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EDUCATIONTEACHING INFORMATIONEMPLOYMENT HISTORY
RESEARCH INTERESTSPUBLICATIONS 
Tetyana Antimirova, Ph.D. 
Instructor
Office: 251A
Phone number: (416) 946 4071
Email:antimirova@physics.utoronto.ca


TEACHING DUTIES:

In 2000/2001 academic year  I teach

PHY353S - Electromagnetic Waves,

PHY487S-Condensed Matter Physics

second year labs (PHY280 and PHY255),

third/fourth year labs ( Advanced Physics Laboratory  PHY325/326/327-Y/F/S/H,  PHY425/426/427-Y/F/S/H)

and help Professor Tony Key with PHY140 labs
 

MY OFFICE HOURS:
Tuesday 1p.m.-2p.m.  or by appointment

EDUCATION

Ph.D. (Physics), Institute for Problems of Materials Science,
National Academy of Sciences of Ukraine Kyev, Ukraine 1990

M.Eng. (Engineering Physics) Moscow Institute of Physics and Technology,
Russia 1985

 

 

EMPLOYMENT HISTORY

Physics Instructor, PhysicsDepartment, University of Toronto, August 1999-present

Adjunct Assistant Professor, Physics Department, Queen's University,
Kingston, Ontario,   May 1998 - July 1999

Postdoctoral Fellow, Chemistry Department , Queen's University,
Kingston, Ontario,  March 1997- August 1998

Research Scientist, Institute for Problems in Materials Science,
National Academy of Sciences, Kyev, Ukraine, 1990-1996

FOREIGN TEACHING EXPERIENCE:

Associate Professor, National Agricultural University, Kyev, Ukraine
1995/1996 (part-time)

Assistant Professor, International Institute of Civil Aviation, Kyev, Ukraine,
1995 (part-time)

RESEARCH INTERESTS

  My research interests lie in an interface between Condensed Matter Physics, Physical Chemistry and Materials Science with the emphasis on ferroelectrics and a broad range of related materials (including piezoelectric and ferroelastic materials, functional ceramics, orientational glasses). Materials that can be modified by very small amounts of impurities in order to achieve desirable properties are of a particular interest. These encompass a large group of materials including solids that undergo an impurity-induced phase transitions of various nature (for example, structural or glass-like), depending largely on the impurity involved. Some impurities are able to change the nature of the existing phase transition (for example, ferroelectric or antiferroelectric). Understanding of this phenomena allows to achieve a set of desirable properties in advanced materials design. Another area of my interest is a study of an impact of unavoidable defects and impurities on materials properties and performance. Effective control of properties of many electronic materials is one of major unsolved problems of functional electronics.
More recently I dveloped interest in photochemistry and biological/medical physics.
 

PUBLICATIONS