Scientific interests
- Physics of condensed matter
Education
Institution
Yerevan State University
Faculty
Physics
Date
-
Degree name
PhD student
Institution
Yerevan State University
Faculty
Physics
Date
-
Degree name
Qualified specialist
Scientific Rank/degree
Institution
Yerevan State University
Date
2000
Degree name
Candidate
Specialty
Physico-mathematical sciences
Scientific Supervisor
Kazaryan Eduard Mushegh
Research Topic
The influence of nonparabolicity on impurity states
Language skills
Հայերեն
Русский
English
Ελληνικά
Deutsch
Work experience
Institution
Yerevan State University
Period of time
Rank/degree
Senior Researcher
Institution
Antwerp University
Period of time
-
Rank/degree
researcher
Institution
Yerevan State University
Period of time
-
Rank/degree
researcher
Institution
Cyprus University
Period of time
-
Rank/degree
researcher
Institution
Yerevan State University
Period of time
-
Rank/degree
researcher
Institution
Bremen University
Period of time
-
Rank/degree
researcher
Institution
Yerevan State University
Period of time
-
Rank/degree
researcher
Participation in international conferences and seminars
-
laser physics
IRF
Armenia
Other information
Graduated from Yerevan State University in 1997.
Publications
Article
Impurity states in gated graphene systems in a magnetic field
Article
Interaction of Electromagnetic Field with Gated Graphene Bilayer
Article
Impurity States in Gated Graphene Bilayer in a Magnetic Field
Article
Tunable Excitons in Bilayer Graphene with Opened Energy Gap
Article
Nonlinear Properties of Gated Graphene in a Strong Electromagnetic Field
Article
EXCITONIC ABSORPTION IN GAPPED GRAPHENE SYSTEMS
Article
Tunable excitons in gated graphene systems
Conference
COHERENT RESPONSE OF MULTILAYER GRAPHENE SYSTEMS TO LASER RADIATION: NONLINEAR EFFECTS AND MANY ELECTRON CORRELATIONS
Conference
Nonlinear optical properties of gated graphene systems
Conference
Excitonic absorption in gated graphene systems
Conference
Tunable excitonic absorption in gapped graphene systems
Conference
Nonlinear response and tunable excitonic absorption in gapped graphene systems
