ID: 1811.02453

Non-equilibrium System as a Demon

November 6, 2018

View on ArXiv

Similar papers 5

Information Flow and Computation in the Maxwell Demon Problem

January 1, 2004

87% Match
Roger D. Jones, Sven G. Redsun, Roger E. Frye
Classical Physics
General Physics

In this paper we examine the Maxwell Demon problem from an information theoretic and computational point-of-view. In particular we calculate the required capacity of a communication channel that transports information to and from the Demon. Equivalently, this is the number of bits required to store the information on a computer tape. We show that, in a simple model for the Maxwell Demon, the entropy of the universe increases by at least an amount eta=0.83999552 bits per parti...

Find SimilarView on arXiv

Maxwell's Demon, Szilard Engine and Landauer Principle

April 10, 2019

87% Match
P. S. Pal, A. M. Jayannavar
Statistical Mechanics

The second law of thermodynamics is probabilistic in nature. Its formulation requires that the state of a system be described by a probability distribution. A natural question, thereby, arises as to whether a prior knowledge about the state of the system affects the second law. This question has now been nurtured over a century and its inception was done by C. Maxwell through his famous thought experiment wherein comes the idea of Maxwell's demon. The next important step in t...

Find SimilarView on arXiv

Demon-like Algorithmic Quantum Cooling and its Realization with Quantum Optics

August 10, 2012

86% Match
Jin-Shi Xu, Man-Hong Yung, Xiao-Ye Xu, Sergio Boixo, Zheng-Wei Zhou, Chuan-Feng Li, ... , Guo Guang-Can
Optics

The simulation of low-temperature properties of many-body systems remains one of the major challenges in theoretical and experimental quantum information science. We present, and demonstrate experimentally, a universal cooling method which is applicable to any physical system that can be simulated by a quantum computer. This method allows us to distill and eliminate hot components of quantum states, i.e., a quantum Maxwell's demon. The experimental implementation is realized ...

Find SimilarView on arXiv

Experimental entanglement-enhanced work extraction based on a Maxwell's demon

January 25, 2016

86% Match
Mario A. Ciampini, Luca Mancino, Adeline Orieux, Caterina Vigliar, Paolo Mataloni, ... , Barbieri Marco
Quantum Physics

The relation between the theory of entanglement and thermodynamics is very tight: a thermodynamic theory of quantum entanglement, as well as the establishment of rigorous formal connections between the laws of thermodynamics and the phenomenology of entanglement are currently open areas of investigation. In this quest, an interesting problem is embodied by the role played by entanglement in processes of work extraction from a working medium embodied by quantum information car...

Find SimilarView on arXiv

Optimizing non-ergodic feedback engines

May 27, 2013

86% Match
Jordan M. Horowitz, Juan M. R. Parrondo
Statistical Mechanics

Maxwell's demon is a special case of a feedback controlled system, where information gathered by measurement is utilized by driving a system along a thermodynamic process that depends on the measurement outcome. The demon illustrates that with feedback one can design an engine that performs work by extracting energy from a single thermal bath. Besides the fundamental questions posed by the demon - the probabilistic nature of the Second Law, the relationship between entropy an...

Find SimilarView on arXiv

A Note on Solid-State Maxwell Demon

November 17, 2010

86% Match
Germano D'Abramo
Classical Physics

Starting from 2002, at least two kinds of laboratory-testable, solid-state Maxwell demons have been proposed that utilize the electric field energy of an open-gap n-p junction and that seem to challenge the validity of the Second Law of Thermodynamics. In the present paper we present some arguments against the alleged functioning of such devices.

Find SimilarView on arXiv

Quantum thermodynamics in a single-electron box

May 27, 2018

86% Match
Jonne V. Koski, Jukka P. Pekola
Mesoscale and Nanoscale Phys...

This chapter provides an overview of the methods and results for quantum thermodynamic experiments with single-electron devices. The experiments with a single-electron box on Jarzynski equality and Crooks relation, two-temperature fluctuation relations, and Maxwell's demon performed over the past few years are reviewed here. We further review the first experimental realization of an autonomous Maxwell's demon using a single-electron box as the demon.

Find SimilarView on arXiv

Modeling Maxwell's demon with a microcanonical Szilard engine

May 9, 2011

86% Match
Suriyanarayanan Vaikuntanathan, Christopher Jarzynski
Statistical Mechanics

Following recent work by Marathe and Parrondo [PRL, 104, 245704 (2010)], we construct a classical Hamiltonian system whose energy is reduced during the adiabatic cycling of external parameters, when initial conditions are sampled microcanonically. Combining our system with a device that measures its energy, we propose a cyclic procedure during which energy is extracted from a heat bath and converted to work, in apparent violation of the second law of thermodynamics. This para...

Find SimilarView on arXiv

Maxwell Demon from a Quantum Bayesian Networks Perspective

December 30, 2012

86% Match
Robert R. Tucci
Quantum Physics

We propose a new inequality that we call the conditional ageing inequality (CAIN). The CAIN is a slight generalization to non-equilibrium situations of the Second Law of thermodynamics. The goal of this paper is to study the consequences of the CAIN. We use the CAIN to discuss Maxwell demon processes (i.e., thermodynamic processes with feedback.) In particular, we apply the CAIN to four cases of the Szilard engine: for a classical or a quantum system with either one or two co...

Find SimilarView on arXiv

Variations on a Demonic Theme: Szilard's Other Engines

March 22, 2020

86% Match
Kyle J. Ray, James P. Crutchfield
Statistical Mechanics
Information Theory
Information Theory
Chaotic Dynamics

Szilard's now-famous single-molecule engine was only the first of three constructions he introduced in 1929 to resolve several paradoxes arising from Maxwell's demon. We analyze Szilard's remaining two demon models. We show that the second one, though a markedly different implementation employing a population of distinct molecular species and semi-permeable membranes, is informationally and thermodynamically equivalent to an ideal gas of the single-molecule engines. Since it ...

Find SimilarView on arXiv