FiDiPro Professors and Fellows
The funding programme for visiting top researchers in science and technology (FiDiPro) opened its first call in 2006. The first FiDiPro researchers started their work at the beginning of 2007. At present, there are 61 FiDiPro Professors, 35 of whom receive funding from the Academy of Finland and 26 from Tekes. In 2009, Tekes launched FiDiPro Fellow funding with a view to attracting promising research talents who are at the early steps in their career to join Finnish research teams. So far, Tekes has funded 7 FiDiPro Fellow projects.
FiDiPro Professors and Fellows work at universities and research institutes in different parts of Finland. Their research projects, jointly carried out with Finnish researchers, cover a number of different disciplines, ranging from the humanities to medicine and technology research.
You can read more about the FiDiPro research project by clicking FiDiPro researcher's name.
Gregorz Glinka
University of Waterloo, Canada
Project: A universal fatigue crack growth model for high strength steel
Analytical and numerical studies necessary for the determination of required data influencing the fatigue crack growth under a variety of combinations of the maximum stress intensity factor, Kmax, and the stress intensity range, DK. The two parameter crack growth model will be used for predicting the fatigue crack growth rate induced by variable amplitude cyclic loading and welding residual stresses. The intention is to account for both the effective stress intensity range and the effective maximum stress intensity factor. Such an approach will require of elasto-plastic analysis of stresses and strains near the crack tip and calculation of stress intensity factors including the effect of highly non-linear internal stresses. The development of theoretical basis and validation of the proposed methodology will be the main theme of the project.
Contact person and host organisation: Aalto University School of Science and Technology, Department of Applied Mechanics, Professor Gary Marquis, website: http://appmech.tkk.fi/en/
Vassilis Kostakos
University of Madeira, Portugal
Vassilis Kostakos is an Assistant Professor in the Madeira Interactive Technologies Institute at the University of Madeira, and holds an adjunct faculty appointment at Carnegie Mellon University. His Ubiquitous Computing research focuses on making interactive technology smarter, easier and safer to use, and developing novel sensing techniques for urban transport, and modelling of city-scale mobility.
Project: Urban Flows and Netwoks
The objective of this project is to utilize the data produced by Oulu's UPI (Urban Pervasive Infrastructure) and other sources for modeling and exploiting urban flows and networks. This data captures a rich subset of the everyday life and activities taking place in the City of Oulu.
As interactive communication technologies play an increasing role in our everyday lives, the infrastructure that supports these activities can be in important source of understanding the type, frequency and characteristics of citizen's activities. Crucially, a characteristic of these technologies is mobility, and increasingly mobility has become an important aspect of technology usage and user needs. Hence, this project considers capturing and analysing various types of flows and networks of everyday life in the City of Oulu. By capturing and analysing these flows and networks, our project will develop services that better fulfill Oulu's stakeholders’.
Contact person and host organisation: University of Oulu, Media Team Oulu, Professor Timo Ojala, website: http://www.mediateam.oulu.fi/?lang=en
Juan Antonio Tapia-Ladino
University of Concepción, Chile
Project: LUT GSEEE FiDiPro Fellowship in Permanent magnet machines
The goals of the project are to deepen the expertise of the Finnish industrial and academic sectors on electric drives and motors, especially permanent magnet machines and their new energy efficienct applications (especially, windmills, other distributed generation and mobile drives). Research results provide essential knowledge for the electric industry for developing new products. Especially, the wind power is developing fast and there is a big need to improve the power density of permanent magnet generators. The most rugged solution is known as direct drive generator. As the power of the turbine increases the speed in rpm decreases and the torque of the electric machine must be extremely high. Such a demand leads to non-conventional solutions and totally new ideas are needed. The project is directly connected to the research are of CLEEN Ltd (Strategic centre for science, technology and innovation of the Finnish energy and environment cluster).
Contact person and host organisation: Lappeenranta University of Technology, Department of Electrical Engineering, Professor Juha Pyrhönen.
website: http://www.lut.fi/en/technology/lutenergy/electrical_engineering/Pages/Default.aspx
Xiaohong Wang
Tsinghua University, China
Project: Modern tissue engineering - cell culture studies on digitally designed and manufactured 3D scaffolds
The development of tissue engineering and organ manufacturing faces many challenges. Modern additive manufacturing (AM) enables 3-D biomimetic structures with specially designed patterns, material compositions, and mechanical properties. AM also offers unique opportunity to precisely control the construct architecture (pore size, shape, orientation, and interconnectivity). The goals of this project are to find optimal 3-D cell culture conditions for AM’d tissue scaffolds, and to prepare scaffolds which may eventually be applied in tissue failure substitution as artificial bone, cartilage or other tissues. Multidisciplinary novel biomanufacturing research combines competences from microbiology, biochemistry, medical disciplines from eventual application areas, materials and additive manufacturing research, complex computational tasks and 3-D tissue modeling. Results benefit Finnish scientific community and medical device, mechanical engineering, SW- and biotech industries through new scientific knowledge in tissue engineering and its optimal conditions, and directly applicable knowledge for developing AM techniques, 3-D modeling of tissues and tissue substitute materials. Close cooperation with leading Finnish institutes, and with Tsinghua University enables effective dissemination of the scientific results and offers an attractive research arena for researchers. Collaboration with other Aalto University School of Science and Technology research units provides synergies. The expertise at Department of Biomedical Engineering and Computational Science (BECS) and the The Laboratory of Polymer Technology (POTE) complement the work done at BIT Research Centre; this collaboration may lead to innovations and fast application by Finnish industry.
Contact person and host organisation: Aalto University School of Science and Technology, BIT Research Centre, Professor Marja Toivonen, website: http://www.bit.tkk.fi/Home/Home
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The information package gives a concise description of the objectives, application guidelines and funding of the FiDiPro programme.



