Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Unknown eBooks

Generalized quantal equation of motion

Mohamed W. Morsy, M. Embaby

Published Jul 1, 1986• 0 citations
OpenAlex

Related papers

A Quantal Equation of Motion for the Linear Response of Open System (I): General Theory

瑞彦 佐伯

富山商船高等専門学校研究集録•Oct 1, 1981•0 citations

A Quantal Equation of Motion for the Linear Response of Open System IIHigher Order Expansion

瑞彦 佐伯

富山商船高等専門学校研究集録•Sep 1, 1982•0 citations

General properties of gausson-conserving descriptions of quantal damped motion

E. Susana Hernández, B. Rémaud

Physica A Statistical Mechanics and its Applications•Jan 1, 1981•42 citations

On the connection between constants of the motion of different quantal systems

R. L. Anderson, Tai‐ichi Shibuya, and Carl E. Wulfman

Revista Mexicana de Física•Jan 1, 1974•4 citations

Equations of Motion

Günther Ludwig

Foundations of Quantum Mechanics•Jan 1, 1985•0 citations

A Generalized Equation of Motion for the Linear Response. I: General Theory

Mizuhiko Saeki

A time-convolutionless expression for the quantal equation of motion for the linear response of a system in contact with a heat bath to an external, time-varying driving field is derived from the quantal Liouville equation of motion for the total system. This is done by renormalizing the memory effect by the method of Shibata, Takahashi and Hashitsume. It has a form convenient for the perturbational expansion. It is shown that this equation coincides with the time-convolution equation of Argyres and Kelley in their Markoffian approximation in the narrowing limit and in the lowest Born approximation for the system-bath interaction. This equation is expanded up to fourth order in powers of the system-bath interaction.

Progress of Theoretical Physics•May 1, 1982•33 citations
A time-convolutionless expression for the quantal equation of motion for the linear response of a system in contact with a heat bath to an external, time-varying driving field is derived from the quantal Liouville equation of motion for the total system. This is done by renormalizing the memory effect by the method of Shibata, Takahashi and Hashitsume. It has a form convenient for the perturbational expansion. It is shown that this equation coincides with the time-convolution equation of Argyres and Kelley in their Markoffian approximation in the narrowing limit and in the lowest Born approximation for the system-bath interaction. This equation is expanded up to fourth order in powers of the system-bath interaction.