Landauer vs. Nernst: What is the True Cost of Cooling a Quantum System?

Research output: Working paper › Preprint › Research

Standard

Landauer vs. Nernst : What is the True Cost of Cooling a Quantum System? / Taranto, Philip; Bakhshinezhad, Faraj; Bluhm, Andreas; Silva, Ralph; Friis, Nicolai; Lock, Maximilian P. E.; Vitagliano, Giuseppe; Binder, Felix C.; Debarba, Tiago; Schwarzhans, Emanuel; Clivaz, Fabien; Huber, Marcus.

arXiv.org, 2021.

Research output: Working paper › Preprint › Research

Harvard

Taranto, P, Bakhshinezhad, F, Bluhm, A, Silva, R, Friis, N, Lock, MPE, Vitagliano, G, Binder, FC, Debarba, T, Schwarzhans, E, Clivaz, F & Huber, M 2021 'Landauer vs. Nernst: What is the True Cost of Cooling a Quantum System?' arXiv.org.

APA

Taranto, P., Bakhshinezhad, F., Bluhm, A., Silva, R., Friis, N., Lock, M. P. E., Vitagliano, G., Binder, F. C., Debarba, T., Schwarzhans, E., Clivaz, F., & Huber, M. (2021). Landauer vs. Nernst: What is the True Cost of Cooling a Quantum System? arXiv.org.

Vancouver

Taranto P, Bakhshinezhad F, Bluhm A, Silva R, Friis N, Lock MPE et al. Landauer vs. Nernst: What is the True Cost of Cooling a Quantum System? arXiv.org. 2021 Jun 9.

Author

Taranto, Philip ; Bakhshinezhad, Faraj ; Bluhm, Andreas ; Silva, Ralph ; Friis, Nicolai ; Lock, Maximilian P. E. ; Vitagliano, Giuseppe ; Binder, Felix C. ; Debarba, Tiago ; Schwarzhans, Emanuel ; Clivaz, Fabien ; Huber, Marcus. / Landauer vs. Nernst : What is the True Cost of Cooling a Quantum System?. arXiv.org, 2021.

Bibtex

@techreport{b8c9d75b46414991b2cad95fb4435761,
title = "Landauer vs. Nernst: What is the True Cost of Cooling a Quantum System?",
abstract = " Thermodynamics connects our knowledge of the world to our capability to manipulate and thus to control it. This crucial role of control is exemplified by the third law of thermodynamics, Nernst's unattainability principle, stating that infinite resources are required to cool a system to absolute zero temperature. But what are these resources? And how does this relate to Landauer's principle that famously connects information and thermodynamics? We answer these questions by providing a framework for identifying the resources that enable the creation of pure quantum states. We show that perfect cooling is possible with Landauer energy cost given infinite time or control complexity. Within the context of resource theories of quantum thermodynamics, we derive a Carnot-Landauer limit, along with protocols for its saturation. This generalises Landauer's principle to a fully thermodynamic setting, leading to a unification with the third law and emphasising the importance of control in quantum thermodynamics. ",
keywords = "quant-ph",
author = "Philip Taranto and Faraj Bakhshinezhad and Andreas Bluhm and Ralph Silva and Nicolai Friis and Lock, {Maximilian P. E.} and Giuseppe Vitagliano and Binder, {Felix C.} and Tiago Debarba and Emanuel Schwarzhans and Fabien Clivaz and Marcus Huber",
note = "11 pages, 2 figures, 39 pages of appendices",
year = "2021",
month = jun,
day = "9",
language = "English",
publisher = "arXiv.org",
type = "WorkingPaper",
institution = "arXiv.org",

}

RIS

TY - UNPB

T1 - Landauer vs. Nernst

T2 - What is the True Cost of Cooling a Quantum System?

AU - Taranto, Philip

AU - Bakhshinezhad, Faraj

AU - Bluhm, Andreas

AU - Silva, Ralph

AU - Friis, Nicolai

AU - Lock, Maximilian P. E.

AU - Vitagliano, Giuseppe

AU - Binder, Felix C.

AU - Debarba, Tiago

AU - Schwarzhans, Emanuel

AU - Clivaz, Fabien

AU - Huber, Marcus

N1 - 11 pages, 2 figures, 39 pages of appendices

PY - 2021/6/9

Y1 - 2021/6/9

N2 - Thermodynamics connects our knowledge of the world to our capability to manipulate and thus to control it. This crucial role of control is exemplified by the third law of thermodynamics, Nernst's unattainability principle, stating that infinite resources are required to cool a system to absolute zero temperature. But what are these resources? And how does this relate to Landauer's principle that famously connects information and thermodynamics? We answer these questions by providing a framework for identifying the resources that enable the creation of pure quantum states. We show that perfect cooling is possible with Landauer energy cost given infinite time or control complexity. Within the context of resource theories of quantum thermodynamics, we derive a Carnot-Landauer limit, along with protocols for its saturation. This generalises Landauer's principle to a fully thermodynamic setting, leading to a unification with the third law and emphasising the importance of control in quantum thermodynamics.

AB - Thermodynamics connects our knowledge of the world to our capability to manipulate and thus to control it. This crucial role of control is exemplified by the third law of thermodynamics, Nernst's unattainability principle, stating that infinite resources are required to cool a system to absolute zero temperature. But what are these resources? And how does this relate to Landauer's principle that famously connects information and thermodynamics? We answer these questions by providing a framework for identifying the resources that enable the creation of pure quantum states. We show that perfect cooling is possible with Landauer energy cost given infinite time or control complexity. Within the context of resource theories of quantum thermodynamics, we derive a Carnot-Landauer limit, along with protocols for its saturation. This generalises Landauer's principle to a fully thermodynamic setting, leading to a unification with the third law and emphasising the importance of control in quantum thermodynamics.

KW - quant-ph

M3 - Preprint

BT - Landauer vs. Nernst

PB - arXiv.org

ER -

ID: 304512541