |22.03.2024<br /> |12:00-13:00<br /> |-<br /> |Siim (EDX)<br /> |15.03.2024<br /> |14:00-15:00<br /> |-<br /> |Daniels<br /> |15.03.2024<br /> |12:00-13:30<br /> |-<br /> |Anna-Liisa (EDX)<br /> |15.03.2024<br /> |08:00-11:00<br /> |-<br /> |Siim<br /> |07.03.2024<br /> |10:00-10:30<br /> |-<br /> |Siim<br /> |06.03.2024<br /> |14:00-15:00<br /> |-<br /> |Siim ja David U (EDX)<br /> |05.03.2024<br /> |12:00-13:00<br /> |-<br /> |Siim<br /> |01.03.2024<br /> |13:00-13:30<br /> |-<br /> |Daniels<br /> |27.02.2024<br /> |11:30-12:30<br /> |-<br /> |Urmas & Mariann<br /> |26.02.2024<br /> |11:00-17:00<br /> |-<br /> |Daniels<br /> |21.02.2024<br /> |10:00-12:00<br /> |-<br /> |Urmas<br /> |20.02.2024<br /> |14:00-18:00<br /> |-<br /> |Siim<br /> |20.02.2024<br /> |11:00-13:00<br /> |-<br /> |Karl Jakob<br /> |14.02.2024<br /> |13:00-15:00<br /> |-<br /> |Yauheni (EDX)<br /> |24.01.2024<br /> |11:00-13:00<br /> |-<br /> |Urmas<br /> |23.01.2024<br /> |14:00-20:00<br /> |-<br /> |Anna-Liisa<br /> |23.01.2024<br /> |11:30-14:00<br /> |-<br /> |Yauheni (EDX)<br /> |19.01.2024<br /> |11:00-12:00<br /> |-<br /> |Anna-Liisa (SEM+EDX)<br /> |19.01.2024<br /> |10:00-15:00<br /> |-<br /> |Anna-Liisa<br /> |17.01.2024<br /> |16:00-19:00<br /> |-<br /> |Marie<br /> |16.01.2024<br /> |09:30-12:00<br /> |-<br /> |-<br /> |Anna-Liisa (EDX)<br /> |11.01.2024<br /> |15:00-16:00<br /> |-<br /> |Anna-Liisa<br /> |02.01.2024<br /> |10:00-12:00<br /> |-<br /> |Marie<br /> |06.12.2023<br /> |10:00-13:00<br /> |-<br /> |Marie<br /> |01.12.2023<br /> |11:00-14:00<br /> |-<br /> |Anna-Liisa<br /> |30.11.2023<br /> |10:00-14:00<br /> |-<br /> |Anna-Liisa<br /> |27.11.2023<br /> |10:00-14:00<br /> |-<br /> |Marie<br /> |22.08.2023<br /> |14:30-16:30<br /> |-<br /> |Pranjal<br /> |1.07.2023<br /> |12:00-15:00<br /> |-<br /> |Pranjal<br /> |28.06.2023<br /> |12:00-15:00<br /> |-<br /> |Ingrid, Pranjal (canceled)<br /> |21.06.2023<br /> |09:00-11:00<br /> |-<br /> |Marie<br /> |30.05.2023<br /> |11:30-14:00<br /> |-<br /> |Ingrid<br /> |17.05.2023<br /> |15:00-16:00<br /> |-<br /> |Ingrid<br /> |12.05.2023<br /> |15:00-16:00<br /> |-<br /> |Urmas<br /> |26.04.2023<br /> |14:00-18:00<br /> |-<br /> |Lauri<br /> |25.04.2023<br /> |15:00-17:00<br /> |-<br /> |Ingrid (Tenson)<br /> |21.04.2023<br /> |09:30-12:00<br /> |-<br /> |Marie<br /> |13.04.2023<br /> |13:30-15:00<br /> |-<br /> |Maintenance by IT Helpdesk<br /> |05.04.2023<br /> |10:00-14:00<br /> |-<br /> |Ingrid<br /> |04.04.2023<br /> |09:00-11:00, 12:25-12:50<br /> |-<br /> |Marie<br /> |31.03.2023<br /> |10:30-13:30<br /> |-<br /> |Marie<br /> |30.03.2023<br /> |13:30-15:30<br /> |-<br /> |Ingrid, Qian<br /> |27.03.2023<br /> |10:00-12:00<br /> |-<br /> |Indrek<br /> |14.03.2023<br /> |08:00-09:00<br /> |-<br /> |Indrek<br /> |13.03.2023<br /> |08:00-09:30<br /> |-<br /> |Pille<br /> |11.03.2023<br /> |15:30-16:30<br /> |-<br /> |Pille<br /> |11.03.2023<br /> |09:00-10:30<br /> |-<br /> |Urmas<br /> |09.03.2023<br /> |19.00-21.00<br /> |-<br /> |Pille<br /> |05.03.2023<br /> |09:30-09:45<br /> |-<br /> |Tarmo<br /> |23.02.2023<br /> |13:30-15:30<br /> |-<br /> |Tarmo<br /> |17.02.2023<br /> |11:30-14:00<br /> |-<br /> |Ingrid<br /> |15.02.2023<br /> |10:00-14:30<br /> |-<br /> |Ingrid<br /> |14.02.2023<br /> |10:30-12:45<br /> |-<br /> |Ingrid<br /> |13.02.2023<br /> |11:00-13:00<br /> |-<br /> |Tarmo<br /> |09.02.2023<br /> |14:30-17:00<br /> |-<br /> |Tarmo<br /> |06.02.2023<br /> |13:30-17:00<br /> |-<br /> |Tarmo<br /> |24.01.2023<br /> |14:00-17:00<br /> |-<br /> |Tarmo<br /> |23.01.2023<br /> |15:30-17:00<br /> |-<br /> |Tarmo<br /> |18.01.2023<br /> |14:00-16:00<br /> |-<br /> |Indrek, Yauheni<br /> |18.01.2023<br /> |10:00-13:00<br /> |-<br /> |Tarmo, Lauri<br /> |17.01.2023<br /> |12:00-18:00<br /> |-<br /> |Tarmo<br /> |12.12.2022<br /> |14:00-16:30<br /> |-<br /> |Tarmo<br /> |30.11.2022<br /> |12:00-16:30<br /> |-<br /> |Ingrid<br /> |28.11.2022<br /> |10:30-12:30<br /> |-<br /> |Tarmo<br /> |28.11.2022<br /> |13:00-16:30<br /> |-<br /> |Ingrid<br /> |25.11.2022<br /> |13:00-15:00<br /> |-<br /> |Tarmo<br /> |24.11.2022<br /> |13:00-17:00<br /> |-<br /> |Tarmo and Arif <br /> |05.10.2022<br /> |15:00-17:30<br /> <br /> |-<br /> |Ingrid (SEM+EDX)<br /> |05.10.2022<br /> |10:30-12:30<br /> |-<br /> |Ingrid (SIF-bio)<br /> |02.09.2022<br /> |10:45-12:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |01.09.2022<br /> |13:30-16:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |31.08.2022<br /> |11:30-13:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |30.08.2022<br /> |14:00-16:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |29.08.2022<br /> |10:30-13:00<br /> |-<br /> |Pille<br /> |20.08.2022<br /> |14:00-17:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |19.08.2022<br /> |09:00-12:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |17.08.2022<br /> |10:00-12:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |12.08.2022<br /> |09.30-11:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |11.08.2022<br /> |10.30-12:30<br /> |-<br /> |Ingrid (SIF-bio)<br /> |08.08.2022<br /> |14.30-16:30<br /> |-<br /> |Kadri-Ann<br /> |27.06.2022<br /> |10.00-12:00<br /> |-<br /> |Kadri-Ann (not used)<br /> |15.06.2022<br /> |14:30-16:00<br /> |-<br /> |Indrek<br /> |14.06.2022<br /> |10.00-13.00<br /> |-<br /> |Lancy, David, Tarmo<br /> |24.05.2022<br /> |14.00-18.00<br /> |-<br /> |Silvia<br /> |19.05.2022<br /> |09.00-10.00<br /> |-<br /> |Tarmo<br /> |29.04.2022<br /> |14.30-19.00<br /> |-<br /> |Tarmo<br /> |21.01.2022<br /> |15.30-17.00<br /> |-<br /> |Ingrid - SIF, bio (cancelled, SEM down)<br /> |11.01.2022<br /> |12.00-14.00<br /> |-<br /> |Hans, Ingrid - SIF, bio<br /> |16.12.2021<br /> |14.00-16.00<br /> |-<br /> |Tarmo<br /> |01.12.2021<br /> |15.30-17.00<br /> |-<br /> |Anna-Liisa, Anna (SEM+EDX)<br /> |15.11.2021<br /> |10.00-12.00<br /> |-<br /> |Kadri-Ann (SEM)<br /> |29.10.2021<br /> |14.00-16.00<br /> |-<br /> |Anna-Liisa, Ivan - carbon (SEM+EDX)<br /> |01.10.2021<br /> |9.00-14.00<br /> |-<br /> |Arko<br /> |20.09.2021<br /> |17.00-19.00<br /> |-<br /> |Anna-Liisa, Ivan - carbon (SEM+EDX)<br /> |17.09.2021<br /> |09.00-11.00<br /> |-<br /> |Maintenance - pump replacement<br /> |09.082.2021<br /> |09.00-18.00<br /> |-<br /> |Karl Usin - wastewater residue<br /> |21.12.2020<br /> |10.00-14.00<br /> |-<br /> |Urmas - wastewater residue<br /> |18.12.2020<br /> |10.00-17.00<br /> |-<br /> |Karl Usin - wastewater residue<br /> |17.12.2020<br /> |14.00-18.00<br /> |-<br /> |Siim - aerated concrete<br /> |16.12.2020<br /> |08.00-12.00<br /> |-<br /> |Siim - aerated concrete<br /> |09.12.2020<br /> |08.00-12.00<br /> |-<br /> |Tarmo - maintenance<br /> |08.12.2020<br /> |12.00-18.00<br /> |-<br /> |Tarmo<br /> |01.12.2020<br /> |14.00-18.00<br /> |-<br /> |Ausra and Mark (SEM and EDX, Sample - carbon)<br /> |17.11.2020<br /> |13.00-16.00<br /> |-<br /> |Ausra and Mark (SEM and EDX, Sample - carbon)<br /> |4.11.2020<br /> |10.00-13.00<br /> |-<br /> |Maarja<br /> |23.10.2020<br /> |09.30-12.00<br /> |-<br /> |Karl Usin<br /> |20.10.2020<br /> |14.00-18.00<br /> |-<br /> |Maarja<br /> |16.10.2020<br /> |09.00-12.00<br /> |-<br /> |Anna-Liisa<br /> |28.09.2020<br /> |12.00-15.00<br /> |-<br /> |Kadri-Ann<br /> |17.04.2020<br /> |12:30-14:00<br /> |-<br /> |Anna-Liisa<br /> |19.02.2020<br /> |14.00-17.30<br /> |-<br /> |Pille<br /> |03.02.2020<br /> |19.30-20.30<br /> |-<br /> |Anna-Liisa<br /> |03.02.2020<br /> |14.30-17.30<br /> |-<br /> |Pille<br /> |02.02.2020<br /> |11.00-12.00<br /> |-<br /> |Urmas<br /> |31.01.2020<br /> |14.00-18.00<br /> |-<br /> |Anna-Liisa<br /> |31.01.2020<br /> |11.00-14.00<br /> |-<br /> |Urmas<br /> |30.01.2020<br /> |15.00-18.00<br /> |-<br /> |Anna-Liisa<br /> |24.01.2020<br /> |11.00-14.00<br /> |-<br /> |Sannie<br /> |16.12.2019<br /> |09.00-12.00<br /> |-<br /> |Sannie<br /> |12.12.2019<br /> |09.00-12.00<br /> |-<br /> |Sannie<br /> |09.12.2019<br /> |09.00-12.00<br /> |-<br /> |Hans<br /> |06.12.2019<br /> |13.00-17.00<br /> |-<br /> |Fred<br /> |03.12.2019<br /> |11.00-13.10<br /> |-<br /> |Hans<br /> |29.11.2019<br /> |13.00-17.00<br /> |-<br /> |Sannie<br /> |29.11.2019<br /> |10.00-13.00<br /> |-<br /> |Hans<br /> |28.11.2019<br /> |14.00-17.00<br /> |-<br /> |Sannie<br /> |28.11.2019<br /> |09.30-12.00<br /> |-<br /> |Hans<br /> |22.11.2019<br /> |12.00-15.00<br /> |-<br /> |Sannie<br /> |21.11.2019<br /> |09.30-12.00<br /> |-<br /> |Hans<br /> |20.11.2019<br /> |14.30-18.00<br /> |-<br /> |Hans<br /> |11.11.2019<br /> |14.00-17.00<br /> |-<br /> |Sannie<br /> |06.11.2019<br /> |09.30-12.00<br /> |-<br /> |Sannie<br /> |01.11.2019<br /> |12.30-15.00<br /> |-<br /> |Hans<br /> |25.10.2019<br /> |13.00-18.00<br /> |-<br /> |Sannie<br /> |23.10.2019<br /> |09.30-12.00<br /> |-<br /> |Sannie<br /> |23.10.2019<br /> |09.30-12.00<br /> |-<br /> |Friedrich<br /> |21.10.2019<br /> |12.00-14.00<br /> |-<br /> |Sannie<br /> |18.10.2019<br /> |10.00-12.00<br /> |-<br /> |Sannie<br /> |16.10.2019<br /> |10.00-12.00<br /> |-<br /> |Sannie<br /> |14.10.2019<br /> |13.30-14.30<br /> |-<br /> |Tarmo<br /> |04.10.2019<br /> |14.15-17.00<br /> |-<br /> |Anna-Liisa<br /> |03.10.2019<br /> |15.00-16.30<br /> |-<br /> |Tarmo<br /> |02.10.2019<br /> |14.00-17.00<br /> |-<br /> |Punn<br /> |30.09.2019<br /> |11.00-13.00<br /> |-<br /> |Punn<br /> |27.09.2019<br /> |11.00-13.00<br /> |-<br /> |Tarmo<br /> |27.09.2019<br /> |14.30-17.00<br /> |-<br /> |Urmas<br /> |24.09.2019<br /> |12.30-17.00<br /> |-<br /> |Kadri-Ann<br /> |24.09.2019<br /> |10.00-12.30<br /> |-<br /> |Hans<br /> |23.09.2019<br /> |11.30-17:00<br /> |-<br /> |Kadri-Ann<br /> |10.09.2019<br /> |10.00-12.30<br /> |-<br /> |Pille<br /> |22.06.2019<br /> |10.00-11.30<br /> |-<br /> |Pille<br /> |12.06.2019<br /> |17.30-19.00<br /> |-<br /> |Anna-Liisa<br /> |30.05.2019<br /> |09.00-12.00<br /> |-<br /> |Anna-Liisa<br /> |23.05.2019<br /> |09.00-12.00<br /> |-<br /> |Kaarel<br /> |17.05.2019<br /> |16.15-18.00<br /> |-<br /> |Tarmo - maintenance<br /> |14.05.2019<br /> |9.00-16.00<br /> |-<br /> |Tarmo<br /> |09.05.2019<br /> |9.30-14.00<br /> |-<br /> |Kaarel<br /> |06.05.2019<br /> |12.30-13.45<br /> |-<br /> |Anna-Liisa<br /> |03.05.2019<br /> |12.00-16.00<br /> |-<br /> |Hans<br /> |02.05.2019<br /> |13.00-18.00<br /> |-<br /> |Hans<br /> |30.04.2019<br /> |12.00-17.00<br /> |-<br /> |Georg<br /> |30.04.2019<br /> |09.00-12.00<br /> |-<br /> |Tarmo - teaching<br /> |24.04.2019<br /> |12:00-16.00<br /> |-<br /> |Urmas<br /> |17.04.2019<br /> |16.00-17.00<br /> |-<br /> |Kaarel<br /> |17.04.2019<br /> |13.30-16.00<br /> |-<br /> |Punn<br /> |17.04.2019<br /> |11:00-13:00<br /> |-<br /> |Anna-Liisa<br /> |12.04.2019<br /> |15:00-16.00<br /> |-<br /> |Tarmo - teaching<br /> |10.04.2019<br /> |12:00-16.00<br /> |-<br /> |Kaarel<br /> |04.04.2019<br /> |8.15-10.00<br /> |-<br /> |Kaarel<br /> |02.04.2019<br /> |9.30-12.30<br /> |-<br /> |Kaarel<br /> |30.03.2019<br /> |11:30-13.00<br /> |-<br /> |Kaarel<br /> |29.03.2019<br /> |14:15-16.00<br /> |-<br /> |Jelena<br /> |28.03.2019<br /> |14:00-18.00<br /> |-<br /> |Tarmo - teaching<br /> |27.03.2019<br /> |12:00-16.00<br /> |-<br /> |Punn<br /> |25.03.2019<br /> |10:00-14:00<br /> |-<br /> |Punn<br /> |23.03.2019<br /> |10:00-15:00<br /> |-<br /> |Punn<br /> |21.03.2019<br /> |10:00-17:00<br /> |-<br /> |Punn<br /> |20.03.2019<br /> |16:00-19:00<br /> |-<br /> |Ilja/Anna-Liisa<br /> |20.03.2019<br /> |9:00-16:00<br /> |-<br /> |Punn<br /> |19.03.2019<br /> |12:00-16:00<br /> |-<br /> |Anna-Liisa<br /> |19.03.2019<br /> |9:00-11.00<br /> |-<br /> |Punn<br /> |18.03.2019<br /> |10:00-15:00<br /> |-<br /> |Pille<br /> |16.03.2019<br /> |18:00-19:00<br /> |-<br /> |Kaarel<br /> |15.03.2019<br /> |14.30-17.15<br /> |-<br /> |Pille<br /> |14.03.2019<br /> |18:00-19:00<br /> |-<br /> |Punn<br /> |14.03.2019<br /> |11.00-13.00<br /> |-<br /> |Kaarel<br /> |13.03.2019<br /> |16.00-17.45<br /> |-<br /> |Kadri-Ann<br /> |13.03.2019<br /> |10.45-12.00<br /> |-<br /> |Ingrid<br /> |12.03.2019<br /> |08.30-10.15<br /> |-<br /> |Tarmo - teaching<br /> |06.03.2019<br /> |12:00-16.00<br /> |-<br /> |Ingrid, Tarmo<br /> |04.03.2019<br /> |14:00-16.30<br /> |-<br /> |Hans<br /> |28.02.2019<br /> |13:00-17.30<br /> |-<br /> |Pille<br /> |22.02.2019<br /> |14:30-17:00<br /> |-<br /> |Hans<br /> |21.02.2019<br /> |12:00-18.00<br /> |-<br /> |Pille<br /> |20.02.2019<br /> |19:00-21:00<br /> |-<br /> |Anna-Liisa<br /> |18.02.2019<br /> |16:00-18.00<br /> |-<br /> |Ingrid<br /> |18.02.2019<br /> |14:00-16.00<br /> |-<br /> |Anna-Liisa<br /> |11.02.2019<br /> |17.00-19:00<br /> |-<br /> |Punn<br /> |11.02.2019<br /> |13.00-17.00<br /> |-<br /> |Fr. Krull<br /> |01.02.2019<br /> |14.15-16.00<br /> |-<br /> |Hans<br /> |31.01.2019<br /> |15.00-18.00<br /> |-<br /> |Hans<br /> |29.01.2019<br /> |12.00-17.00<br /> |-<br /> |Kaarel<br /> |29.01.2019<br /> |17.30-19.30<br /> |-<br /> |-<br /> |Anna-Liisa<br /> |28.01.2019<br /> |15.00-17.30<br /> |-<br /> |Kaarel<br /> |25.01.2019<br /> |11.00-13.30<br /> |-<br /> |Hans<br /> |30.01.2019<br /> |12.00-17.00<br /> |-<br /> |Kaarel<br /> |23.01.2019<br /> |17.00-19.00<br /> |-<br /> |Kaarel<br /> |22.01.2019<br /> |17.00-19.00<br /> |-<br /> |Pille<br /> |22.01.2019<br /> |11:00-15:00<br /> |-<br /> |Hans<br /> |14.01.2019<br /> |13:00-17:00<br /> |-<br /> |Kadri-Ann<br /> |14.01.2019<br /> |10:00-12.00<br /> |-<br /> |Hans<br /> |07.01.2019<br /> |10:00-17:00<br /> |-<br /> |Tarmo<br /> |19.11.2018<br /> |10.30-13.00<br /> |-<br /> |Inga<br /> |16.11.2018<br /> |15.30-17.00<br /> |-<br /> |Hans<br /> |08.11.2018<br /> |08.00-14.00<br /> |-<br /> |Inga<br /> |07.11.2018<br /> |10.30-12.00<br /> |-<br /> |Inga<br /> |06.11.2018<br /> |17.00-18.00?<br /> |-<br /> |Hans<br /> |06.11.2018<br /> |13.00-17.00<br /> |-<br /> |Inga<br /> |05.11.2018<br /> |15.30-17.00<br /> |-<br /> |Tarmo<br /> |05.11.2018<br /> |13:00-15.30<br /> |-<br /> |Hans<br /> |29.10.2018<br /> |10:00-16.00<br /> |-<br /> |Inga<br /> |19.10.2018<br /> |10:30-12.00<br /> |-<br /> |Inga<br /> |10.10.2018<br /> |16:30-17.30<br /> |-<br /> |Tarmo<br /> |10.10.2018<br /> |14:00-16:30<br /> |-<br /> |Pille<br /> |18.09.2018<br /> |12:30-15:30<br /> |-<br /> |Kadri-Ann<br /> |05.09.2018<br /> |16.00-17.30<br /> |-<br /> |Pille<br /> |27.08.2018<br /> |13:30-15:30<br /> |-<br /> |Hans<br /> |21.08.2018<br /> |13:00-16:00<br /> |-<br /> |Pille<br /> |09.07.2018<br /> |15:30-17:30<br /> |-<br /> |Pille<br /> |06.07.2018<br /> |14:30-15:30<br /> |-<br /> |Hans<br /> |06.07.2018<br /> |10:00-13:00<br /> |-<br /> |Fred<br /> |07.06.2018<br /> |15:35-18:45<br /> |-<br /> |Fred<br /> |06.06.2018<br /> |16:00-17:00<br /> |-<br /> |Ingmar<br /> |30.05.2018<br /> |13:00-15:00<br /> |-<br /> |Pille<br /> |24.05.2018<br /> |09:00-10:00<br /> |-<br /> |Pille<br /> |21.05.2018<br /> |15:00-18:00<br /> |-<br /> |Fred<br /> |26.04.2018<br /> |15:00-17:00<br /> |-<br /> |Urmas, 316 teras<br /> |14.03.2018<br /> |9:15-16:00<br /> |-<br /> |Tarmo õppetöö<br /> |28.02.2018<br /> |12:15-16:00<br /> |-<br /> |Urmas, 316 teras<br /> |27.02.2018<br /> |9:15-16:00<br /> |-<br /> |Tarmo õppetöö<br /> |21.02.2018<br /> |12:15-16:00<br /> |-<br /> |Pille<br /> |13.02.2018<br /> |14:30-16:00<br /> |-<br /> |Pille<br /> |12.02.2018<br /> |13:20-15:00<br /> |-<br /> |Hans<br /> |21.11.2017 <br /> |10:10-13:00<br /> |-<br /> |Kaur<br /> |20.11.2017 <br /> |10:45-11:45<br /> |-<br /> |Kaur<br /> |02.11.2017 <br /> |8:00-16:30<br /> |-<br /> |Anna-Liisa<br /> |05.10.2017 <br /> |16:30-17:30<br /> |-<br /> |Hans<br /> |07.06.2017 <br /> |13:30-15:30<br /> |-<br /> |Pille<br /> |07.06.2017 <br /> |09:30-11:30<br /> |-<br /> |Friedrich<br /> |25.05.2017 <br /> |13:00-15:00<br /> |-<br /> |Friedrich<br /> |5.05.2017 <br /> |9:00-12:00<br /> |-<br /> |Tarmo, Markus<br /> |28.04.2017 <br /> |10:00-14:30<br /> |-<br /> |Tarmo, Markus<br /> |26.04.2017 <br /> |10:00-14:30<br /> |-<br /> |Pille<br /> |26.04.2017 <br /> |08:40-10:00<br /> |-<br /> |Tarmo, Markus<br /> |24.04.2017 <br /> |09:00-14:30<br /> |-<br /> |Pille<br /> |13.03.2017 <br /> |13:40-14:30<br /> |-<br /> |Pille<br /> |20.02.2017 <br /> |10:00-12:30<br /> |-<br /> |Friedrich<br /> |8.02.2017 <br /> |13:00-15:30<br /> |-<br /> |Friedrich<br /> |6.02.2017 <br /> |15:00-17:30<br /> |-<br /> |Friedrich<br /> |2.02.2017 <br /> |10:00-12:00<br /> |-<br /> |Fred<br /> |26.01.2017 <br /> |15:00-17:00<br /> |-<br /> |Pille<br /> |19.01.2017 <br /> |14:00-16:00<br /> |-<br /> |Tarmo<br /> |11.01.2017 <br /> |10:00-17:00<br /> |-<br /> |Pille<br /> |14.12.2016 <br /> |11:00-15:00<br /> |-<br /> |Pille &Friedrich<br /> |26.10.2016 <br /> |11:30-17:00<br /> |-<br /> |Anna-Liisa<br /> |23.09.2016 <br /> |11:30-16:00<br /> |-<br /> |Anna-Liisa<br /> |21.09.2016 <br /> |15:00-17:00<br /> |-<br /> |Arko<br /> |19.09.2016 <br /> |11:00-14:00<br /> |-<br /> |Friedrich<br /> |23.05.2016 <br /> |10:00-13:00<br /> |-<br /> |Friedrich<br /> |09.05.2016 <br /> |13:30-16:00<br /> |-<br /> |Urmas<br /> |03.05.2016<br /> |10:00-14:00<br /> |-<br /> |Tarmo<br /> |26.04.2016<br /> |10:00-16:00<br /> |-<br /> |Tarmo<br /> |25.04.2016<br /> |10:00-16:00<br /> |-<br /> |Sunjai<br /> |22.04.2016<br /> |14:00-18:00<br /> |-<br /> |Sunjai<br /> |15.04.2016<br /> |14:00-16:00<br /> |-<br /> |Veiko<br /> |04.04.2016<br /> |12:00-17:00<br /> |-<br /> |Punn<br /> |01.04.2016<br /> |10:00-16:00<br /> |-<br /> |Punn<br /> |31.04.2016<br /> |14:00-18:00<br /> |-<br /> |Fred<br /> |09.02.2016<br /> |13:00-14:30<br /> |-<br /> |Zane<br /> |06.01.2016<br /> |11:00-12:00<br /> |-<br /> |Anna-Liisa<br /> |29.12.2015<br /> |14:30-16:00<br /> |-<br /> |Anna-Liisa<br /> |28.12.2015<br /> |14:30-16:00<br /> |-<br /> |Fred<br /> |17.12.2015<br /> |14:00-16:00<br /> |-<br /> |Anna-Liisa<br /> |9.12.2015<br /> |11:00-14:00<br /> |-<br /> |Fred<br /> |03.12.2015<br /> |10:40-14:00<br /> |-<br /> |Anna-Liisa<br /> |19.11.2015<br /> |11:00-12:00<br /> |-<br /> |Fred<br /> |9.11.2015<br /> |11:00-12:00<br /> |-<br /> |Anna-Liisa<br /> |26.10.2015<br /> |16:00-18:00<br /> |-<br /> |Arko<br /> |19.10.2015<br /> |15.00-16.00<br /> |-<br /> |Fred<br /> |14.10.2015<br /> |10.00-11.00<br /> |-<br /> |Anna-Liisa<br /> |12.10.2015<br /> |13.00-15.00<br /> |-<br /> |Anna-Liisa<br /> |28.09.2015<br /> |13.00-14.00<br /> |-<br /> |Arko<br /> |11.09.2015<br /> |11.00-16.00<br /> |-<br /> |Fred<br /> |09.09.2015<br /> |11.00-12.00<br /> |-<br /> |Friedrich<br /> |27.08.2015<br /> |10.00-18.00<br /> |-<br /> |Zane<br /> |30.06.2015<br /> |11.00-12.00<br /> |-<br /> |Zane<br /> |26.06.2015<br /> |11.00-12.00<br /> |-<br /> |Arko<br /> |18.06.2015<br /> |12.00-13.00<br /> |-<br /> |Fred<br /> |09.06.2015<br /> |12.00-16.00<br /> |-<br /> |-<br /> |Fred<br /> |05.06.2015<br /> |11.30-15.00<br /> |-<br /> |-<br /> |Zane<br /> |04.06.2015<br /> |13.00-14.00<br /> |-<br /> |Arko<br /> |03.06.2015<br /> |11.00-16.00<br /> |-<br /> |-<br /> |Punn<br /> |20.05.2015<br /> |11.00-15.00<br /> |-<br /> |-<br /> |Ingvar<br /> |15.05.2015<br /> |13.00-14.00<br /> |-<br /> |-<br /> |Zane<br /> |15.05.2015<br /> |13.00-14.00<br /> |-<br /> |-<br /> |Friedrich<br /> |13.05.2015<br /> |15.00-17.00<br /> |-<br /> |-<br /> |Veiko<br /> |12.05.2015<br /> |08.00-14.00<br /> |-<br /> |-<br /> |Vishwaja<br /> |08.05.2015<br /> |12.20-14.30<br /> |-<br /> |Vishwaja <br /> |07.05.2015<br /> |14.20 - 18.30<br /> |-<br /> |Zane <br /> |6.05.2015<br /> |11:30-12:30<br /> |-<br /> |Zane <br /> |5.05.2015<br /> |15:00-16:30<br /> |-<br /> |Zane<br /> |04.05.2015<br /> |12:30-14:00<br /> |-<br /> |Inga<br /> |23.04.2015<br /> |14:30-16:00<br /> |-<br /> |Anna-Liisa<br /> |08.04.2015<br /> |16:00-18:00<br /> |-<br /> |Friedrich<br /> |07.04.2015<br /> |15:30-16:30<br /> |-<br /> |Kätlin<br /> |06.04.2015<br /> |9:00-11:00<br /> |-<br /> |Inga<br /> |06.04.2015<br /> |11:00-17:00<br /> |-<br /> |Punn<br /> |02.04.2015<br /> |11:00-19:00<br /> |-<br /> |Inga<br /> |01.04.2015<br /> |13:30-17:30<br /> |-<br /> |Tarmo<br /> |01.04.2015<br /> |09:00-13:00<br /> |-<br /> |Punn<br /> |31.03.2015<br /> |11:00-19:00<br /> |-<br /> |Punn<br /> |30.03.2015<br /> |10:00-19:00<br /> |-<br /> |Anna-Liisa<br /> |30.03.2015<br /> |8:00-9:30<br /> |-<br /> |Punn<br /> |27.03.2015<br /> |11:30-19:00<br /> |-<br /> |Anna-Liisa<br /> |27.03.2015<br /> |8:00-11:00<br /> |-<br /> |Punn<br /> |26.03.2015<br /> |11:00-16:00<br /> |-<br /> |Fred<br /> |19.03.2015<br /> |12:00-16:00<br /> |-<br /> |Fred<br /> |12.03.2015<br /> |12:00-16:00<br /> |-<br /> |Fred<br /> |05.03.2015<br /> |12:00-16:00<br /> |-<br /> |Friedrich<br /> |04.03.2015<br /> |15:30-17:00<br /> |-<br /> |Fred<br /> |03.08.2015<br /> |12:00-14:00<br /> |-<br /> |Arko<br /> |02.03.2015<br /> |10:00-17:00<br /> |-<br /> |Anna-Liisa<br /> |27.02.2015<br /> |10:00-15:00<br /> |-<br /> |Anna-Liisa<br /> |20.02.2015<br /> |12:00-13:30<br /> |-<br /> |Anna-Liisa<br /> |19.02.2015<br /> |15:00-16:00<br /> |-<br /> |Arko<br /> |04.02.2015<br /> |12:00-17:00<br /> |-<br /> |Rauno<br /> |27.01.2015<br /> |15:00-19:00<br /> |-<br /> |Rauno<br /> |06.01.2015<br /> |15:00-19:00<br /> |-<br /> |Punn<br /> |23.12.2014<br /> |11:00-14:00<br /> |-<br /> |Tarmo<br /> |05.12.2014<br /> |11:00-13:00<br /> |-<br /> |Hans<br /> |04.12.2014<br /> |10:00-16:00<br /> |-<br /> |Tarmo<br /> |27.11.2014<br /> |14:00-17:00<br /> |-<br /> |<span style="color:red">----</span><br /> |-<br /> |Tarmo<br /> |06.05.2014<br /> |10:00-12:00<br /> |-<br /> |Punn<br /> |06.05.2014<br /> |15:00-18:00<br /> |-<br /> |Punn<br /> |07.05.2014<br /> |10:00-13:00<br /> |-<br /> |Punn<br /> |08.05.2014<br /> |12:00-15:00<br /> |-<br /> |Sven-Erik<br /> |09.05.2014<br /> |11:00-13:00<br /> |-<br /> |Tarmo<br /> |13.05.2014<br /> |10:00-12:00<br /> |-<br /> |Inga ja Kristiina<br /> |13.05.2014<br /> |12:00-18:00<br /> |-<br /> |Veiko<br /> |14.05.2014<br /> |08:00-10:00<br /> |-<br /> |Inga ja Kristiina<br /> |14.05.2014<br /> |10:00-14:00<br /> |-<br /> |Veiko<br /> |14.05.2014<br /> |14:00-17:00<br /> |-<br /> |Tarmo<br /> |15.05.2014<br /> |12:00-15:00<br /> |-<br /> |Veiko<br /> |19.05.2014<br /> |08:00-17:00<br /> |-<br /> |Veiko<br /> |20.05.2014<br /> |07:00-14:00<br /> |-<br /> |Tarmo<br /> |20.05.2014<br /> |14:00-16:00<br /> |-<br /> |Madis<br /> |22.05.2014<br /> |14:30-16:30<br /> |-<br /> |Madis<br /> |23.05.2014<br /> |12:00-17:00<br /> |-<br /> |Madis<br /> |27.05.2014<br /> |12:00-17:00<br /> |-<br /> |Sven-Erik<br /> |30.05.2014<br /> |10:00-12:00<br /> |-<br /> |Veiko<br /> |02.06.2014<br /> |11:00-13:00<br /> |-<br /> |Veiko<br /> |03.06.2014<br /> |12:00-17:00<br /> |-<br /> |Inga<br /> |03.06.2014<br /> |10:00-12:00<br /> |-<br /> |Kristiina<br /> |04.06.2014<br /> |11:30-18:00<br /> |-<br /> |Madis<br /> |05.06.2014<br /> |10:00-15:00<br /> |-<br /> |Inga<br /> |05.06.2014<br /> |15:00-17:00<br /> |-<br /> |Sven-Erik<br /> |12.06.2014<br /> |10:00-13:00<br /> |-<br /> |Urmas<br /> |20.06.2014<br /> |10:00-11:00<br /> |-<br /> |Punn<br /> |01.09.2014<br /> |13:00-15:00<br /> |-<br /> |David Vardanjan<br /> |02.09.2014<br /> |13:00-17:00<br /> |-<br /> |Punn<br /> |03.09.2014<br /> |11:00-13:00<br /> |-<br /> |Harjo<br /> |08.09.2014<br /> |14:00-15:00<br /> |-<br /> |Inga<br /> |11.09.2014<br /> |12:00-18:00<br /> |-<br /> |Punn<br /> |15.09.2014<br /> |12:00-13:00<br /> |-<br /> |Punn<br /> |16.09.2014<br /> |13:00-16:00<br /> |-<br /> |Hans<br /> |18.09.2014<br /> |16:00-18:00<br /> |-<br /> |Punn<br /> |23.09.2014<br /> |13:00-16:00<br /> |-<br /> |Hans<br /> |24.09.2014<br /> |17:00-19:00<br /> |-<br /> |Punn<br /> |26.09.2014<br /> |11:00-15:00<br /> |-<br /> |Hans<br /> |26.09.2014<br /> |16:00-18:00<br /> |-<br /> |Madis<br /> |02.10.2014<br /> |16:00-17:00<br /> |-<br /> |Punn<br /> |20.10.2014<br /> |15:30:-17:00<br /> |-<br /> |Punn<br /> |21.10.2014<br /> |15:30:-17:00<br /> |-<br /> |Punn<br /> |24.10.2014<br /> |12:00:-15:00<br /> |-<br /> |Punn<br /> |03.11.2014<br /> |14:30:-17:00<br /> |-<br /> |Madis<br /> |04.11.2014<br /> |13:30:-14:30<br /> |-<br /> |Punn<br /> |10.11.2014<br /> |11:30:-13:00<br /> |-<br /> |Punn<br /> |19.11.2014<br /> |11:00:-15:00<br /> |-<br /> |Punn<br /> |20.11.2014<br /> |09:30-17:00</div>

Hans priks https://ims.ut.ee/index.php?title=SEM_booking&diff=42111 SEM booking 2025-04-17T10:25:38Z

<p>Hans priks: /* Booking list */</p> <hr /> <div>If you wish to book the scanning electron microscope in the clean room for your experiments, please write here your name and the time when you will use SEM, so others can also plan their experiments.<br /> <br /> =='''Booking list'''==<br /> <br /> <span style="color:red">'''NB! Please remind your students - ALL SEM sessions must be registered before use!''' </span><br /> <br>'''NB! Newer bookings on top!''' </span><br /> <br /> {| class="wikitable"<br /> !colspan="6"|Booking list<br /> |-<br /> |Hans<br /> |17.04.2025<br /> |13:30-16:00<br /> |-<br /> |Siim & Merily<br /> |17.04.2025<br /> |16:00-19:00<br /> |-<br /> |David U<br /> |14.04.2025<br /> |14:30-17:00<br /> |-<br /> |Hans<br /> |11.04.2025<br /> |11:40-13:00<br /> |-<br /> |Tarmo<br /> |11.04.2025<br /> |13:00-17:00<br /> |-<br /> |David U<br /> |26.03.2025<br /> |13:00-14:00<br /> |-<br /> |Liis T<br /> |15.-16.03.2025<br /> |11:00-19:00<br /> |-<br /> |Liis T<br /> |11.03.2025<br /> |17:00-19:00<br /> |-<br /> |Tarmo, Liis<br /> |10.03.2025<br /> |12:00-15:00<br /> |-<br /> |Karl Jakob<br /> |17.01.2025<br /> |13:00-14:00<br /> |-<br /> |Kadri-Ann<br /> |17.12.2024<br /> |15:00-17:00<br /> |-<br /> |Siim<br /> |03.12.2024<br /> |15:00-16:00<br /> |-<br /> |David U<br /> |02.12.2024<br /> |10:00-15:00<br /> |-<br /> |Siim & Ankush<br /> |29.11.2024<br /> |12:00-14:00<br /> |-<br /> |Siim<br /> |09.10.2024<br /> |14:00-16:00<br /> |-<br /> |Kadri-Ann<br /> |11.09.2024<br /> |08:30-10:00<br /> |-<br /> |Kadri-Ann<br /> |11.09.2024<br /> |17:45-19:00<br /> |-<br /> |Kadri-Ann (EDX)<br /> |11.09.2024<br /> |10.15-11:30<br /> |-<br /> |Lii (EDX)<br /> |18.06.2024<br /> |16:30-18:30<br /> |-<br /> |Lii (EDX)<br /> |13.06.2024<br /> |16:00-18:00<br /> |-<br /> |Jakob ja Lii<br /> |10.06.2024<br /> |12:00-14:00<br /> |-<br /> |Jakob<br /> |05.06.2024<br /> |10:00-11:00<br /> |-<br /> |Jakob<br /> |04.06.2024<br /> |10:00-12:00<br /> |-<br /> |Jakob ja Janno<br /> |28.05.2024<br /> |10:00-12:00<br /> |-<br /> |Ingrid (canceled)<br /> |24.05.2024<br /> |09:00-12:00<br /> |-<br /> |Kadri-Ann<br /> |30.04.2024<br /> |15:00-18:00<br /> |-<br /> |Jakob<br /> |29.04.2024<br /> |19:00-21:00<br /> |-<br /> |Siim<br /> |29.04.2024<br /> |11:00-12:00<br /> |-<br /> |Siim<br /> |28.04.2024<br /> |15:00-16:00<br /> |-<br /> |Siim<br /> |23.04.2024<br /> |15:00-16:00<br /> |-<br /> |Siim<br /> |15.04.2024<br /> |15:00-16:00<br /> |-<br /> |Siim<br /> |02.04.2024<br /> |12:00-14:00<br /> |-<br /> |Marie (EDX)<br /> |23.03.2024<br /> |10:00-12:00<br /> |-<br /> |Yauheni (SEM)<br /> |22.03.2024<br /> |16:00-17:00<br /> |-<br /> |Siim (EDX)<br /> |22.03.2024<br /> |12:00-13:00<br /> |-<br /> |Siim (EDX)<br /> |15.03.2024<br /> |14:00-15:00<br /> |-<br /> |Daniels<br /> |15.03.2024<br /> |12:00-13:30<br /> |-<br /> |Anna-Liisa (EDX)<br /> |15.03.2024<br /> |08:00-11:00<br /> |-<br /> |Siim<br /> |07.03.2024<br /> |10:00-10:30<br /> |-<br /> |Siim<br /> |06.03.2024<br /> |14:00-15:00<br /> |-<br /> |Siim ja David U (EDX)<br /> |05.03.2024<br /> |12:00-13:00<br /> |-<br /> |Siim<br /> |01.03.2024<br /> |13:00-13:30<br /> |-<br /> |Daniels<br /> |27.02.2024<br /> |11:30-12:30<br /> |-<br /> |Urmas & Mariann<br /> |26.02.2024<br /> |11:00-17:00<br /> |-<br /> |Daniels<br /> |21.02.2024<br /> |10:00-12:00<br /> |-<br /> |Urmas<br /> |20.02.2024<br /> |14:00-18:00<br /> |-<br /> |Siim<br /> |20.02.2024<br /> |11:00-13:00<br /> |-<br /> |Karl Jakob<br /> |14.02.2024<br /> |13:00-15:00<br /> |-<br /> |Yauheni (EDX)<br /> |24.01.2024<br /> |11:00-13:00<br /> |-<br /> |Urmas<br /> |23.01.2024<br /> |14:00-20:00<br /> |-<br /> |Anna-Liisa<br /> |23.01.2024<br /> |11:30-14:00<br /> |-<br /> |Yauheni (EDX)<br /> |19.01.2024<br /> |11:00-12:00<br /> |-<br /> |Anna-Liisa (SEM+EDX)<br /> |19.01.2024<br /> |10:00-15:00<br /> |-<br /> |Anna-Liisa<br /> |17.01.2024<br /> |16:00-19:00<br /> |-<br /> |Marie<br /> |16.01.2024<br /> |09:30-12:00<br /> |-<br /> |-<br /> |Anna-Liisa (EDX)<br /> |11.01.2024<br /> |15:00-16:00<br /> |-<br /> |Anna-Liisa<br /> |02.01.2024<br /> |10:00-12:00<br /> |-<br /> |Marie<br /> |06.12.2023<br /> |10:00-13:00<br /> |-<br /> |Marie<br /> |01.12.2023<br /> |11:00-14:00<br /> |-<br /> |Anna-Liisa<br /> |30.11.2023<br /> |10:00-14:00<br /> |-<br /> |Anna-Liisa<br /> |27.11.2023<br /> |10:00-14:00<br /> |-<br /> |Marie<br /> |22.08.2023<br /> |14:30-16:30<br /> |-<br /> |Pranjal<br /> |1.07.2023<br /> |12:00-15:00<br /> |-<br /> |Pranjal<br /> |28.06.2023<br /> |12:00-15:00<br /> |-<br /> |Ingrid, Pranjal (canceled)<br /> |21.06.2023<br /> |09:00-11:00<br /> |-<br /> |Marie<br /> |30.05.2023<br /> |11:30-14:00<br /> |-<br /> |Ingrid<br /> |17.05.2023<br /> |15:00-16:00<br /> |-<br /> |Ingrid<br /> |12.05.2023<br /> |15:00-16:00<br /> |-<br /> |Urmas<br /> |26.04.2023<br /> |14:00-18:00<br /> |-<br /> |Lauri<br /> |25.04.2023<br /> |15:00-17:00<br /> |-<br /> |Ingrid (Tenson)<br /> |21.04.2023<br /> |09:30-12:00<br /> |-<br /> |Marie<br /> |13.04.2023<br /> |13:30-15:00<br /> |-<br /> |Maintenance by IT Helpdesk<br /> |05.04.2023<br /> |10:00-14:00<br /> |-<br /> |Ingrid<br /> |04.04.2023<br /> |09:00-11:00, 12:25-12:50<br /> |-<br /> |Marie<br /> |31.03.2023<br /> |10:30-13:30<br /> |-<br /> |Marie<br /> |30.03.2023<br /> |13:30-15:30<br /> |-<br /> |Ingrid, Qian<br /> |27.03.2023<br /> |10:00-12:00<br /> |-<br /> |Indrek<br /> |14.03.2023<br /> |08:00-09:00<br /> |-<br /> |Indrek<br /> |13.03.2023<br /> |08:00-09:30<br /> |-<br /> |Pille<br /> |11.03.2023<br /> |15:30-16:30<br /> |-<br /> |Pille<br /> |11.03.2023<br /> |09:00-10:30<br /> |-<br /> |Urmas<br /> |09.03.2023<br /> |19.00-21.00<br /> |-<br /> |Pille<br /> |05.03.2023<br /> |09:30-09:45<br /> |-<br /> |Tarmo<br /> |23.02.2023<br /> |13:30-15:30<br /> |-<br /> |Tarmo<br /> |17.02.2023<br /> |11:30-14:00<br /> |-<br /> |Ingrid<br /> |15.02.2023<br /> |10:00-14:30<br /> |-<br /> |Ingrid<br /> |14.02.2023<br /> |10:30-12:45<br /> |-<br /> |Ingrid<br /> |13.02.2023<br /> |11:00-13:00<br /> |-<br /> |Tarmo<br /> |09.02.2023<br /> |14:30-17:00<br /> |-<br /> |Tarmo<br /> |06.02.2023<br /> |13:30-17:00<br /> |-<br /> |Tarmo<br /> |24.01.2023<br /> |14:00-17:00<br /> |-<br /> |Tarmo<br /> |23.01.2023<br /> |15:30-17:00<br /> |-<br /> |Tarmo<br /> |18.01.2023<br /> |14:00-16:00<br /> |-<br /> |Indrek, Yauheni<br /> |18.01.2023<br /> |10:00-13:00<br /> |-<br /> |Tarmo, Lauri<br /> |17.01.2023<br /> |12:00-18:00<br /> |-<br /> |Tarmo<br /> |12.12.2022<br /> |14:00-16:30<br /> |-<br /> |Tarmo<br /> |30.11.2022<br /> |12:00-16:30<br /> |-<br /> |Ingrid<br /> |28.11.2022<br /> |10:30-12:30<br /> |-<br /> |Tarmo<br /> |28.11.2022<br /> |13:00-16:30<br /> |-<br /> |Ingrid<br /> |25.11.2022<br /> |13:00-15:00<br /> |-<br /> |Tarmo<br /> |24.11.2022<br /> |13:00-17:00<br /> |-<br /> |Tarmo and Arif <br /> |05.10.2022<br /> |15:00-17:30<br /> <br /> |-<br /> |Ingrid (SEM+EDX)<br /> |05.10.2022<br /> |10:30-12:30<br /> |-<br /> |Ingrid (SIF-bio)<br /> |02.09.2022<br /> |10:45-12:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |01.09.2022<br /> |13:30-16:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |31.08.2022<br /> |11:30-13:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |30.08.2022<br /> |14:00-16:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |29.08.2022<br /> |10:30-13:00<br /> |-<br /> |Pille<br /> |20.08.2022<br /> |14:00-17:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |19.08.2022<br /> |09:00-12:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |17.08.2022<br /> |10:00-12:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |12.08.2022<br /> |09.30-11:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |11.08.2022<br /> |10.30-12:30<br /> |-<br /> |Ingrid (SIF-bio)<br /> |08.08.2022<br /> |14.30-16:30<br /> |-<br /> |Kadri-Ann<br /> |27.06.2022<br /> |10.00-12:00<br /> |-<br /> |Kadri-Ann (not used)<br /> |15.06.2022<br /> |14:30-16:00<br /> |-<br /> |Indrek<br /> |14.06.2022<br /> |10.00-13.00<br /> |-<br /> |Lancy, David, Tarmo<br /> |24.05.2022<br /> |14.00-18.00<br /> |-<br /> |Silvia<br /> |19.05.2022<br /> |09.00-10.00<br /> |-<br /> |Tarmo<br /> |29.04.2022<br /> |14.30-19.00<br /> |-<br /> |Tarmo<br /> |21.01.2022<br /> |15.30-17.00<br /> |-<br /> |Ingrid - SIF, bio (cancelled, SEM down)<br /> |11.01.2022<br /> |12.00-14.00<br /> |-<br /> |Hans, Ingrid - SIF, bio<br /> |16.12.2021<br /> |14.00-16.00<br /> |-<br /> |Tarmo<br /> |01.12.2021<br /> |15.30-17.00<br /> |-<br /> |Anna-Liisa, Anna (SEM+EDX)<br /> |15.11.2021<br /> |10.00-12.00<br /> |-<br /> |Kadri-Ann (SEM)<br /> |29.10.2021<br /> |14.00-16.00<br /> |-<br /> |Anna-Liisa, Ivan - carbon (SEM+EDX)<br /> |01.10.2021<br /> |9.00-14.00<br /> |-<br /> |Arko<br /> |20.09.2021<br /> |17.00-19.00<br /> |-<br /> |Anna-Liisa, Ivan - carbon (SEM+EDX)<br /> |17.09.2021<br /> |09.00-11.00<br /> |-<br /> |Maintenance - pump replacement<br /> |09.082.2021<br /> |09.00-18.00<br /> |-<br /> |Karl Usin - wastewater residue<br /> |21.12.2020<br /> |10.00-14.00<br /> |-<br /> |Urmas - wastewater residue<br /> |18.12.2020<br /> |10.00-17.00<br /> |-<br /> |Karl Usin - wastewater residue<br /> |17.12.2020<br /> |14.00-18.00<br /> |-<br /> |Siim - aerated concrete<br /> |16.12.2020<br /> |08.00-12.00<br /> |-<br /> |Siim - aerated concrete<br /> |09.12.2020<br /> |08.00-12.00<br /> |-<br /> |Tarmo - maintenance<br /> |08.12.2020<br /> |12.00-18.00<br /> |-<br /> |Tarmo<br /> |01.12.2020<br /> |14.00-18.00<br /> |-<br /> |Ausra and Mark (SEM and EDX, Sample - carbon)<br /> |17.11.2020<br /> |13.00-16.00<br /> |-<br /> |Ausra and Mark (SEM and EDX, Sample - carbon)<br /> |4.11.2020<br /> |10.00-13.00<br /> |-<br /> |Maarja<br /> |23.10.2020<br /> |09.30-12.00<br /> |-<br /> |Karl Usin<br /> |20.10.2020<br /> |14.00-18.00<br /> |-<br /> |Maarja<br /> |16.10.2020<br /> |09.00-12.00<br /> |-<br /> |Anna-Liisa<br /> |28.09.2020<br /> |12.00-15.00<br /> |-<br /> |Kadri-Ann<br /> |17.04.2020<br /> |12:30-14:00<br /> |-<br /> |Anna-Liisa<br /> |19.02.2020<br /> |14.00-17.30<br /> |-<br /> |Pille<br /> |03.02.2020<br /> |19.30-20.30<br /> |-<br /> |Anna-Liisa<br /> |03.02.2020<br /> |14.30-17.30<br /> |-<br /> |Pille<br /> |02.02.2020<br /> |11.00-12.00<br /> |-<br /> |Urmas<br /> |31.01.2020<br /> |14.00-18.00<br /> |-<br /> |Anna-Liisa<br /> |31.01.2020<br /> |11.00-14.00<br /> |-<br /> |Urmas<br /> |30.01.2020<br /> |15.00-18.00<br /> |-<br /> |Anna-Liisa<br /> |24.01.2020<br /> |11.00-14.00<br /> |-<br /> |Sannie<br /> |16.12.2019<br /> |09.00-12.00<br /> |-<br /> |Sannie<br /> |12.12.2019<br /> |09.00-12.00<br /> |-<br /> |Sannie<br /> |09.12.2019<br /> |09.00-12.00<br /> |-<br /> |Hans<br /> |06.12.2019<br /> |13.00-17.00<br /> |-<br /> |Fred<br /> |03.12.2019<br /> |11.00-13.10<br /> |-<br /> |Hans<br /> |29.11.2019<br /> |13.00-17.00<br /> |-<br /> |Sannie<br /> |29.11.2019<br /> |10.00-13.00<br /> |-<br /> |Hans<br /> |28.11.2019<br /> |14.00-17.00<br /> |-<br /> |Sannie<br /> |28.11.2019<br /> |09.30-12.00<br /> |-<br /> |Hans<br /> |22.11.2019<br /> |12.00-15.00<br /> |-<br /> |Sannie<br /> |21.11.2019<br /> |09.30-12.00<br /> |-<br /> |Hans<br /> |20.11.2019<br /> |14.30-18.00<br /> |-<br /> |Hans<br /> |11.11.2019<br /> |14.00-17.00<br /> |-<br /> |Sannie<br /> |06.11.2019<br /> |09.30-12.00<br /> |-<br /> |Sannie<br /> |01.11.2019<br /> |12.30-15.00<br /> |-<br /> |Hans<br /> |25.10.2019<br /> |13.00-18.00<br /> |-<br /> |Sannie<br /> |23.10.2019<br /> |09.30-12.00<br /> |-<br /> |Sannie<br /> |23.10.2019<br /> |09.30-12.00<br /> |-<br /> |Friedrich<br /> |21.10.2019<br /> |12.00-14.00<br /> |-<br /> |Sannie<br /> |18.10.2019<br /> |10.00-12.00<br /> |-<br /> |Sannie<br /> |16.10.2019<br /> |10.00-12.00<br /> |-<br /> |Sannie<br /> |14.10.2019<br /> |13.30-14.30<br /> |-<br /> |Tarmo<br /> |04.10.2019<br /> |14.15-17.00<br /> |-<br /> |Anna-Liisa<br /> |03.10.2019<br /> |15.00-16.30<br /> |-<br /> |Tarmo<br /> |02.10.2019<br /> |14.00-17.00<br /> |-<br /> |Punn<br /> |30.09.2019<br /> |11.00-13.00<br /> |-<br /> |Punn<br /> |27.09.2019<br /> |11.00-13.00<br /> |-<br /> |Tarmo<br /> |27.09.2019<br /> |14.30-17.00<br /> |-<br /> |Urmas<br /> |24.09.2019<br /> |12.30-17.00<br /> |-<br /> |Kadri-Ann<br /> |24.09.2019<br /> |10.00-12.30<br /> |-<br /> |Hans<br /> |23.09.2019<br /> |11.30-17:00<br /> |-<br /> |Kadri-Ann<br /> |10.09.2019<br /> |10.00-12.30<br /> |-<br /> |Pille<br /> |22.06.2019<br /> |10.00-11.30<br /> |-<br /> |Pille<br /> |12.06.2019<br /> |17.30-19.00<br /> |-<br /> |Anna-Liisa<br /> |30.05.2019<br /> |09.00-12.00<br /> |-<br /> |Anna-Liisa<br /> |23.05.2019<br /> |09.00-12.00<br /> |-<br /> |Kaarel<br /> |17.05.2019<br /> |16.15-18.00<br /> |-<br /> |Tarmo - maintenance<br /> |14.05.2019<br /> |9.00-16.00<br /> |-<br /> |Tarmo<br /> |09.05.2019<br /> |9.30-14.00<br /> |-<br /> |Kaarel<br /> |06.05.2019<br /> |12.30-13.45<br /> |-<br /> |Anna-Liisa<br /> |03.05.2019<br /> |12.00-16.00<br /> |-<br /> |Hans<br /> |02.05.2019<br /> |13.00-18.00<br /> |-<br /> |Hans<br /> |30.04.2019<br /> |12.00-17.00<br /> |-<br /> |Georg<br /> |30.04.2019<br /> |09.00-12.00<br /> |-<br /> |Tarmo - teaching<br /> |24.04.2019<br /> |12:00-16.00<br /> |-<br /> |Urmas<br /> |17.04.2019<br /> |16.00-17.00<br /> |-<br /> |Kaarel<br /> |17.04.2019<br /> |13.30-16.00<br /> |-<br /> |Punn<br /> |17.04.2019<br /> |11:00-13:00<br /> |-<br /> |Anna-Liisa<br /> |12.04.2019<br /> |15:00-16.00<br /> |-<br /> |Tarmo - teaching<br /> |10.04.2019<br /> |12:00-16.00<br /> |-<br /> |Kaarel<br /> |04.04.2019<br /> |8.15-10.00<br /> |-<br /> |Kaarel<br /> |02.04.2019<br /> |9.30-12.30<br /> |-<br /> |Kaarel<br /> |30.03.2019<br /> |11:30-13.00<br /> |-<br /> |Kaarel<br /> |29.03.2019<br /> |14:15-16.00<br /> |-<br /> |Jelena<br /> |28.03.2019<br /> |14:00-18.00<br /> |-<br /> |Tarmo - teaching<br /> |27.03.2019<br /> |12:00-16.00<br /> |-<br /> |Punn<br /> |25.03.2019<br /> |10:00-14:00<br /> |-<br /> |Punn<br /> |23.03.2019<br /> |10:00-15:00<br /> |-<br /> |Punn<br /> |21.03.2019<br /> |10:00-17:00<br /> |-<br /> |Punn<br /> |20.03.2019<br /> |16:00-19:00<br /> |-<br /> |Ilja/Anna-Liisa<br /> |20.03.2019<br /> |9:00-16:00<br /> |-<br /> |Punn<br /> |19.03.2019<br /> |12:00-16:00<br /> |-<br /> |Anna-Liisa<br /> |19.03.2019<br /> |9:00-11.00<br /> |-<br /> |Punn<br /> |18.03.2019<br /> |10:00-15:00<br /> |-<br /> |Pille<br /> |16.03.2019<br /> |18:00-19:00<br /> |-<br /> |Kaarel<br /> |15.03.2019<br /> |14.30-17.15<br /> |-<br /> |Pille<br /> |14.03.2019<br /> |18:00-19:00<br /> |-<br /> |Punn<br /> |14.03.2019<br /> |11.00-13.00<br /> |-<br /> |Kaarel<br /> |13.03.2019<br /> |16.00-17.45<br /> |-<br /> |Kadri-Ann<br /> |13.03.2019<br /> |10.45-12.00<br /> |-<br /> |Ingrid<br /> |12.03.2019<br /> |08.30-10.15<br /> |-<br /> |Tarmo - teaching<br /> |06.03.2019<br /> |12:00-16.00<br /> |-<br /> |Ingrid, Tarmo<br /> |04.03.2019<br /> |14:00-16.30<br /> |-<br /> |Hans<br /> |28.02.2019<br /> |13:00-17.30<br /> |-<br /> |Pille<br /> |22.02.2019<br /> |14:30-17:00<br /> |-<br /> |Hans<br /> |21.02.2019<br /> |12:00-18.00<br /> |-<br /> |Pille<br /> |20.02.2019<br /> |19:00-21:00<br /> |-<br /> |Anna-Liisa<br /> |18.02.2019<br /> |16:00-18.00<br /> |-<br /> |Ingrid<br /> |18.02.2019<br /> |14:00-16.00<br /> |-<br /> |Anna-Liisa<br /> |11.02.2019<br /> |17.00-19:00<br /> |-<br /> |Punn<br /> |11.02.2019<br /> |13.00-17.00<br /> |-<br /> |Fr. Krull<br /> |01.02.2019<br /> |14.15-16.00<br /> |-<br /> |Hans<br /> |31.01.2019<br /> |15.00-18.00<br /> |-<br /> |Hans<br /> |29.01.2019<br /> |12.00-17.00<br /> |-<br /> |Kaarel<br /> |29.01.2019<br /> |17.30-19.30<br /> |-<br /> |-<br /> |Anna-Liisa<br /> |28.01.2019<br /> |15.00-17.30<br /> |-<br /> |Kaarel<br /> |25.01.2019<br /> |11.00-13.30<br /> |-<br /> |Hans<br /> |30.01.2019<br /> |12.00-17.00<br /> |-<br /> |Kaarel<br /> |23.01.2019<br /> |17.00-19.00<br /> |-<br /> |Kaarel<br /> |22.01.2019<br /> |17.00-19.00<br /> |-<br /> |Pille<br /> |22.01.2019<br /> |11:00-15:00<br /> |-<br /> |Hans<br /> |14.01.2019<br /> |13:00-17:00<br /> |-<br /> |Kadri-Ann<br /> |14.01.2019<br /> |10:00-12.00<br /> |-<br /> |Hans<br /> |07.01.2019<br /> |10:00-17:00<br /> |-<br /> |Tarmo<br /> |19.11.2018<br /> |10.30-13.00<br /> |-<br /> |Inga<br /> |16.11.2018<br /> |15.30-17.00<br /> |-<br /> |Hans<br /> |08.11.2018<br /> |08.00-14.00<br /> |-<br /> |Inga<br /> |07.11.2018<br /> |10.30-12.00<br /> |-<br /> |Inga<br /> |06.11.2018<br /> |17.00-18.00?