Professor Raicu’s main research interests are:
- Spectral fluorescence imaging, Förster resonance energy transfer (FRET), and nonlinear optical microscopy for studying protein-protein interactions and protein complex structure and dynamics in vivo
- Studies of the physical properties of heterogeneous systems, including biological cells and tissues, biomembranes, electrode/electrolyte interfaces, polymers, and colloidal systems
- Dielectric and mechanical relaxation in biological and nonbiological systems
- Nonlinear laser spectroscopy for probing reaction dynamics and mechanical and thermal relaxation in proteins
Valerică Raicu obtained his Physics Diploma in 1991 and his PhD in Biophysics in 1998, both from the University of Bucharest (Romania). During that time, he worked as a Research Scientist for the Institute of Physical Chemistry of Romanian Academy (1992-1996) and for Research & Design Institute for Rare and Radioactive Metals (1996-1998). The following three years he was a Research Instructor at the Department of Physiology at Kochi Medical School (Japan). In 2002, Raicu obtained a Postdoctoral Fellowship at the Departments of Chemistry and Physics and Charles H. Best Institute, University of Toronto.
Since 2004, Raicu has been at the University of Wisconsin-Milwaukee, where he holds the rank of Professor in the Department of Physics and Adjunct Professor at the Department of Biological Sciences. He served as the Chair of the Department of Physics from 2012 to 2015. Professor Raicu has developed a Biophysics course for which he also wrote the book Integrated Molecular and Cellular Biophysics (Springer, 2008). His research has been supported by the National Science Foundation (Programs: Physics of Living Systems, Major Research Instrumentation, and Partnerships for Innovation), Bradley Foundation, UWM Research Foundation, Aurora Spectral Technologies, LLC, and UWM Research Growth Initiative.
Corby, M J., Stoneman, M R., Biener, G, Paprocki, J D., Kolli, R, Raicu, Valerica, and Frick, David N. “Quantitative microspectroscopic imaging reveals viral and cellular RNA helicase interactions in live cells.” The Journal of biological chemistry
292.27 (2017): 11165-11177.
Li, Z, Wang, Y, Huang, J, Ahsan, N, Biener, G, Paprocki, J, Thelen, J J., Raicu, Valerica, and Zhao, Dazhong. “Two SERK Receptor-Like Kinases Interact with EMS1 to Control Anther Cell Fate Determination.” Plant physiology
173.1 (2017): 326-337.
Biener, Gabriel, Stoneman, Michael R., Acbas, Gheorghe, Holz, Jessica D., Komarova, Luidmila, Orlova, Marianna, Kuchin, Sergei, and Raicu, Valerica. “Development and experimental testing of an optical micro-spectroscopic technique incorporating true line-scan excitation.” International Journal of Molecular Sciences, MDPI AG
15.1 (2014): 261-76.
Mannan, M. Amin-ul, Shadrick, William R., Biener, Gabriel, Anshu, Ashish, Raicu, Valerica, Frick, David N., and Dey, Madhusudan. “An Ire1-Phk1 Chimera Reveals a Dispensable Role of Autokinase Activity in Endoplasmic Reticulum Stress Response.” J. Mol. Biol.
425. (2013): 2083-99.
Patowary, Suparna, Alvarez-Curto, Elisa, Xu, Tian-Rui, Holz, Jessica D., Oliver, Julie A., Milligan, Graeme, and Raicu, Valerica. “The Muscarinic M3 Acetylcholine receptor exists as two differently sized complexes at the plasma membrane.” Biochemical Journal
452. (2013): 303-312.
Singh, Deo R., Mohammad, Mohammad M., Patowary, Suparna, Stoneman, Michael, Oliver, Julie A., Movileanu, Liviu, and Raicu, Valerica. “Determination of the quaternary structure of a bacterial ATP-binding cassette (ABC) transporter in living cells.” Integrative Biology, The Royal Society of Chemistry
5.2 (2013): 312-323.
Stoneman, Michael, Patowary, Suparna, Singh, Deo R., Westrick, L, Oliver, Jule, and Raicu, Valerica. “Quantifying the efficiency of various FRET constructs using OptiMiS.” BioTechniques, Informa BioSciences
52.3 (2012): 191-195.
Pisterzi, Luca, Jansam, David, Georgiou, J, Woodside, Michael, T-C Chou, J, Angers, Stephane, Raicu, Valerica, and Wells, James. “Oligomeric size of the M2 muscarinic receptor in live cells as determined by quantitative fluorescence resonance energy transfer (FRET).” Journal of Biological Chemistry, American Society for Biochemistry and Molecular Biology
285. (2010): 16723â16738.