A/Prof Daniel Kosov ~ Associate Professor

Research group: www.hbar-electronics.info

Short Biographical Sketch:

• Ph.D. in theoretical physics (March, 1996) (JINR, Dubna )
• 1996-2004 worked as a research scientist in Germany, USA and UK
• 2004-2008 Assistant professor, Department of Chemistry and Biochemistry, University of Maryland, USA 
• 2009- 2014 Professor /adjunct/, Department of Chemistry and Biochemistry, University of Maryland, USA 
• 2008-2012  Associate Professor, Physics Department, Université Libre de Bruxelles, Belgium
• 2012-... Associate Professor, James Cook University

Conferences organized:

• Co-chair of the workshop "Quantum Transport in Nanoscale Molecular Systems", 08/07 - 12/07/2013, Telluride, Colorado, USA
• Co-chair of the workshop "Quantum Transport in Nanoscale Molecular Systems", 01/08 - 05/08/2011, Telluride, Colorado, USA
• Co-chair of the workshop "Nonequilibrium quantum many-particle correlated systems" , 04/10 - 09/10/2010, Stellenbosch, South Africa
• Co-chair of the workshop "Quantum Transport in Nanoscale Molecular Systems", 27/07 - 31/07/2009, Telluride, Colorado, USA

 

 

 

Teaching

• PH1005: Advanced Stream Physics 1 (Level 1; TSV)
• PH1007: Advanced Stream Physics 2 (Level 1; TSV)
• PH2019: Introduction to Electromagnetism Optics and Early Quantum (Level 2; TSV)
• PH2240: Atomic and Nuclear Physics (Level 2; TSV)
• PH3002: Quantum Physics 2 (Level 3; TSV)
• PH3006: Oceanography and Meteorology (Level 3; TSV)
• PH3019: Electromagnetic Phenomena (Level 3; TSV)
• PH5013: Quantum Mechanics 3 (Level 5; TSV)

Interests

Research

• My research centers on theoretical and computational chemical physics with applications to material science, nanotechnology, and biology. I develop new conceptual theoretical approaches as well as computer codes for modeling real systems. Some of my research is done in close collaboration with experimentalists. 

Currently I work on theory of quantum transport.

Research Disciplines

• Theoretical and Computational Chemistry (0307)
• Atomic, Molecular, Nuclear, Particle and Plasma Physics (0202)
• Condensed Matter Physics (0204)

Socio-Economic Objectives

• Expanding Knowledge (9701)

Fellowships

• 2009 to 2012 - Mandat de Professeur de Recherche Francqui, Belgium

These are the most recent publications associated with this author. To see a detailed profile of all publications stored at JCU, visit ResearchOnline@JCU. Hover over Altmetrics badges to see social impact.

Journal Articles

• Kershaw V and Kosov D (2019) Non-equilibrium Green's function theory for non-adiabatic effects in quantum transport: inclusion of electron-electron interactions. Journal of Chemical Physics, 150.
• Lawn J and Kosov D (2019) Coupled elastic membranes model for quantum heat transport in semiconductor nanowires. European Physical Journal B: Condensed Matter and Complex Systems, 92 (2).
• Rudge S and Kosov D (2019) Nonrenewal statistics in quantum transport from the perspective of first-passage and waiting time distributions. Physical Review B, 99 (11).
• Kershaw V and Kosov D (2018) Non-adiabatic corrections to electric current in molecular junctions due to nuclear motion at the molecule-electrode interfaces. Journal of Chemical Physics, 149 (4).
• Kosov D (2018) Waiting time between charging and discharging processes in molecular junctions. Journal of Chemical Physics, 149.
• Kosov D (2018) Telegraph noise in Markovian master equation for electron transport through molecular junctions. Journal of Chemical Physics, 148 (18).
• Rudge S and Kosov D (2018) Distribution of waiting times between electron cotunneling events. Physical Review B, 98.
• Kershaw V and Kosov D (2017) Nonequilibrium Green's function theory for nonadiabatic effects in quantum electron transport. Journal of Chemical Physics, 147 (22).
• Kosov D (2017) Restoring the Pauli principle in the random phase approximation ground state. Chemical Physics Letters, 690. pp. 20-24
• Kosov D (2017) Non-renewal statistics for electron transport in a molecular junction with electron-vibration interaction. Journal of Chemical Physics, 147 (10).
• Kosov D (2017) Waiting time distribution for electron transport in a molecular junction with electron-vibration interaction. Journal of Chemical Physics, 146. pp. 1-6
• Kosov D (2017) Expectation values of single-particle operators in the random phase approximation ground state. Journal of Chemical Physics, 146. pp. 1-4

More

ResearchOnline@JCU stores 77+ research outputs authored by A/Prof Daniel Kosov from 1994 onwards.

Advisory Accreditation: I can be on your Advisory Panel as a Primary or Secondary Advisor.

These Higher Degree Research projects are either current or by students who have completed their studies within the past 5 years at JCU. Linked titles show theses available within ResearchOnline@JCU.

Current

• Modelling of Radiation Secondary Elecgtron Transport and Damage in Human Tissue. (PhD , Secondary Advisor)
• Towards Nanodosimetry: Low-Energy Electron Processes and Transport in Biological Tissue (PhD , Secondary Advisor)
• Single-Molecule Junctions: Electronic Transport and Beyond (PhD , Primary Advisor/AM)
• Time-Dependent Quantum Transport in Molecular Junctions (PhD , Primary Advisor/AM)
• Thermal Conductivity of Low-dimensional Out-of-equilibrium Quantum Systems: Theoretically Describing Thermal Transport in Semiconductor Nanowires. (PhD , Primary Advisor)
• Distribution of waiting times for individual electron tunnelling events in nanoscale quantum transport (PhD , Primary Advisor)
• Quantum Theory of Electromigration of Nano-Scale Electronic Devices (PhD , Primary Advisor)

Completed

• Symmetry Improvement Techniques for Non-perturbative Quantum Field Theory (2017, PhD , Secondary Advisor)
• Electron transport modeling in gas and liquid media for application in plasma medicine (2018, PhD , Secondary Advisor)
• The modelling of non-equilibrium light lepton transport in gases and liquids (2015, PhD , Secondary Advisor)

The map shows research collaborations by institution from the past 7 years.
Note: Map points are indicative of the countries or states that institutions are associated with.