Quantum Thermodynamic Processes | Agenda Bookshop Skip to content
A01=Guenter Mahler
Age Group_Uncategorized
Age Group_Uncategorized
Author_Guenter Mahler
automatic-update
Bipartite System
Carnot Cycle
Category1=Non-Fiction
Category=PBW
Category=PHQ
Category=PHS
Category=PHVN
Category=PSA
COP=Singapore
Cycle Time
Delivery_Pre-order
Density Operator
Dg Dγ
Dh Dα
dynamics
engine
entropy
EPR State
eq_isMigrated=2
eq_non-fiction
eq_science
heat
Hilbert Space
Isentropic Compressibility
Language_English
Lindblad Master Equation
Local Thermal State
machine
maxwell's
Maxwell’s Demon
mechanics
neumann
PA=Temporarily unavailable
Price_€100 and above
PS=Active
Quantum Discord
Quantum Gates
Quantum Thermodynamic
Real Space Representation
Relative Entropy
softlaunch
Spectral Deformation
Subjective Ignorance
Thermodynamic Machines
Tsallis Entropies
turing
Virtual Temperature
von
Von Neumann Entropy
Weak Coupling
Work Reservoir

Quantum Thermodynamic Processes

English

By (author): Guenter Mahler

The point of departure of this book is a triad of themes: information theory, thermodynamics, and quantum mechanics. These are related: thermodynamics and quantum mechanics form the basis of quantum thermodynamics; information and quantum mechanics underly, inter alia, the notorious quantum measurement problem; and information and thermodynamics have much to say about control limits in the tension between micro- and macro-descriptions.

Why does the world around us typically look thermal—from cosmology down to individual embedded spins? Do informational measures constitute additional (independent) parameters beyond physical ones? Is the transition between mechanical and thermal systems gradual or discontinuous? Pertinent examples can be found in various processes implemented on small quantum systems. Particularly attractive are model systems that can be treated thermodynamically, but—to some extent—also exactly, that is, based on pure quantum dynamics. This possibility opens the door to nano-thermodynamics. In this sense, the book aims at a modern perspective of nanoscale applications, defined here as a potential realization of various functions as constrained by given resources.

See more
€179.80
A01=Guenter MahlerAge Group_UncategorizedAuthor_Guenter Mahlerautomatic-updateBipartite SystemCarnot CycleCategory1=Non-FictionCategory=PBWCategory=PHQCategory=PHSCategory=PHVNCategory=PSACOP=SingaporeCycle TimeDelivery_Pre-orderDensity OperatorDg DγDh DαdynamicsengineentropyEPR Stateeq_isMigrated=2eq_non-fictioneq_scienceheatHilbert SpaceIsentropic CompressibilityLanguage_EnglishLindblad Master EquationLocal Thermal Statemachinemaxwell'sMaxwell’s DemonmechanicsneumannPA=Temporarily unavailablePrice_€100 and abovePS=ActiveQuantum DiscordQuantum GatesQuantum ThermodynamicReal Space RepresentationRelative EntropysoftlaunchSpectral DeformationSubjective IgnoranceThermodynamic MachinesTsallis EntropiesturingVirtual TemperaturevonVon Neumann EntropyWeak CouplingWork Reservoir

Will deliver when available.

Product Details
  • Weight: 1060g
  • Dimensions: 152 x 229mm
  • Publication Date: 19 Dec 2014
  • Publisher: Pan Stanford Publishing Pte Ltd
  • Publication City/Country: SG
  • Language: English
  • ISBN13: 9789814463737

About Guenter Mahler

Günter Mahler obtained his doctorate in theoretical physics in 1972 and habilitation in theoretical physics in 1977 from the University of Regensburg, Germany. Since 1978, he was professor of theoretical physics at Institut für Theoretische Physik I, Universität Stuttgart, Germany, from where he retired in 2011. From 2004 to 2010, he was dean for international studies at the Faculty of Mathematics and Physics, Universität Stuttgart. Prof. Mahler’s research interests include quantum system theory, quantum stochastics, quantum networks, quantum control, quantum measurement and sensorics, quantum information processing, quantum thermodynamics and quantum transport, and quantum thermodynamical machines.

Customer Reviews

Be the first to write a review
0%
(0)
0%
(0)
0%
(0)
0%
(0)
0%
(0)
We use cookies to ensure that we give you the best experience on our website. If you continue we'll assume that you are understand this. Learn more
Accept