Thermodynamic formalism of minimum heat source temperature for driving advanced adsorption cooling device

Bidyut Baran Saha; Anutosh Chakraborty; Shigeru Koyama; Kandadai Srinivasan; Kim Choon Ng; Takao Kashiwagi; Pradip Dutta

doi:10.1063/1.2780117

Thermodynamic formalism of minimum heat source temperature for driving advanced adsorption cooling device

Bidyut Baran Saha, Anutosh Chakraborty, Shigeru Koyama, Kandadai Srinivasan, Kim Choon Ng, Takao Kashiwagi, Pradip Dutta

Multiscale Science and Engineering for Energy and the Environment Thrust

Research output: Contribution to journal › Article › peer-review

52 Citations (Scopus)

Abstract

This letter presents a thermodynamic formulation to calculate the minimum driving heat source temperature of an advanced solid sorption cooling device, and it is validated with experimental data. This formalism has been developed from the rigor of the Boltzmann distribution function and the condensation approximation of adsorptive molecules. An interesting and useful finding has been established from this formalism that it is possible to construct a solid sorption refrigeration device that operates in a cycle transferring heat from a low temperature source to a heat sink with a driving heat source at a temperature close to but above ambient.

Original language	English
Article number	111902
Journal	Applied Physics Letters
Volume	91
Issue number	11
DOIs	https://doi.org/10.1063/1.2780117
Publication status	Published - 2007

All Science Journal Classification (ASJC) codes

Physics and Astronomy (miscellaneous)

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10.1063/1.2780117

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title = "Thermodynamic formalism of minimum heat source temperature for driving advanced adsorption cooling device",

abstract = "This letter presents a thermodynamic formulation to calculate the minimum driving heat source temperature of an advanced solid sorption cooling device, and it is validated with experimental data. This formalism has been developed from the rigor of the Boltzmann distribution function and the condensation approximation of adsorptive molecules. An interesting and useful finding has been established from this formalism that it is possible to construct a solid sorption refrigeration device that operates in a cycle transferring heat from a low temperature source to a heat sink with a driving heat source at a temperature close to but above ambient.",

author = "Saha, {Bidyut Baran} and Anutosh Chakraborty and Shigeru Koyama and Kandadai Srinivasan and Ng, {Kim Choon} and Takao Kashiwagi and Pradip Dutta",

note = "Funding Information: One of the authors (B.B.S.) acknowledge the financial support by the Ministry of Education, Culture, Sports, Science and Technology (MEXT), Japan, “Science and Technology Project,” Project No. 18560205. Another author (K.S.) is grateful to Kyushu University for providing the Visiting Professor position.",

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AU - Saha, Bidyut Baran

AU - Chakraborty, Anutosh

AU - Koyama, Shigeru

AU - Srinivasan, Kandadai

AU - Ng, Kim Choon

AU - Kashiwagi, Takao

AU - Dutta, Pradip

N1 - Funding Information: One of the authors (B.B.S.) acknowledge the financial support by the Ministry of Education, Culture, Sports, Science and Technology (MEXT), Japan, “Science and Technology Project,” Project No. 18560205. Another author (K.S.) is grateful to Kyushu University for providing the Visiting Professor position.

PY - 2007

Y1 - 2007

N2 - This letter presents a thermodynamic formulation to calculate the minimum driving heat source temperature of an advanced solid sorption cooling device, and it is validated with experimental data. This formalism has been developed from the rigor of the Boltzmann distribution function and the condensation approximation of adsorptive molecules. An interesting and useful finding has been established from this formalism that it is possible to construct a solid sorption refrigeration device that operates in a cycle transferring heat from a low temperature source to a heat sink with a driving heat source at a temperature close to but above ambient.

AB - This letter presents a thermodynamic formulation to calculate the minimum driving heat source temperature of an advanced solid sorption cooling device, and it is validated with experimental data. This formalism has been developed from the rigor of the Boltzmann distribution function and the condensation approximation of adsorptive molecules. An interesting and useful finding has been established from this formalism that it is possible to construct a solid sorption refrigeration device that operates in a cycle transferring heat from a low temperature source to a heat sink with a driving heat source at a temperature close to but above ambient.

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Thermodynamic formalism of minimum heat source temperature for driving advanced adsorption cooling device

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