A simplification of gas clathrate hydrate thermochemistry using the Thermodynamic Difference Rule (TDR). Part 3. Heat capacity prediction as compared with experimental C values – Towards further validation of the TDR approach-Reference-Cited by-同舟云学术

A simplification of gas clathrate hydrate thermochemistry using the Thermodynamic Difference Rule (TDR). Part 3. Heat capacity prediction as compared with experimental C values – Towards further validation of the TDR approach

Published:2018-03 Issue: Volume:118 Page:16-20
ISSN:0021-9614
Container-title:The Journal of Chemical Thermodynamics
language:en
Short-container-title:The Journal of Chemical Thermodynamics

Author:

Jenkins Harry Donald Brooke

Publisher

Elsevier BV

Subject

Physical and Theoretical Chemistry,General Materials Science,Atomic and Molecular Physics, and Optics

Reference15 articles.

1. H.D.B. Jenkins, J. Chem. Thermodyn. 117 (2018) 236–241.

2. H.D.B. Jenkins, J. Chem. Thermodyn. 117 (2018) 242–247.

3. Difference RuleA New Thermodynamic Principle: Prediction of Standard Thermodynamic Data for Inorganic Solvates

4. The Thermodynamic Solvate Difference Rule: Solvation Parameters and Their Use in Interpretation of the Role of Bound Solvent in Condensed-Phase Solvates

5. Extensions and Corollaries of the Thermodynamic Solvate Difference Rule

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1. The thermodynamic difference rule for Gibbs energy of formation values for hydrates and their parents and applying at temperatures over the range: 298.15 ≤ T/K ≤ 900;The Journal of Chemical Thermodynamics;2020-11

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3. The Thermodynamic Difference Rule (TDR) for non-aqueous solvates. Part 2. Review of methodology, investigation and prediction of thermodynamic data for ammoniate solvates, MpXq.nNH3, routes to expand the database;The Journal of Chemical Thermodynamics;2019-08

4. The Thermodynamic Difference Rule (TDR) for non-aqueous solvates. Part 1. Review of methodology, investigation and prediction of thermodynamic data for sulfur dioxide solvates, MpXq.nSO2, routes to expand the database and forecast of future science and technology;The Journal of Chemical Thermodynamics;2019-08

5. A simplification of gas clathrate hydrate thermochemistry using the Thermodynamic Difference Rule (TDR). Part 4. Further extension of the TDR to temperatures other than 298 K and validation of the similarity found between inorganic hydrate and clathrate hydrate TDR equations;The Journal of Chemical Thermodynamics;2018-04