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Projects
Phase Transitions and Characterization of Inorganic and Organic Systems
Research activity
| Code | Science | Field |
|---|---|---|
| P002 | Natural sciences and mathematics | Physics |
| P190 | Natural sciences and mathematics | Mathematical and general theoretical physics, classical mechanics, quantum mechanics, relativity, gravitation, statistical physics, thermodynamics |
| P250 | Natural sciences and mathematics | Condensed matter: structure, thermal and mechanical properties, crystallography, phase equilibria |
Keywords
crystal growth, liquid crystals, polymers, complex systems, finite-size thermodynamic systems
Organisations (6) , Researchers (1)
0009 University of Belgrade, Faculty of Physics
| no. | Code | Name and surname | Research area | Role | Period | No. of publicationsNo. of publications |
|---|---|---|---|---|---|---|
| 1. | 01989 | Physics | Head | 2011 - 2019 | 11 |
0015 University of Belgrade, Faculty of Dental Medicine
0040 University of Novi Sad, Faculty of Sciences
0045 University of Novi Sad, Faculty of Education
0074 University of Kragujevac, Faculty of Science
0109 University of Belgrade, Institute for Medical Research - National Institute of the Republic of Serbia
Abstract
The crystal growth investigations will include: influence of different parameters on the physical properties of the crystals and crystal growth rate dispersion; time evolution of growth rate, independent of growth conditions; influence of impurities and growth conditions on crystal macromorphology and crystal faces micromorphology. Investigation of physical characteristics of liquid crystal compounds: banana-shaped, rod-like, ferroelectric, cholesteric and polymeric liquid crystals, applicable for liquid crystal displays. Spectral investigation of high-toxic substances which have application in print industry (fountain solutions, waste paint). Theoretical studies will include: stiffness dependant properties of polymer chains on Euclidean and fractal lattices; force-induced polymer desorption and unfolding; ordered and disordered phases of compact polymers. On finite-size thermodynamic systems, Ising universality class will be studied for various boundary conditions. Various time series acquired experimentally (by recording: neuronal activity in animals, hand tremor movements, changes of blood pressure and heart rate signals, traffic and Internet flow) will be analyzed, as well as: percolation phase transitions observed on neuron systems with different topology; synchronization and dynamics of neuron motifs and networks coupled via chemical synapses with delay; conductivity and clustering properties of composite systems; and some statistical models of financial markets.