Dr. Kulka earned his Ph.D. from the Warsaw University of Life Sciences in 2018. He holds the adjunct position in the Department of Pathology and Veterinary Diagnostics (WULS). His research is focusing on veterinary hematology, and investigating new diagnostic methods and its applications in the diseases diagnostics. Dr. Kulka is also working as veterinary clinician, consulting patients with blood disorders.
Lecture topic: Optical methods used in hematology
Abstract: Different optical equipment such as: microscopy, flow cytometry is widely used in investigating blood cells biology and pathology, in medical laboratories and clinics, providing the physicians with a powerful tool in their work. During the lecture some optical methods (flow cytometry, nanoparticle tracking analysis, TEM) will be presented, which are used in research and in daily routine practice, when dealing with blood cancers and anemic patients.
Michał T. Tomczak – Ph.D. in Social Sciences, Gdańsk University of Technology, Faculty of Management and Economics. His research interests focus on Human Resources Management, particularly on employees’ competencies and Assistive Technologies integrating employees with Autism Spectrum Disorders within the digitized workplace. Head of Research Team in the field of GUT Graduates Professional Situation Monitoring and head of HR Manager and Local Self-Government Management postgraduate programs. Project leader and researcher in several research projects financed by the National Science Centre and the National Centre for Research and Development. Author of articles in scientific journals, chapters in monographs, research reports and Human Resources Management Handbook for University Students. Member of the Scientific Society of Gdańsk and expert of Polish National Agency for Academic Exchange (NAWA).
Lecture topic: Effective team building – how to do it?
Dr Dongsheng Geng received a PhD degree in Mechanical & Materials Engineering from University of Western Ontario and a PhD degree in Physical Chemistry (including Chemical physics) from Lanzhou Institute of Chemical Physics, Chinese Academy of Sciences. He has also earned a B.S. degree in Pharmaceutical chemistry from Hebei University. In 2018 he was selected as a highly cited researcher in the field of cross-field by Clarivate Analytics. Three years earlier he was awarded the “Thousand Talent Program” Young Outstanding Scientist Grant by the Organization Department of the Central Committee.
Dr Dachi Yang attained a PhD degree in Materials Physics and Chemistry from the Institute of Solid State Physics, CAS, China and a Bachelor degree in Materials Science and Engineering from Zhengzhou University, China. In 2014 he has received the “Thousand Talent Program” Young Outstanding Scientist of Tianjin City which was granted by Tianjin Science and Technology Commission. Dr Yang is engaged in the design and preparation of a functional nanomaterial. He took part in developing high performance sensors based on nanomaterials such as intelligent gas sensors (focusing on hydrogen, inorganic gases, VOC gas detection, etc.) in the fields of Internet of Things, human health, home life, industrial production. He was exploring new hydrogen energy conversion (fuel-cell electrode catalysis, electrochemical hydrogen evolution and oxygen evolution) and energy storage (supercapacitor).
Topic: Improving the Stability of Palladium-Based Hydrogen Sensors Working at Low- Temperature
Abstract: The stability of hydrogen sensors is of great importance to devices working over a wide temperature range such as those in aerospace crafts working in low temperature environment. For conventional bulk Pd and Pd nanowires, the instability in both sensor baseline drafting and recently reported temperature-driven “reverse sensing behavior” is still limiting factors for the applications. To enhance the stability in material perspectives, we developed superlattice-structured palladium and other metallic nanowires (such as PdCu, PdBi, PdCo NWs) with random-gapped, screw-threaded, and spiral shapes achieved by wet-chemical approaches. Sensors built with these modified NWs show lower critical temperature (259.4K and 261K) for the “reverse sensing behavior” than those with pure Pd NWs (287K). Moreover, response and the recovery time of the PdCu NWs sensor were of ~9 and ~7 times faster than those of the Pd NWs ones, respectively. To further enhance both the stability and sensitivity, we have developed porous NWs, and porous NWs with spiral and meshy topologies. Immediate benefits are demonstrated in hydrogen sensors as examples, we observed that hydrogen concentrations as low as 0.2% (v/v) were detected, the critical temperatures of “reverse sensing behavior” as low as 239.9K were measured, and better baseline- stability was confirmed compared with those fabricated with pure Pd NWs.
Dr Paweł Wierzba, E.E.
M.Sc. E.E. received from WETI PG 1994
PhD in optoelectronics (with honours) from WETI PG 2001
Research Stays at VTT Technical Research Centre of Finland from 1997 to 2000
Finnish Academy Scholarship at VTT Technical Research Centre of Finland (12 months) 2002-3
Research interest area covers optical and optical fiber meaurement methods, technology of selected ceramic and liquid crystalline materials relevant to these methods, thermal detectors and low-noise preamplifiers. The main area of interest is polarization interferometry and applications of liquid crystalline polymers pertinent to this technique.
Author and co-author of several publications and conference papers
Reviewer in journals listed in JCR: Optica Applicata, Sensors, Sensors and Actuators A.
Project leader of two national research projects (financed by KBN, NCN) and a project team member in seven national research projects (financed by KBN, NCN), project team member in one national development project, adviser to 35 M.Sc.students and 12 electronic engineering students, Group Project Coordinator for Optoelectronics specialty. Member of the Award Committee for the Group Project
Topic: Selected topics in polarization interferometry and advanced light microscopy
Topic: Superconductivity and superconductors. The promise for a future?
Abstract:The compounds in which electrical resistance suddenly disappears and magnetic field is expelled from the material (below certain temperature) are called superconductors. Superconductivity in Hg was discovered more than 100 years ago, and although we know hundreds of superconducting compounds, this phenomenon remains a hot topic in solid state chemistry and physics.
In this lecture I will go through the history of superconductivity. Will show you several examples of superconducting materials and a way they were discovered. Finally, I will try to convince you that superconductivity remains the promise for a future.