H. Donald Brooke Jenkins

Carter BloodCare — United States

Chemistry · Physical Sciences

37h-index6.2kcitations276works0.02yr avg
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Research Topics

Chemical Thermodynamics and Molecular Structure(83), Thermal and Kinetic Analysis(62), Inorganic Fluorides and Related Compounds(43), Chemical and Physical Properties in Aqueous Solutions(33), Advanced Chemical Physics Studies(26)

Publications276 total

OA1‐AM23‐ST‐24 | Cost Savings of Strategic Plan for Distribution of Cold Stored Platelets
Transfusion·2023
Determining Mating Type and Species of a Natural Isolate of Dictyostelium using Molecular Techniques and Sexual Crosses
Journal of the Arkansas Academy of Science·2023Open Access
Metastable Structure of Photoexcited WO<sub>3</sub> Determined by the Pump-probe Extended X-ray Absorption Fine Structure Spectroscopy and Constrained Thorough Search Analysis
Chemistry Letters·2022· 6 citedOpen Access
Metastable structure of photoexcited WO$_{3}$ determined by the pump--probe extended X-ray absorption fine structure spectroscopy and constrained thorough search analysis
arXiv (Cornell University)·2022Open Access
A re-interpretation of the structure of the silver borate, Ag<sub>16</sub>B<sub>4</sub>O<sub>10</sub>, in the light of the extended Zintl–Klemm concept
Acta Crystallographica Section B Structural Science Crystal Engineering and Materials·2020· 3 cited
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· 1 cited
A combined periodic DFT and QM/MM approach to understand the radical mechanism of the catalytic production of methanol from glycerol
Faraday Discussions·2020· 9 cited
Rationalization of the crystal structure of eudidymite Na<sub>2</sub>Be<sub>2</sub>[Si<sup>[4]</sup><sub>6</sub>O<sub>15</sub>]·H<sub>2</sub>O in light of the extended Zintl–Klemm concept
Acta Crystallographica Section B Structural Science Crystal Engineering and Materials·2020· 1 cited
Expanding thermodynamic databases using the thermodynamic difference rule (TDR). Exemplified by an application to retrieve new thermodynamic data for thorium compounds
The Journal of Chemical Thermodynamics·2020· 9 cited
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· 1 cited
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· 10 cited
Crystalline thin films of silica: modelling, structure and energetics
Journal of Physics Condensed Matter·2018· 4 cited
Standard absolute entropy, S298o, of salt hydrates from volumes and hydrate numbers and the thermodynamic difference rule
Chemical Physics Letters·2018· 3 cited
Thermodynamics in Material Science
Entropy·2018· 36 citedOpen Access
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·2017· 1 cited
The extended Zintl–Klemm concept, ionic strength <i>I</i> and assessment of the relative stability of lattices using the stability enhancement ratio <i>S</i>
Acta Crystallographica Section B Structural Science Crystal Engineering and Materials·2017· 1 citedOpen Access
A review of the oxidation–pressure concept (OPC) and extended Zintl–Klemm concept (EZKC), and the emergence of the high-pressure Ni<sub>2</sub>In-type phase of lithium sulfide (Li<sub>2</sub>S) rationalized by reference to a newly defined stability enhancement ratio (<i>S</i>)
Acta Crystallographica Section B Structural Science Crystal Engineering and Materials·2017· 2 citedOpen Access
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
The Journal of Chemical Thermodynamics·2017· 5 cited
A simplification of gas clathrate hydrate thermochemistry using the Thermodynamic Difference Rule (TDR). Part 1. Generation of particularly simple forms for standard thermodynamic parameters for specific hydrates
The Journal of Chemical Thermodynamics·2017· 9 cited
A simplification of gas clathrate hydrate thermochemistry using the Thermodynamic Difference Rule (TDR). Part 2. General Hydrates
The Journal of Chemical Thermodynamics·2017· 8 cited
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Frequent Co-authors

Leslie Glasser(20), Jack Passmore(10), Helen K. Roobottom(5), Joel F. Liebman(3), Gary J. Schrobilgen(3), A. Decken(3), Yizhak Marcus(2), Karl O. Christe(2), T. Stanley Cameron(2), Robert J. Deeth(2), Isabelle Dionne(2), Ingo Krossing(2), Grigori B. Nikiforov(2), J. Mikko Rautiainen(2), K.F. Pratt(2), Thomas M. Klapötke(2), David Tudela(1), Kalpna Thakur(1), David A. Dixon(1), David Feller(1)