Teaching electrochemistry and student participation in the development of sustainable electricity generation/storage devices at the Institute of Chemistry of the University of Tartu

Research-based education is a long-standing tradition at the University of Tartu (UT). Basic knowledge of electrochemistry and the principles of developing electrochemical devices have been taught and implemented at UT since 1960. For instance, during then, self-made alkaline electrolysers were used...

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Veröffentlicht in:Journal of solid state electrochemistry 2024-03, Vol.28 (3-4), p.847-867
Hauptverfasser: Ers, H., Pikma, P., Palm, R., Paalo, M., Jänes, A., Thomberg, T., Härmas, M., Härmas, R., Kalder, L., Salvan, L.-K., Teppor, P., Jäger, R., Kasuk, H., Nerut, J., Sepp, S., Nurk, G., Lust, K., Lust, E.
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container_issue 3-4
container_start_page 847
container_title Journal of solid state electrochemistry
container_volume 28
creator Ers, H.
Pikma, P.
Palm, R.
Paalo, M.
Jänes, A.
Thomberg, T.
Härmas, M.
Härmas, R.
Kalder, L.
Salvan, L.-K.
Teppor, P.
Jäger, R.
Kasuk, H.
Nerut, J.
Sepp, S.
Nurk, G.
Lust, K.
Lust, E.
description Research-based education is a long-standing tradition at the University of Tartu (UT). Basic knowledge of electrochemistry and the principles of developing electrochemical devices have been taught and implemented at UT since 1960. For instance, during then, self-made alkaline electrolysers were used to generate hydrogen. The hydrogen was further purified and used to saturate aqueous and non-aqueous electrolytes. The fundamental electrochemical research has formed a solid background on which the development of supercapacitors and Na + -ion or Li + -ion batteries is based today. Since 1991, the Ph.D., MSc and undergraduate students have investigated the properties of high surface–area carbon materials in non-aqueous electrolytes to develop energy conversion and storage devices with high energy and power density. Moreover, porous thin-film complex metal hydride–based hydrogen storage devices are also under study. The research of solid oxide fuel cells (SOFC) and polymer electrolyte membrane fuel cells (PEMFC) began at the UT in 2001 and 2010, respectively. Based on the collected knowledge, a sustainable green electricity and hydrogen generation-storage complex (GEHGSC) was constructed, consisting of solar cells and fuel cells for electricity generation, batteries for storage and electrolysers for hydrogen generation. The main aim of GEHGSC is to educate students, young scientists and local authorities specialized in sustainable energy technologies and applied electrochemistry. Electrolyzed hydrogen has been used for experimental testing of SOFC and PEMFC, produced at the Institute of Chemistry. The 300 bar hydrogen compressor has been installed, and thereafter, the PEMFC-powered self-driving car Iseauto, completed by contract for Auve Tech OÜ, has been fuelled with hydrogen produced by GEHGSC.
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subjects Analytical Chemistry
Aqueous electrolytes
Autonomous cars
Characterization and Evaluation of Materials
Chemistry
Chemistry and Materials Science
Clean energy
Colleges & universities
Condensed Matter Physics
Devices
Electricity
Electricity generation
Electrochemistry
Electrolytes
Electrolytic cells
Energy conversion
Energy Storage
Energy technology
Fuel cells
Hydrogen
Hydrogen production
Hydrogen storage
Metal hydrides
Nonaqueous electrolytes
Photovoltaic cells
Physical Chemistry
Proton exchange membrane fuel cells
Renewable energy
Review Paper
Solar cells
Solid oxide fuel cells
Students
Thin films
Undergraduate study
title Teaching electrochemistry and student participation in the development of sustainable electricity generation/storage devices at the Institute of Chemistry of the University of Tartu
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