<br /> |-<br /> |Hans<br /> |06.11.2018<br /> |13.00-17.00<br /> |-<br /> |Inga<br /> |05.11.2018<br /> |15.30-17.00<br /> |-<br /> |Tarmo<br /> |05.11.2018<br /> |13:00-15.30<br /> |-<br /> |Hans<br /> |29.10.2018<br /> |10:00-16.00<br /> |-<br /> |Inga<br /> |19.10.2018<br /> |10:30-12.00<br /> |-<br /> |Inga<br /> |10.10.2018<br /> |16:30-17.30<br /> |-<br /> |Tarmo<br /> |10.10.2018<br /> |14:00-16:30<br /> |-<br /> |Pille<br /> |18.09.2018<br /> |12:30-15:30<br /> |-<br /> |Kadri-Ann<br /> |05.09.2018<br /> |16.00-17.30<br /> |-<br /> |Pille<br /> |27.08.2018<br /> |13:30-15:30<br /> |-<br /> |Hans<br /> |21.08.2018<br /> |13:00-16:00<br /> |-<br /> |Pille<br /> |09.07.2018<br /> |15:30-17:30<br /> |-<br /> |Pille<br /> |06.07.2018<br /> |14:30-15:30<br /> |-<br /> |Hans<br /> |06.07.2018<br /> |10:00-13:00<br /> |-<br /> |Fred<br /> |07.06.2018<br /> |15:35-18:45<br /> |-<br /> |Fred<br /> |06.06.2018<br /> |16:00-17:00<br /> |-<br /> |Ingmar<br /> |30.05.2018<br /> |13:00-15:00<br /> |-<br /> |Pille<br /> |24.05.2018<br /> |09:00-10:00<br /> |-<br /> |Pille<br /> |21.05.2018<br /> |15:00-18:00<br /> |-<br /> |Fred<br /> |26.04.2018<br /> |15:00-17:00<br /> |-<br /> |Urmas, 316 teras<br /> |14.03.2018<br /> |9:15-16:00<br /> |-<br /> |Tarmo õppetöö<br /> |28.02.2018<br /> |12:15-16:00<br /> |-<br /> |Urmas, 316 teras<br /> |27.02.2018<br /> |9:15-16:00<br /> |-<br /> |Tarmo õppetöö<br /> |21.02.2018<br /> |12:15-16:00<br /> |-<br /> |Pille<br /> |13.02.2018<br /> |14:30-16:00<br /> |-<br /> |Pille<br /> |12.02.2018<br /> |13:20-15:00<br /> |-<br /> |Hans<br /> |21.11.2017 <br /> |10:10-13:00<br /> |-<br /> |Kaur<br /> |20.11.2017 <br /> |10:45-11:45<br /> |-<br /> |Kaur<br /> |02.11.2017 <br /> |8:00-16:30<br /> |-<br /> |Anna-Liisa<br /> |05.10.2017 <br /> |16:30-17:30<br /> |-<br /> |Hans<br /> |07.06.2017 <br /> |13:30-15:30<br /> |-<br /> |Pille<br /> |07.06.2017 <br /> |09:30-11:30<br /> |-<br /> |Friedrich<br /> |25.05.2017 <br /> |13:00-15:00<br /> |-<br /> |Friedrich<br /> |5.05.2017 <br /> |9:00-12:00<br /> |-<br /> |Tarmo, Markus<br /> |28.04.2017 <br /> |10:00-14:30<br /> |-<br /> |Tarmo, Markus<br /> |26.04.2017 <br /> |10:00-14:30<br /> |-<br /> |Pille<br /> |26.04.2017 <br /> |08:40-10:00<br /> |-<br /> |Tarmo, Markus<br /> |24.04.2017 <br /> |09:00-14:30<br /> |-<br /> |Pille<br /> |13.03.2017 <br /> |13:40-14:30<br /> |-<br /> |Pille<br /> |20.02.2017 <br /> |10:00-12:30<br /> |-<br /> |Friedrich<br /> |8.02.2017 <br /> |13:00-15:30<br /> |-<br /> |Friedrich<br /> |6.02.2017 <br /> |15:00-17:30<br /> |-<br /> |Friedrich<br /> |2.02.2017 <br /> |10:00-12:00<br /> |-<br /> |Fred<br /> |26.01.2017 <br /> |15:00-17:00<br /> |-<br /> |Pille<br /> |19.01.2017 <br /> |14:00-16:00<br /> |-<br /> |Tarmo<br /> |11.01.2017 <br /> |10:00-17:00<br /> |-<br /> |Pille<br /> |14.12.2016 <br /> |11:00-15:00<br /> |-<br /> |Pille &Friedrich<br /> |26.10.2016 <br /> |11:30-17:00<br /> |-<br /> |Anna-Liisa<br /> |23.09.2016 <br /> |11:30-16:00<br /> |-<br /> |Anna-Liisa<br /> |21.09.2016 <br /> |15:00-17:00<br /> |-<br /> |Arko<br /> |19.09.2016 <br /> |11:00-14:00<br /> |-<br /> |Friedrich<br /> |23.05.2016 <br /> |10:00-13:00<br /> |-<br /> |Friedrich<br /> |09.05.2016 <br /> |13:30-16:00<br /> |-<br /> |Urmas<br /> |03.05.2016<br /> |10:00-14:00<br /> |-<br /> |Tarmo<br /> |26.04.2016<br /> |10:00-16:00<br /> |-<br /> |Tarmo<br /> |25.04.2016<br /> |10:00-16:00<br /> |-<br /> |Sunjai<br /> |22.04.2016<br /> |14:00-18:00<br /> |-<br /> |Sunjai<br /> |15.04.2016<br /> |14:00-16:00<br /> |-<br /> |Veiko<br /> |04.04.2016<br /> |12:00-17:00<br /> |-<br /> |Punn<br /> |01.04.2016<br /> |10:00-16:00<br /> |-<br /> |Punn<br /> |31.04.2016<br /> |14:00-18:00<br /> |-<br /> |Fred<br /> |09.02.2016<br /> |13:00-14:30<br /> |-<br /> |Zane<br /> |06.01.2016<br /> |11:00-12:00<br /> |-<br /> |Anna-Liisa<br /> |29.12.2015<br /> |14:30-16:00<br /> |-<br /> |Anna-Liisa<br /> |28.12.2015<br /> |14:30-16:00<br /> |-<br /> |Fred<br /> |17.12.2015<br /> |14:00-16:00<br /> |-<br /> |Anna-Liisa<br /> |9.12.2015<br /> |11:00-14:00<br /> |-<br /> |Fred<br /> |03.12.2015<br /> |10:40-14:00<br /> |-<br /> |Anna-Liisa<br /> |19.11.2015<br /> |11:00-12:00<br /> |-<br /> |Fred<br /> |9.11.2015<br /> |11:00-12:00<br /> |-<br /> |Anna-Liisa<br /> |26.10.2015<br /> |16:00-18:00<br /> |-<br /> |Arko<br /> |19.10.2015<br /> |15.00-16.00<br /> |-<br /> |Fred<br /> |14.10.2015<br /> |10.00-11.00<br /> |-<br /> |Anna-Liisa<br /> |12.10.2015<br /> |13.00-15.00<br /> |-<br /> |Anna-Liisa<br /> |28.09.2015<br /> |13.00-14.00<br /> |-<br /> |Arko<br /> |11.09.2015<br /> |11.00-16.00<br /> |-<br /> |Fred<br /> |09.09.2015<br /> |11.00-12.00<br /> |-<br /> |Friedrich<br /> |27.08.2015<br /> |10.00-18.00<br /> |-<br /> |Zane<br /> |30.06.2015<br /> |11.00-12.00<br /> |-<br /> |Zane<br /> |26.06.2015<br /> |11.00-12.00<br /> |-<br /> |Arko<br /> |18.06.2015<br /> |12.00-13.00<br /> |-<br /> |Fred<br /> |09.06.2015<br /> |12.00-16.00<br /> |-<br /> |-<br /> |Fred<br /> |05.06.2015<br /> |11.30-15.00<br /> |-<br /> |-<br /> |Zane<br /> |04.06.2015<br /> |13.00-14.00<br /> |-<br /> |Arko<br /> |03.06.2015<br /> |11.00-16.00<br /> |-<br /> |-<br /> |Punn<br /> |20.05.2015<br /> |11.00-15.00<br /> |-<br /> |-<br /> |Ingvar<br /> |15.05.2015<br /> |13.00-14.00<br /> |-<br /> |-<br /> |Zane<br /> |15.05.2015<br /> |13.00-14.00<br /> |-<br /> |-<br /> |Friedrich<br /> |13.05.2015<br /> |15.00-17.00<br /> |-<br /> |-<br /> |Veiko<br /> |12.05.2015<br /> |08.00-14.00<br /> |-<br /> |-<br /> |Vishwaja<br /> |08.05.2015<br /> |12.20-14.30<br /> |-<br /> |Vishwaja <br /> |07.05.2015<br /> |14.20 - 18.30<br /> |-<br /> |Zane <br /> |6.05.2015<br /> |11:30-12:30<br /> |-<br /> |Zane <br /> |5.05.2015<br /> |15:00-16:30<br /> |-<br /> |Zane<br /> |04.05.2015<br /> |12:30-14:00<br /> |-<br /> |Inga<br /> |23.04.2015<br /> |14:30-16:00<br /> |-<br /> |Anna-Liisa<br /> |08.04.2015<br /> |16:00-18:00<br /> |-<br /> |Friedrich<br /> |07.04.2015<br /> |15:30-16:30<br /> |-<br /> |Kätlin<br /> |06.04.2015<br /> |9:00-11:00<br /> |-<br /> |Inga<br /> |06.04.2015<br /> |11:00-17:00<br /> |-<br /> |Punn<br /> |02.04.2015<br /> |11:00-19:00<br /> |-<br /> |Inga<br /> |01.04.2015<br /> |13:30-17:30<br /> |-<br /> |Tarmo<br /> |01.04.2015<br /> |09:00-13:00<br /> |-<br /> |Punn<br /> |31.03.2015<br /> |11:00-19:00<br /> |-<br /> |Punn<br /> |30.03.2015<br /> |10:00-19:00<br /> |-<br /> |Anna-Liisa<br /> |30.03.2015<br /> |8:00-9:30<br /> |-<br /> |Punn<br /> |27.03.2015<br /> |11:30-19:00<br /> |-<br /> |Anna-Liisa<br /> |27.03.2015<br /> |8:00-11:00<br /> |-<br /> |Punn<br /> |26.03.2015<br /> |11:00-16:00<br /> |-<br /> |Fred<br /> |19.03.2015<br /> |12:00-16:00<br /> |-<br /> |Fred<br /> |12.03.2015<br /> |12:00-16:00<br /> |-<br /> |Fred<br /> |05.03.2015<br /> |12:00-16:00<br /> |-<br /> |Friedrich<br /> |04.03.2015<br /> |15:30-17:00<br /> |-<br /> |Fred<br /> |03.08.2015<br /> |12:00-14:00<br /> |-<br /> |Arko<br /> |02.03.2015<br /> |10:00-17:00<br /> |-<br /> |Anna-Liisa<br /> |27.02.2015<br /> |10:00-15:00<br /> |-<br /> |Anna-Liisa<br /> |20.02.2015<br /> |12:00-13:30<br /> |-<br /> |Anna-Liisa<br /> |19.02.2015<br /> |15:00-16:00<br /> |-<br /> |Arko<br /> |04.02.2015<br /> |12:00-17:00<br /> |-<br /> |Rauno<br /> |27.01.2015<br /> |15:00-19:00<br /> |-<br /> |Rauno<br /> |06.01.2015<br /> |15:00-19:00<br /> |-<br /> |Punn<br /> |23.12.2014<br /> |11:00-14:00<br /> |-<br /> |Tarmo<br /> |05.12.2014<br /> |11:00-13:00<br /> |-<br /> |Hans<br /> |04.12.2014<br /> |10:00-16:00<br /> |-<br /> |Tarmo<br /> |27.11.2014<br /> |14:00-17:00<br /> |-<br /> |<span style="color:red">----</span><br /> |-<br /> |Tarmo<br /> |06.05.2014<br /> |10:00-12:00<br /> |-<br /> |Punn<br /> |06.05.2014<br /> |15:00-18:00<br /> |-<br /> |Punn<br /> |07.05.2014<br /> |10:00-13:00<br /> |-<br /> |Punn<br /> |08.05.2014<br /> |12:00-15:00<br /> |-<br /> |Sven-Erik<br /> |09.05.2014<br /> |11:00-13:00<br /> |-<br /> |Tarmo<br /> |13.05.2014<br /> |10:00-12:00<br /> |-<br /> |Inga ja Kristiina<br /> |13.05.2014<br /> |12:00-18:00<br /> |-<br /> |Veiko<br /> |14.05.2014<br /> |08:00-10:00<br /> |-<br /> |Inga ja Kristiina<br /> |14.05.2014<br /> |10:00-14:00<br /> |-<br /> |Veiko<br /> |14.05.2014<br /> |14:00-17:00<br /> |-<br /> |Tarmo<br /> |15.05.2014<br /> |12:00-15:00<br /> |-<br /> |Veiko<br /> |19.05.2014<br /> |08:00-17:00<br /> |-<br /> |Veiko<br /> |20.05.2014<br /> |07:00-14:00<br /> |-<br /> |Tarmo<br /> |20.05.2014<br /> |14:00-16:00<br /> |-<br /> |Madis<br /> |22.05.2014<br /> |14:30-16:30<br /> |-<br /> |Madis<br /> |23.05.2014<br /> |12:00-17:00<br /> |-<br /> |Madis<br /> |27.05.2014<br /> |12:00-17:00<br /> |-<br /> |Sven-Erik<br /> |30.05.2014<br /> |10:00-12:00<br /> |-<br /> |Veiko<br /> |02.06.2014<br /> |11:00-13:00<br /> |-<br /> |Veiko<br /> |03.06.2014<br /> |12:00-17:00<br /> |-<br /> |Inga<br /> |03.06.2014<br /> |10:00-12:00<br /> |-<br /> |Kristiina<br /> |04.06.2014<br /> |11:30-18:00<br /> |-<br /> |Madis<br /> |05.06.2014<br /> |10:00-15:00<br /> |-<br /> |Inga<br /> |05.06.2014<br /> |15:00-17:00<br /> |-<br /> |Sven-Erik<br /> |12.06.2014<br /> |10:00-13:00<br /> |-<br /> |Urmas<br /> |20.06.2014<br /> |10:00-11:00<br /> |-<br /> |Punn<br /> |01.09.2014<br /> |13:00-15:00<br /> |-<br /> |David Vardanjan<br /> |02.09.2014<br /> |13:00-17:00<br /> |-<br /> |Punn<br /> |03.09.2014<br /> |11:00-13:00<br /> |-<br /> |Harjo<br /> |08.09.2014<br /> |14:00-15:00<br /> |-<br /> |Inga<br /> |11.09.2014<br /> |12:00-18:00<br /> |-<br /> |Punn<br /> |15.09.2014<br /> |12:00-13:00<br /> |-<br /> |Punn<br /> |16.09.2014<br /> |13:00-16:00<br /> |-<br /> |Hans<br /> |18.09.2014<br /> |16:00-18:00<br /> |-<br /> |Punn<br /> |23.09.2014<br /> |13:00-16:00<br /> |-<br /> |Hans<br /> |24.09.2014<br /> |17:00-19:00<br /> |-<br /> |Punn<br /> |26.09.2014<br /> |11:00-15:00<br /> |-<br /> |Hans<br /> |26.09.2014<br /> |16:00-18:00<br /> |-<br /> |Madis<br /> |02.10.2014<br /> |16:00-17:00<br /> |-<br /> |Punn<br /> |20.10.2014<br /> |15:30:-17:00<br /> |-<br /> |Punn<br /> |21.10.2014<br /> |15:30:-17:00<br /> |-<br /> |Punn<br /> |24.10.2014<br /> |12:00:-15:00<br /> |-<br /> |Punn<br /> |03.11.2014<br /> |14:30:-17:00<br /> |-<br /> |Madis<br /> |04.11.2014<br /> |13:30:-14:30<br /> |-<br /> |Punn<br /> |10.11.2014<br /> |11:30:-13:00<br /> |-<br /> |Punn<br /> |19.11.2014<br /> |11:00:-15:00<br /> |-<br /> |Punn<br /> |20.11.2014<br /> |09:30-17:00</div>

