त्वरित संपर्क
Dr. Arnab Ghosh
PhD (IACS-Kolkata)
Assistant Professor, Department of Chemistry
शोध करना दिलचस्पी
Statistical Mechanics of Fermionic Systems,Quantum Thermodynamics
FB 425,
Department of Chemistry
Indian Institute of Technology Kanpur,
Kanpur 208016
विशेषज्ञता
Non-equilibrium Statistical Mechanics
Open Quantum Systems
Quantum Thermodynamics
शिक्षा
PhD (2015), IACS-Kolkata
शिक्षण क्षेत्र
Quantum Mechanics
Statistical Mechanics
चयनित प्रकाशन
Arnab Ghosh, D. G. Klimovsky, W. Niedenzu, A. I. Lvovsky, I. Mazets, M. O.Scully and G. Kurizki, Two-level masers as heat-to-work converters, Proceedings of the National Academy of Sciences, USA 115, 9941 (2018).
W. Niedenzu, V. Mukherjee, Arnab Ghosh, A. G. Kofman and G. Kurizki, Quantum engine efficiency bound beyond the second law of thermodynamics, Nature communications, 9, 165 (2018).
Arnab Ghosh, C. L. Latune, L. Davidovich and G. Kurizki, Catalysis of heat-to-work conversion in quantum machines, Proceedings of the National Academy of Sciences, USA 114, 12156 (2017).
Arnab Ghosh, Review: Born-Kothari condensation for fermions, Entropy, 19, 479 (2017).
Arnab Ghosh, Parametrically coupled fermionic oscillators: Correlation functions and phase space description, Physical Review A, 91, 013835 (2015).
Arnab Ghosh, S. S. Sinha and D. S. Ray, Fermionic oscillator in a fermionic bath, Physical Review E, 86, 011138 (2012).
Arnab Ghosh, S. S. Sinha and D. S. Ray, Canonical formulation of quantum dissipation and noise in a generalized spin bath, Physical Review E, 86, 011122 (2012).
पेशेवर अनुभव
Assistant Professor, IIT-Kanpur: March, 2019-present
Post-Doc: Weizmann Institute of Science, Israel: June, 2015-Jan, 2019
PhD: IACS-Kolkata : April, 2015
वर्तमान शोध
In view of continuous progress in quantum technologies to create smaller and smaller devices, it becomes crucial for us to understand the thermodynamics of microscopic quantum systems. While classical thermodynamics is extremely successful in predicting the statistical behaviour of macroscopic objects, emerging field of quantum thermodynamics goes beyond it, by accounting for effects imposed by the laws of quantum mechanics. Therefore our primary aim is to acquire sufficient insights into these fundamental issues in order to make a bridge between thermodynamics and quantum statistical mechanics at both conceptual and operational levels.