Hans priks https://ims.ut.ee/index.php?title=SEM_booking&diff=42033 SEM booking 2025-04-11T08:40:18Z

<p>Hans priks: /* Booking list */</p> <hr /> <div>If you wish to book the scanning electron microscope in the clean room for your experiments, please write here your name and the time when you will use SEM, so others can also plan their experiments.<br /> <br /> =='''Booking list'''==<br /> <br /> <span style="color:red">'''NB! Please remind your students - ALL SEM sessions must be registered before use!''' </span><br /> <br>'''NB! Newer bookings on top!''' </span><br /> <br /> {| class="wikitable"<br /> !colspan="6"|Booking list<br /> |-<br /> |Hans<br /> |11.04.2025<br /> |11:40-13:00<br /> |-<br /> |Tarmo<br /> |11.04.2025<br /> |13:00-17:00<br /> |-<br /> |David U<br /> |26.03.2025<br /> |13:00-14:00<br /> |-<br /> |Liis T<br /> |15.-16.03.2025<br /> |11:00-19:00<br /> |-<br /> |Liis T<br /> |11.03.2025<br /> |17:00-19:00<br /> |-<br /> |Tarmo, Liis<br /> |10.03.2025<br /> |12:00-15:00<br /> |-<br /> |Karl Jakob<br /> |17.01.2025<br /> |13:00-14:00<br /> |-<br /> |Kadri-Ann<br /> |17.12.2024<br /> |15:00-17:00<br /> |-<br /> |Siim<br /> |03.12.2024<br /> |15:00-16:00<br /> |-<br /> |David U<br /> |02.12.2024<br /> |10:00-15:00<br /> |-<br /> |Siim and Ankush<br /> |29.11.2024<br /> |12:00-14:00<br /> |-<br /> |Siim<br /> |09.10.2024<br /> |14:00-16:00<br /> |-<br /> |Kadri-Ann<br /> |11.09.2024<br /> |08:30-10:00<br /> |-<br /> |Kadri-Ann<br /> |11.09.2024<br /> |17:45-19:00<br /> |-<br /> |Kadri-Ann (EDX)<br /> |11.09.2024<br /> |10.15-11:30<br /> |-<br /> |Lii (EDX)<br /> |18.06.2024<br /> |16:30-18:30<br /> |-<br /> |Lii (EDX)<br /> |13.06.2024<br /> |16:00-18:00<br /> |-<br /> |Jakob ja Lii<br /> |10.06.2024<br /> |12:00-14:00<br /> |-<br /> |Jakob<br /> |05.06.2024<br /> |10:00-11:00<br /> |-<br /> |Jakob<br /> |04.06.2024<br /> |10:00-12:00<br /> |-<br /> |Jakob ja Janno<br /> |28.05.2024<br /> |10:00-12:00<br /> |-<br /> |Ingrid (canceled)<br /> |24.05.2024<br /> |09:00-12:00<br /> |-<br /> |Kadri-Ann<br /> |30.04.2024<br /> |15:00-18:00<br /> |-<br /> |Jakob<br /> |29.04.2024<br /> |19:00-21:00<br /> |-<br /> |Siim<br /> |29.04.2024<br /> |11:00-12:00<br /> |-<br /> |Siim<br /> |28.04.2024<br /> |15:00-16:00<br /> |-<br /> |Siim<br /> |23.04.2024<br /> |15:00-16:00<br /> |-<br /> |Siim<br /> |15.04.2024<br /> |15:00-16:00<br /> |-<br /> |Siim<br /> |02.04.2024<br /> |12:00-14:00<br /> |-<br /> |Marie (EDX)<br /> |23.03.2024<br /> |10:00-12:00<br /> |-<br /> |Yauheni (SEM)<br /> |22.03.2024<br /> |16:00-17:00<br /> |-<br /> |Siim (EDX)<br /> |22.03.2024<br /> |12:00-13:00<br /> |-<br /> |Siim (EDX)<br /> |15.03.2024<br /> |14:00-15:00<br /> |-<br /> |Daniels<br /> |15.03.2024<br /> |12:00-13:30<br /> |-<br /> |Anna-Liisa (EDX)<br /> |15.03.2024<br /> |08:00-11:00<br /> |-<br /> |Siim<br /> |07.03.2024<br /> |10:00-10:30<br /> |-<br /> |Siim<br /> |06.03.2024<br /> |14:00-15:00<br /> |-<br /> |Siim ja David U (EDX)<br /> |05.03.2024<br /> |12:00-13:00<br /> |-<br /> |Siim<br /> |01.03.2024<br /> |13:00-13:30<br /> |-<br /> |Daniels<br /> |27.02.2024<br /> |11:30-12:30<br /> |-<br /> |Urmas & Mariann<br /> |26.02.2024<br /> |11:00-17:00<br /> |-<br /> |Daniels<br /> |21.02.2024<br /> |10:00-12:00<br /> |-<br /> |Urmas<br /> |20.02.2024<br /> |14:00-18:00<br /> |-<br /> |Siim<br /> |20.02.2024<br /> |11:00-13:00<br /> |-<br /> |Karl Jakob<br /> |14.02.2024<br /> |13:00-15:00<br /> |-<br /> |Yauheni (EDX)<br /> |24.01.2024<br /> |11:00-13:00<br /> |-<br /> |Urmas<br /> |23.01.2024<br /> |14:00-20:00<br /> |-<br /> |Anna-Liisa<br /> |23.01.2024<br /> |11:30-14:00<br /> |-<br /> |Yauheni (EDX)<br /> |19.01.2024<br /> |11:00-12:00<br /> |-<br /> |Anna-Liisa (SEM+EDX)<br /> |19.01.2024<br /> |10:00-15:00<br /> |-<br /> |Anna-Liisa<br /> |17.01.2024<br /> |16:00-19:00<br /> |-<br /> |Marie<br /> |16.01.2024<br /> |09:30-12:00<br /> |-<br /> |-<br /> |Anna-Liisa (EDX)<br /> |11.01.2024<br /> |15:00-16:00<br /> |-<br /> |Anna-Liisa<br /> |02.01.2024<br /> |10:00-12:00<br /> |-<br /> |Marie<br /> |06.12.2023<br /> |10:00-13:00<br /> |-<br /> |Marie<br /> |01.12.2023<br /> |11:00-14:00<br /> |-<br /> |Anna-Liisa<br /> |30.11.2023<br /> |10:00-14:00<br /> |-<br /> |Anna-Liisa<br /> |27.11.2023<br /> |10:00-14:00<br /> |-<br /> |Marie<br /> |22.08.2023<br /> |14:30-16:30<br /> |-<br /> |Pranjal<br /> |1.07.2023<br /> |12:00-15:00<br /> |-<br /> |Pranjal<br /> |28.06.2023<br /> |12:00-15:00<br /> |-<br /> |Ingrid, Pranjal (canceled)<br /> |21.06.2023<br /> |09:00-11:00<br /> |-<br /> |Marie<br /> |30.05.2023<br /> |11:30-14:00<br /> |-<br /> |Ingrid<br /> |17.05.2023<br /> |15:00-16:00<br /> |-<br /> |Ingrid<br /> |12.05.2023<br /> |15:00-16:00<br /> |-<br /> |Urmas<br /> |26.04.2023<br /> |14:00-18:00<br /> |-<br /> |Lauri<br /> |25.04.2023<br /> |15:00-17:00<br /> |-<br /> |Ingrid (Tenson)<br /> |21.04.2023<br /> |09:30-12:00<br /> |-<br /> |Marie<br /> |13.04.2023<br /> |13:30-15:00<br /> |-<br /> |Maintenance by IT Helpdesk<br /> |05.04.2023<br /> |10:00-14:00<br /> |-<br /> |Ingrid<br /> |04.04.2023<br /> |09:00-11:00, 12:25-12:50<br /> |-<br /> |Marie<br /> |31.03.2023<br /> |10:30-13:30<br /> |-<br /> |Marie<br /> |30.03.2023<br /> |13:30-15:30<br /> |-<br /> |Ingrid, Qian<br /> |27.03.2023<br /> |10:00-12:00<br /> |-<br /> |Indrek<br /> |14.03.2023<br /> |08:00-09:00<br /> |-<br /> |Indrek<br /> |13.03.2023<br /> |08:00-09:30<br /> |-<br /> |Pille<br /> |11.03.2023<br /> |15:30-16:30<br /> |-<br /> |Pille<br /> |11.03.2023<br /> |09:00-10:30<br /> |-<br /> |Urmas<br /> |09.03.2023<br /> |19.00-21.00<br /> |-<br /> |Pille<br /> |05.03.2023<br /> |09:30-09:45<br /> |-<br /> |Tarmo<br /> |23.02.2023<br /> |13:30-15:30<br /> |-<br /> |Tarmo<br /> |17.02.2023<br /> |11:30-14:00<br /> |-<br /> |Ingrid<br /> |15.02.2023<br /> |10:00-14:30<br /> |-<br /> |Ingrid<br /> |14.02.2023<br /> |10:30-12:45<br /> |-<br /> |Ingrid<br /> |13.02.2023<br /> |11:00-13:00<br /> |-<br /> |Tarmo<br /> |09.02.2023<br /> |14:30-17:00<br /> |-<br /> |Tarmo<br /> |06.02.2023<br /> |13:30-17:00<br /> |-<br /> |Tarmo<br /> |24.01.2023<br /> |14:00-17:00<br /> |-<br /> |Tarmo<br /> |23.01.2023<br /> |15:30-17:00<br /> |-<br /> |Tarmo<br /> |18.01.2023<br /> |14:00-16:00<br /> |-<br /> |Indrek, Yauheni<br /> |18.01.2023<br /> |10:00-13:00<br /> |-<br /> |Tarmo, Lauri<br /> |17.01.2023<br /> |12:00-18:00<br /> |-<br /> |Tarmo<br /> |12.12.2022<br /> |14:00-16:30<br /> |-<br /> |Tarmo<br /> |30.11.2022<br /> |12:00-16:30<br /> |-<br /> |Ingrid<br /> |28.11.2022<br /> |10:30-12:30<br /> |-<br /> |Tarmo<br /> |28.11.2022<br /> |13:00-16:30<br /> |-<br /> |Ingrid<br /> |25.11.2022<br /> |13:00-15:00<br /> |-<br /> |Tarmo<br /> |24.11.2022<br /> |13:00-17:00<br /> |-<br /> |Tarmo and Arif <br /> |05.10.2022<br /> |15:00-17:30<br /> <br /> |-<br /> |Ingrid (SEM+EDX)<br /> |05.10.2022<br /> |10:30-12:30<br /> |-<br /> |Ingrid (SIF-bio)<br /> |02.09.2022<br /> |10:45-12:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |01.09.2022<br /> |13:30-16:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |31.08.2022<br /> |11:30-13:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |30.08.2022<br /> |14:00-16:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |29.08.2022<br /> |10:30-13:00<br /> |-<br /> |Pille<br /> |20.08.2022<br /> |14:00-17:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |19.08.2022<br /> |09:00-12:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |17.08.2022<br /> |10:00-12:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |12.08.2022<br /> |09.30-11:00<br /> |-<br /> |Ingrid (SIF-bio)<br /> |11.08.2022<br /> |10.30-12:30<br /> |-<br /> |Ingrid (SIF-bio)<br /> |08.08.2022<br /> |14.30-16:30<br /> |-<br /> |Kadri-Ann<br /> |27.06.2022<br /> |10.00-12:00<br /> |-<br /> |Kadri-Ann (not used)<br /> |15.06.2022<br /> |14:30-16:00<br /> |-<br /> |Indrek<br /> |14.06.2022<br /> |10.00-13.00<br /> |-<br /> |Lancy, David, Tarmo<br /> |24.05.2022<br /> |14.00-18.00<br /> |-<br /> |Silvia<br /> |19.05.2022<br /> |09.00-10.00<br /> |-<br /> |Tarmo<br /> |29.04.2022<br /> |14.30-19.00<br /> |-<br /> |Tarmo<br /> |21.01.2022<br /> |15.30-17.00<br /> |-<br /> |Ingrid - SIF, bio (cancelled, SEM down)<br /> |11.01.2022<br /> |12.00-14.00<br /> |-<br /> |Hans, Ingrid - SIF, bio<br /> |16.12.2021<br /> |14.00-16.00<br /> |-<br /> |Tarmo<br /> |01.12.2021<br /> |15.30-17.00<br /> |-<br /> |Anna-Liisa, Anna (SEM+EDX)<br /> |15.11.2021<br /> |10.00-12.00<br /> |-<br /> |Kadri-Ann (SEM)<br /> |29.10.2021<br /> |14.00-16.00<br /> |-<br /> |Anna-Liisa, Ivan - carbon (SEM+EDX)<br /> |01.10.2021<br /> |9.00-14.00<br /> |-<br /> |Arko<br /> |20.09.2021<br /> |17.00-19.00<br /> |-<br /> |Anna-Liisa, Ivan - carbon (SEM+EDX)<br /> |17.09.2021<br /> |09.00-11.00<br /> |-<br /> |Maintenance - pump replacement<br /> |09.082.2021<br /> |09.00-18.00<br /> |-<br /> |Karl Usin - wastewater residue<br /> |21.12.2020<br /> |10.00-14.00<br /> |-<br /> |Urmas - wastewater residue<br /> |18.12.2020<br /> |10.00-17.00<br /> |-<br /> |Karl Usin - wastewater residue<br /> |17.12.2020<br /> |14.00-18.00<br /> |-<br /> |Siim - aerated concrete<br /> |16.12.2020<br /> |08.00-12.00<br /> |-<br /> |Siim - aerated concrete<br /> |09.12.2020<br /> |08.00-12.00<br /> |-<br /> |Tarmo - maintenance<br /> |08.12.2020<br /> |12.00-18.00<br /> |-<br /> |Tarmo<br /> |01.12.2020<br /> |14.00-18.00<br /> |-<br /> |Ausra and Mark (SEM and EDX, Sample - carbon)<br /> |17.11.2020<br /> |13.00-16.00<br /> |-<br /> |Ausra and Mark (SEM and EDX, Sample - carbon)<br /> |4.11.2020<br /> |10.00-13.00<br /> |-<br /> |Maarja<br /> |23.10.2020<br /> |09.30-12.00<br /> |-<br /> |Karl Usin<br /> |20.10.2020<br /> |14.00-18.00<br /> |-<br /> |Maarja<br /> |16.10.2020<br /> |09.00-12.00<br /> |-<br /> |Anna-Liisa<br /> |28.09.2020<br /> |12.00-15.00<br /> |-<br /> |Kadri-Ann<br /> |17.04.2020<br /> |12:30-14:00<br /> |-<br /> |Anna-Liisa<br /> |19.02.2020<br /> |14.00-17.30<br /> |-<br /> |Pille<br /> |03.02.2020<br /> |19.30-20.30<br /> |-<br /> |Anna-Liisa<br /> |03.02.2020<br /> |14.30-17.30<br /> |-<br /> |Pille<br /> |02.02.2020<br /> |11.00-12.00<br /> |-<br /> |Urmas<br /> |31.01.2020<br /> |14.00-18.00<br /> |-<br /> |Anna-Liisa<br /> |31.01.2020<br /> |11.00-14.00<br /> |-<br /> |Urmas<br /> |30.01.2020<br /> |15.00-18.00<br /> |-<br /> |Anna-Liisa<br /> |24.01.2020<br /> |11.00-14.00<br /> |-<br /> |Sannie<br /> |16.12.2019<br /> |09.00-12.00<br /> |-<br /> |Sannie<br /> |12.12.2019<br /> |09.00-12.00<br /> |-<br /> |Sannie<br /> |09.12.2019<br /> |09.00-12.00<br /> |-<br /> |Hans<br /> |06.12.2019<br /> |13.00-17.00<br /> |-<br /> |Fred<br /> |03.12.2019<br /> |11.00-13.10<br /> |-<br /> |Hans<br /> |29.11.2019<br /> |13.00-17.00<br /> |-<br /> |Sannie<br /> |29.11.2019<br /> |10.00-13.00<br /> |-<br /> |Hans<br /> |28.11.2019<br /> |14.00-17.00<br /> |-<br /> |Sannie<br /> |28.11.2019<br /> |09.30-12.00<br /> |-<br /> |Hans<br /> |22.11.2019<br /> |12.00-15.00<br /> |-<br /> |Sannie<br /> |21.11.2019<br /> |09.30-12.00<br /> |-<br /> |Hans<br /> |20.11.2019<br /> |14.30-18.00<br /> |-<br /> |Hans<br /> |11.11.2019<br /> |14.00-17.00<br /> |-<br /> |Sannie<br /> |06.11.2019<br /> |09.30-12.00<br /> |-<br /> |Sannie<br /> |01.11.2019<br /> |12.30-15.00<br /> |-<br /> |Hans<br /> |25.10.2019<br /> |13.00-18.00<br /> |-<br /> |Sannie<br /> |23.10.2019<br /> |09.30-12.00<br /> |-<br /> |Sannie<br /> |23.10.2019<br /> |09.30-12.00<br /> |-<br /> |Friedrich<br /> |21.10.2019<br /> |12.00-14.00<br /> |-<br /> |Sannie<br /> |18.10.2019<br /> |10.00-12.00<br /> |-<br /> |Sannie<br /> |16.10.2019<br /> |10.00-12.00<br /> |-<br /> |Sannie<br /> |14.10.2019<br /> |13.30-14.30<br /> |-<br /> |Tarmo<br /> |04.10.2019<br /> |14.15-17.00<br /> |-<br /> |Anna-Liisa<br /> |03.10.2019<br /> |15.00-16.30<br /> |-<br /> |Tarmo<br /> |02.10.2019<br /> |14.00-17.00<br /> |-<br /> |Punn<br /> |30.09.2019<br /> |11.00-13.00<br /> |-<br /> |Punn<br /> |27.09.2019<br /> |11.00-13.00<br /> |-<br /> |Tarmo<br /> |27.09.2019<br /> |14.30-17.00<br /> |-<br /> |Urmas<br /> |24.09.2019<br /> |12.30-17.00<br /> |-<br /> |Kadri-Ann<br /> |24.09.2019<br /> |10.00-12.30<br /> |-<br /> |Hans<br /> |23.09.2019<br /> |11.30-17:00<br /> |-<br /> |Kadri-Ann<br /> |10.09.2019<br /> |10.00-12.30<br /> |-<br /> |Pille<br /> |22.06.2019<br /> |10.00-11.30<br /> |-<br /> |Pille<br /> |12.06.2019<br /> |17.30-19.00<br /> |-<br /> |Anna-Liisa<br /> |30.05.2019<br /> |09.00-12.00<br /> |-<br /> |Anna-Liisa<br /> |23.05.2019<br /> |09.00-12.00<br /> |-<br /> |Kaarel<br /> |17.05.2019<br /> |16.15-18.00<br /> |-<br /> |Tarmo - maintenance<br /> |14.05.2019<br /> |9.00-16.00<br /> |-<br /> |Tarmo<br /> |09.05.2019<br /> |9.30-14.00<br /> |-<br /> |Kaarel<br /> |06.05.2019<br /> |12.30-13.45<br /> |-<br /> |Anna-Liisa<br /> |03.05.2019<br /> |12.00-16.00<br /> |-<br /> |Hans<br /> |02.05.2019<br /> |13.00-18.00<br /> |-<br /> |Hans<br /> |30.04.2019<br /> |12.00-17.00<br /> |-<br /> |Georg<br /> |30.04.2019<br /> |09.00-12.00<br /> |-<br /> |Tarmo - teaching<br /> |24.04.2019<br /> |12:00-16.00<br /> |-<br /> |Urmas<br /> |17.04.2019<br /> |16.00-17.00<br /> |-<br /> |Kaarel<br /> |17.04.2019<br /> |13.30-16.00<br /> |-<br /> |Punn<br /> |17.04.2019<br /> |11:00-13:00<br /> |-<br /> |Anna-Liisa<br /> |12.04.2019<br /> |15:00-16.00<br /> |-<br /> |Tarmo - teaching<br /> |10.04.2019<br /> |12:00-16.00<br /> |-<br /> |Kaarel<br /> |04.04.2019<br /> |8.15-10.00<br /> |-<br /> |Kaarel<br /> |02.04.2019<br /> |9.30-12.30<br /> |-<br /> |Kaarel<br /> |30.03.2019<br /> |11:30-13.00<br /> |-<br /> |Kaarel<br /> |29.03.2019<br /> |14:15-16.00<br /> |-<br /> |Jelena<br /> |28.03.2019<br /> |14:00-18.00<br /> |-<br /> |Tarmo - teaching<br /> |27.03.2019<br /> |12:00-16.00<br /> |-<br /> |Punn<br /> |25.03.2019<br /> |10:00-14:00<br /> |-<br /> |Punn<br /> |23.03.2019<br /> |10:00-15:00<br /> |-<br /> |Punn<br /> |21.03.2019<br /> |10:00-17:00<br /> |-<br /> |Punn<br /> |20.03.2019<br /> |16:00-19:00<br /> |-<br /> |Ilja/Anna-Liisa<br /> |20.03.2019<br /> |9:00-16:00<br /> |-<br /> |Punn<br /> |19.03.2019<br /> |12:00-16:00<br /> |-<br /> |Anna-Liisa<br /> |19.03.2019<br /> |9:00-11.00<br /> |-<br /> |Punn<br /> |18.03.2019<br /> |10:00-15:00<br /> |-<br /> |Pille<br /> |16.03.2019<br /> |18:00-19:00<br /> |-<br /> |Kaarel<br /> |15.03.2019<br /> |14.30-17.15<br /> |-<br /> |Pille<br /> |14.03.2019<br /> |18:00-19:00<br /> |-<br /> |Punn<br /> |14.03.2019<br /> |11.00-13.00<br /> |-<br /> |Kaarel<br /> |13.03.2019<br /> |16.00-17.45<br /> |-<br /> |Kadri-Ann<br /> |13.03.2019<br /> |10.45-12.00<br /> |-<br /> |Ingrid<br /> |12.03.2019<br /> |08.30-10.15<br /> |-<br /> |Tarmo - teaching<br /> |06.03.2019<br /> |12:00-16.00<br /> |-<br /> |Ingrid, Tarmo<br /> |04.03.2019<br /> |14:00-16.30<br /> |-<br /> |Hans<br /> |28.02.2019<br /> |13:00-17.30<br /> |-<br /> |Pille<br /> |22.02.2019<br /> |14:30-17:00<br /> |-<br /> |Hans<br /> |21.02.2019<br /> |12:00-18.00<br /> |-<br /> |Pille<br /> |20.02.2019<br /> |19:00-21:00<br /> |-<br /> |Anna-Liisa<br /> |18.02.2019<br /> |16:00-18.00<br /> |-<br /> |Ingrid<br /> |18.02.2019<br /> |14:00-16.00<br /> |-<br /> |Anna-Liisa<br /> |11.02.2019<br /> |17.00-19:00<br /> |-<br /> |Punn<br /> |11.02.2019<br /> |13.00-17.00<br /> |-<br /> |Fr. Krull<br /> |01.02.2019<br /> |14.15-16.00<br /> |-<br /> |Hans<br /> |31.01.2019<br /> |15.00-18.00<br /> |-<br /> |Hans<br /> |29.01.2019<br /> |12.00-17.00<br /> |-<br /> |Kaarel<br /> |29.01.2019<br /> |17.30-19.30<br /> |-<br /> |-<br /> |Anna-Liisa<br /> |28.01.2019<br /> |15.00-17.30<br /> |-<br /> |Kaarel<br /> |25.01.2019<br /> |11.00-13.30<br /> |-<br /> |Hans<br /> |30.01.2019<br /> |12.00-17.00<br /> |-<br /> |Kaarel<br /> |23.01.2019<br /> |17.00-19.00<br /> |-<br /> |Kaarel<br /> |22.01.2019<br /> |17.00-19.00<br /> |-<br /> |Pille<br /> |22.01.2019<br /> |11:00-15:00<br /> |-<br /> |Hans<br /> |14.01.2019<br /> |13:00-17:00<br /> |-<br /> |Kadri-Ann<br /> |14.01.2019<br /> |10:00-12.00<br /> |-<br /> |Hans<br /> |07.01.2019<br /> |10:00-17:00<br /> |-<br /> |Tarmo<br /> |19.11.2018<br /> |10.30-13.00<br /> |-<br /> |Inga<br /> |16.11.2018<br /> |15.30-17.00<br /> |-<br /> |Hans<br /> |08.11.2018<br /> |08.00-14.00<br /> |-<br /> |Inga<br /> |07.11.2018<br /> |10.30-12.00<br /> |-<br /> |Inga<br /> |06.11.2018<br /> |17.00-18.00?<br /> |-<br /> |Hans<br /> |06.11.2018<br /> |13.00-17.00<br /> |-<br /> |Inga<br /> |05.11.2018<br /> |15.30-17.00<br /> |-<br /> |Tarmo<br /> |05.11.2018<br /> |13:00-15.30<br /> |-<br /> |Hans<br /> |29.10.2018<br /> |10:00-16.00<br /> |-<br /> |Inga<br /> |19.10.2018<br /> |10:30-12.00<br /> |-<br /> |Inga<br /> |10.10.2018<br /> |16:30-17.30<br /> |-<br /> |Tarmo<br /> |10.10.2018<br /> |14:00-16:30<br /> |-<br /> |Pille<br /> |18.09.2018<br /> |12:30-15:30<br /> |-<br /> |Kadri-Ann<br /> |05.09.2018<br /> |16.00-17.30<br /> |-<br /> |Pille<br /> |27.08.2018<br /> |13:30-15:30<br /> |-<br /> |Hans<br /> |21.08.2018<br /> |13:00-16:00<br /> |-<br /> |Pille<br /> |09.07.2018<br /> |15:30-17:30<br /> |-<br /> |Pille<br /> |06.07.2018<br /> |14:30-15:30<br /> |-<br /> |Hans<br /> |06.07.2018<br /> |10:00-13:00<br /> |-<br /> |Fred<br /> |07.06.2018<br /> |15:35-18:45<br /> |-<br /> |Fred<br /> |06.06.2018<br /> |16:00-17:00<br /> |-<br /> |Ingmar<br /> |30.05.2018<br /> |13:00-15:00<br /> |-<br /> |Pille<br /> |24.05.2018<br /> |09:00-10:00<br /> |-<br /> |Pille<br /> |21.05.2018<br /> |15:00-18:00<br /> |-<br /> |Fred<br /> |26.04.2018<br /> |15:00-17:00<br /> |-<br /> |Urmas, 316 teras<br /> |14.03.2018<br /> |9:15-16:00<br /> |-<br /> |Tarmo õppetöö<br /> |28.02.2018<br /> |12:15-16:00<br /> |-<br /> |Urmas, 316 teras<br /> |27.02.2018<br /> |9:15-16:00<br /> |-<br /> |Tarmo õppetöö<br /> |21.02.2018<br /> |12:15-16:00<br /> |-<br /> |Pille<br /> |13.02.2018<br /> |14:30-16:00<br /> |-<br /> |Pille<br /> |12.02.2018<br /> |13:20-15:00<br /> |-<br /> |Hans<br /> |21.11.2017 <br /> |10:10-13:00<br /> |-<br /> |Kaur<br /> |20.11.2017 <br /> |10:45-11:45<br /> |-<br /> |Kaur<br /> |02.11.2017 <br /> |8:00-16:30<br /> |-<br /> |Anna-Liisa<br /> |05.10.2017 <br /> |16:30-17:30<br /> |-<br /> |Hans<br /> |07.06.2017 <br /> |13:30-15:30<br /> |-<br /> |Pille<br /> |07.06.2017 <br /> |09:30-11:30<br /> |-<br /> |Friedrich<br /> |25.05.2017 <br /> |13:00-15:00<br /> |-<br /> |Friedrich<br /> |5.05.2017 <br /> |9:00-12:00<br /> |-<br /> |Tarmo, Markus<br /> |28.04.2017 <br /> |10:00-14:30<br /> |-<br /> |Tarmo, Markus<br /> |26.04.2017 <br /> |10:00-14:30<br /> |-<br /> |Pille<br /> |26.04.2017 <br /> |08:40-10:00<br /> |-<br /> |Tarmo, Markus<br /> |24.04.2017 <br /> |09:00-14:30<br /> |-<br /> |Pille<br /> |13.03.2017 <br /> |13:40-14:30<br /> |-<br /> |Pille<br /> |20.02.2017 <br /> |10:00-12:30<br /> |-<br /> |Friedrich<br /> |8.02.2017 <br /> |13:00-15:30<br /> |-<br /> |Friedrich<br /> |6.02.2017 <br /> |15:00-17:30<br /> |-<br /> |Friedrich<br /> |2.02.2017 <br /> |10:00-12:00<br /> |-<br /> |Fred<br /> |26.01.2017 <br /> |15:00-17:00<br /> |-<br /> |Pille<br /> |19.01.2017 <br /> |14:00-16:00<br /> |-<br /> |Tarmo<br /> |11.01.2017 <br /> |10:00-17:00<br /> |-<br /> |Pille<br /> |14.12.2016 <br /> |11:00-15:00<br /> |-<br /> |Pille &Friedrich<br /> |26.10.2016 <br /> |11:30-17:00<br /> |-<br /> |Anna-Liisa<br /> |23.09.2016 <br /> |11:30-16:00<br /> |-<br /> |Anna-Liisa<br /> |21.09.2016 <br /> |15:00-17:00<br /> |-<br /> |Arko<br /> |19.09.2016 <br /> |11:00-14:00<br /> |-<br /> |Friedrich<br /> |23.05.2016 <br /> |10:00-13:00<br /> |-<br /> |Friedrich<br /> |09.05.2016 <br /> |13:30-16:00<br /> |-<br /> |Urmas<br /> |03.05.2016<br /> |10:00-14:00<br /> |-<br /> |Tarmo<br /> |26.04.2016<br /> |10:00-16:00<br /> |-<br /> |Tarmo<br /> |25.04.2016<br /> |10:00-16:00<br /> |-<br /> |Sunjai<br /> |22.04.2016<br /> |14:00-18:00<br /> |-<br /> |Sunjai<br /> |15.04.2016<br /> |14:00-16:00<br /> |-<br /> |Veiko<br /> |04.04.2016<br /> |12:00-17:00<br /> |-<br /> |Punn<br /> |01.04.2016<br /> |10:00-16:00<br /> |-<br /> |Punn<br /> |31.04.2016<br /> |14:00-18:00<br /> |-<br /> |Fred<br /> |09.02.2016<br /> |13:00-14:30<br /> |-<br /> |Zane<br /> |06.01.2016<br /> |11:00-12:00<br /> |-<br /> |Anna-Liisa<br /> |29.12.2015<br /> |14:30-16:00<br /> |-<br /> |Anna-Liisa<br /> |28.12.2015<br /> |14:30-16:00<br /> |-<br /> |Fred<br /> |17.12.2015<br /> |14:00-16:00<br /> |-<br /> |Anna-Liisa<br /> |9.12.2015<br /> |11:00-14:00<br /> |-<br /> |Fred<br /> |03.12.2015<br /> |10:40-14:00<br /> |-<br /> |Anna-Liisa<br /> |19.11.2015<br /> |11:00-12:00<br /> |-<br /> |Fred<br /> |9.11.2015<br /> |11:00-12:00<br /> |-<br /> |Anna-Liisa<br /> |26.10.2015<br /> |16:00-18:00<br /> |-<br /> |Arko<br /> |19.10.2015<br /> |15.00-16.00<br /> |-<br /> |Fred<br /> |14.10.2015<br /> |10.00-11.00<br /> |-<br /> |Anna-Liisa<br /> |12.10.2015<br /> |13.00-15.00<br /> |-<br /> |Anna-Liisa<br /> |28.09.2015<br /> |13.00-14.00<br /> |-<br /> |Arko<br /> |11.09.2015<br /> |11.00-16.00<br /> |-<br /> |Fred<br /> |09.09.2015<br /> |11.00-12.00<br /> |-<br /> |Friedrich<br /> |27.08.2015<br /> |10.00-18.00<br /> |-<br /> |Zane<br /> |30.06.2015<br /> |11.00-12.00<br /> |-<br /> |Zane<br /> |26.06.2015<br /> |11.00-12.00<br /> |-<br /> |Arko<br /> |18.06.2015<br /> |12.00-13.00<br /> |-<br /> |Fred<br /> |09.06.2015<br /> |12.00-16.00<br /> |-<br /> |-<br /> |Fred<br /> |05.06.2015<br /> |11.30-15.00<br /> |-<br /> |-<br /> |Zane<br /> |04.06.2015<br /> |13.00-14.00<br /> |-<br /> |Arko<br /> |03.06.2015<br /> |11.00-16.00<br /> |-<br /> |-<br /> |Punn<br /> |20.05.2015<br /> |11.00-15.00<br /> |-<br /> |-<br /> |Ingvar<br /> |15.05.2015<br /> |13.00-14.00<br /> |-<br /> |-<br /> |Zane<br /> |15.05.2015<br /> |13.00-14.00<br /> |-<br /> |-<br /> |Friedrich<br /> |13.05.2015<br /> |15.00-17.00<br /> |-<br /> |-<br /> |Veiko<br /> |12.05.2015<br /> |08.00-14.00<br /> |-<br /> |-<br /> |Vishwaja<br /> |08.05.2015<br /> |12.20-14.30<br /> |-<br /> |Vishwaja <br /> |07.05.2015<br /> |14.20 - 18.30<br /> |-<br /> |Zane <br /> |6.05.2015<br /> |11:30-12:30<br /> |-<br /> |Zane <br /> |5.05.2015<br /> |15:00-16:30<br /> |-<br /> |Zane<br /> |04.05.2015<br /> |12:30-14:00<br /> |-<br /> |Inga<br /> |23.04.2015<br /> |14:30-16:00<br /> |-<br /> |Anna-Liisa<br /> |08.04.2015<br /> |16:00-18:00<br /> |-<br /> |Friedrich<br /> |07.04.2015<br /> |15:30-16:30<br /> |-<br /> |Kätlin<br /> |06.04.2015<br /> |9:00-11:00<br /> |-<br /> |Inga<br /> |06.04.2015<br /> |11:00-17:00<br /> |-<br /> |Punn<br /> |02.04.2015<br /> |11:00-19:00<br /> |-<br /> |Inga<br /> |01.04.2015<br /> |13:30-17:30<br /> |-<br /> |Tarmo<br /> |01.04.2015<br /> |09:00-13:00<br /> |-<br /> |Punn<br /> |31.03.2015<br /> |11:00-19:00<br /> |-<br /> |Punn<br /> |30.03.2015<br /> |10:00-19:00<br /> |-<br /> |Anna-Liisa<br /> |30.03.2015<br /> |8:00-9:30<br /> |-<br /> |Punn<br /> |27.03.2015<br /> |11:30-19:00<br /> |-<br /> |Anna-Liisa<br /> |27.03.2015<br /> |8:00-11:00<br /> |-<br /> |Punn<br /> |26.03.2015<br /> |11:00-16:00<br /> |-<br /> |Fred<br /> |19.03.2015<br /> |12:00-16:00<br /> |-<br /> |Fred<br /> |12.03.2015<br /> |12:00-16:00<br /> |-<br /> |Fred<br /> |05.03.2015<br /> |12:00-16:00<br /> |-<br /> |Friedrich<br /> |04.03.2015<br /> |15:30-17:00<br /> |-<br /> |Fred<br /> |03.08.2015<br /> |12:00-14:00<br /> |-<br /> |Arko<br /> |02.03.2015<br /> |10:00-17:00<br /> |-<br /> |Anna-Liisa<br /> |27.02.2015<br /> |10:00-15:00<br /> |-<br /> |Anna-Liisa<br /> |20.02.2015<br /> |12:00-13:30<br /> |-<br /> |Anna-Liisa<br /> |19.02.2015<br /> |15:00-16:00<br /> |-<br /> |Arko<br /> |04.02.2015<br /> |12:00-17:00<br /> |-<br /> |Rauno<br /> |27.01.2015<br /> |15:00-19:00<br /> |-<br /> |Rauno<br /> |06.01.2015<br /> |15:00-19:00<br /> |-<br /> |Punn<br /> |23.12.2014<br /> |11:00-14:00<br /> |-<br /> |Tarmo<br /> |05.12.2014<br /> |11:00-13:00<br /> |-<br /> |Hans<br /> |04.12.2014<br /> |10:00-16:00<br /> |-<br /> |Tarmo<br /> |27.11.2014<br /> |14:00-17:00<br /> |-<br /> |<span style="color:red">----</span><br /> |-<br /> |Tarmo<br /> |06.05.2014<br /> |10:00-12:00<br /> |-<br /> |Punn<br /> |06.05.2014<br /> |15:00-18:00<br /> |-<br /> |Punn<br /> |07.05.2014<br /> |10:00-13:00<br /> |-<br /> |Punn<br /> |08.05.2014<br /> |12:00-15:00<br /> |-<br /> |Sven-Erik<br /> |09.05.2014<br /> |11:00-13:00<br /> |-<br /> |Tarmo<br /> |13.05.2014<br /> |10:00-12:00<br /> |-<br /> |Inga ja Kristiina<br /> |13.05.2014<br /> |12:00-18:00<br /> |-<br /> |Veiko<br /> |14.05.2014<br /> |08:00-10:00<br /> |-<br /> |Inga ja Kristiina<br /> |14.05.2014<br /> |10:00-14:00<br /> |-<br /> |Veiko<br /> |14.05.2014<br /> |14:00-17:00<br /> |-<br /> |Tarmo<br /> |15.05.2014<br /> |12:00-15:00<br /> |-<br /> |Veiko<br /> |19.05.2014<br /> |08:00-17:00<br /> |-<br /> |Veiko<br /> |20.05.2014<br /> |07:00-14:00<br /> |-<br /> |Tarmo<br /> |20.05.2014<br /> |14:00-16:00<br /> |-<br /> |Madis<br /> |22.05.2014<br /> |14:30-16:30<br /> |-<br /> |Madis<br /> |23.05.2014<br /> |12:00-17:00<br /> |-<br /> |Madis<br /> |27.05.2014<br /> |12:00-17:00<br /> |-<br /> |Sven-Erik<br /> |30.05.2014<br /> |10:00-12:00<br /> |-<br /> |Veiko<br /> |02.06.2014<br /> |11:00-13:00<br /> |-<br /> |Veiko<br /> |03.06.2014<br /> |12:00-17:00<br /> |-<br /> |Inga<br /> |03.06.2014<br /> |10:00-12:00<br /> |-<br /> |Kristiina<br /> |04.06.2014<br /> |11:30-18:00<br /> |-<br /> |Madis<br /> |05.06.2014<br /> |10:00-15:00<br /> |-<br /> |Inga<br /> |05.06.2014<br /> |15:00-17:00<br /> |-<br /> |Sven-Erik<br /> |12.06.2014<br /> |10:00-13:00<br /> |-<br /> |Urmas<br /> |20.06.2014<br /> |10:00-11:00<br /> |-<br /> |Punn<br /> |01.09.2014<br /> |13:00-15:00<br /> |-<br /> |David Vardanjan<br /> |02.09.2014<br /> |13:00-17:00<br /> |-<br /> |Punn<br /> |03.09.2014<br /> |11:00-13:00<br /> |-<br /> |Harjo<br /> |08.09.2014<br /> |14:00-15:00<br /> |-<br /> |Inga<br /> |11.09.2014<br /> |12:00-18:00<br /> |-<br /> |Punn<br /> |15.09.2014<br /> |12:00-13:00<br /> |-<br /> |Punn<br /> |16.09.2014<br /> |13:00-16:00<br /> |-<br /> |Hans<br /> |18.09.2014<br /> |16:00-18:00<br /> |-<br /> |Punn<br /> |23.09.2014<br /> |13:00-16:00<br /> |-<br /> |Hans<br /> |24.09.2014<br /> |17:00-19:00<br /> |-<br /> |Punn<br /> |26.09.2014<br /> |11:00-15:00<br /> |-<br /> |Hans<br /> |26.09.2014<br /> |16:00-18:00<br /> |-<br /> |Madis<br /> |02.10.2014<br /> |16:00-17:00<br /> |-<br /> |Punn<br /> |20.10.2014<br /> |15:30:-17:00<br /> |-<br /> |Punn<br /> |21.10.2014<br /> |15:30:-17:00<br /> |-<br /> |Punn<br /> |24.10.2014<br /> |12:00:-15:00<br /> |-<br /> |Punn<br /> |03.11.2014<br /> |14:30:-17:00<br /> |-<br /> |Madis<br /> |04.11.2014<br /> |13:30:-14:30<br /> |-<br /> |Punn<br /> |10.11.2014<br /> |11:30:-13:00<br /> |-<br /> |Punn<br /> |19.11.2014<br /> |11:00:-15:00<br /> |-<br /> |Punn<br /> |20.11.2014<br /> |09:30-17:00</div>

Hans priks https://ims.ut.ee/index.php?title=Sputter_coater&diff=36404 Sputter coater 2023-12-13T12:38:17Z

<p>Hans priks: /* Booking list */</p> <hr /> <div>=='''Booking list'''==<br /> <br /> <span style="color:red">'''NB! Please remind your students - ALL SEM sessions must be registered before use! Also add how much target was coated (nm)''' </span><br /> <br>'''NB! Newer bookings on top!''' </span><br /> <br /> {| class="wikitable"<br /> !colspan="6"|Booking list<br /> |-<br /> |Name<br /> |Date<br /> |Time<br /> |Target used<br /> |-<br /> |Anna-Liisa<br /> |12.12.2023<br /> |10:00-12:00<br /> |Au - target broken<br /> |-<br /> |Marie<br /> |06.12.2023<br /> |9:00-10:00<br /> |Au - 5nm<br /> |-<br /> |Marie<br /> |01.12.2023<br /> |10:00-11:00<br /> |Au - 5nm<br /> |-<br /> |Anna-Liisa<br /> |24.11.2023<br /> |15:00<br /> |Au - 7 nm<br /> |-<br /> |Marie<br /> |22.08.2023<br /> |13:00-14:00<br /> |Au<br /> |-<br /> |Marie<br /> |30.05.2023<br /> |10:00-11:00<br /> |Au<br /> |-<br /> |Ingrid<br /> |12.05.2023<br /> |08:30-10:00<br /> |Au<br /> |-<br /> |Ingrid (Tenson)<br /> |21.04.2023<br /> |09:30-11:00<br /> |Au<br /> |-<br /> |Marie<br /> |13.04.2023<br /> |12:30-13:30<br /> |Au<br /> |-<br /> |Ingrid<br /> |03.04.2023<br /> |15:00-16:00<br /> |Au<br /> |-<br /> |Marie<br /> |30.03.2023<br /> |12:30-13:30<br /> |Au<br /> |-<br /> |Ingrid<br /> |15.02.2023<br /> |11:00-12:00<br /> |Au<br /> |-<br /> |Ingrid<br /> |13.02.2023<br /> |09:30-10:30 (pikendatud+1h)<br /> |Au<br /> |-<br /> |Ingrid<br /> |13.10.2022<br /> |13:00-16:00 (pikendatud+1h)<br /> |Au<br /> |-<br /> |Arif?<br /> |06?.10.2022<br /> |?<br /> |Silver<br /> |-<br /> |Ingrid<br /> |04.-05.08.2022<br /> |18:00-13:30<br /> |Au<br /> |-<br /> |Kadri-Ann<br /> |29.10.2021<br /> |11.45-14.00<br /> |Ag (for SEM coating)<br /> |-<br /> |Pille<br /> |26.01.2021-27.01.2021<br /> |21:00 -12:00<br /> |<br /> |-<br /> |Kadri-Ann<br /> |15.11<br /> |<br /> |-</div>

Hans priks