Improved hydrogen storage in Ca-decorated boron heterofullerenes: a theoretical study

We computationally investigate the hydrogen storage properties of calcium-decorated C 48 B 12 boron-carbon heterofullerene molecules, and compare them to C 60 (all-carbon) fullerene decorated with calcium. We employ density functional theory (DFT) on the lowest energy configurations of C 48 B 12 mol...

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Published inJournal of materials chemistry. A, Materials for energy and sustainability Vol. 3; no. 15; pp. 771 - 7714
Main Authors Er, Süleyman, de Wijs, Gilles A, Brocks, Geert
Format Journal Article
LanguageEnglish
Published 01.03.2015
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Abstract We computationally investigate the hydrogen storage properties of calcium-decorated C 48 B 12 boron-carbon heterofullerene molecules, and compare them to C 60 (all-carbon) fullerene decorated with calcium. We employ density functional theory (DFT) on the lowest energy configurations of C 48 B 12 molecules and find that these molecules have the following properties. (1) The most stable C 48 B 12 isomers have an electron affinity that is 0.93-1.04 eV higher than their carbon only counterpart. (2) The binding of a Ca atom to C 48 B 12 is ∼2.2 eV stronger than its binding to C 60 . (3) Unlike C 60 Ca x , x = 1-6, C 48 B 12 Ca x is stable with respect to decomposition into the fullerene molecules and Ca bulk metal. (4) C 48 B 12 Ca x binds up to six hydrogen molecules per metal center, leading to a gravimetric density of up to 7.1 weight percent (wt%). The hydrogen binding energies of up to ∼0.24 eV open a prospect of hydrogen storage at ambient temperature. Using first principles calculations we predicted new molecular based hydrogen storage systems, which are composed of abundant elements, with interesting thermodynamics.
AbstractList We computationally investigate the hydrogen storage properties of calcium-decorated C 48 B 12 boron-carbon heterofullerene molecules, and compare them to C 60 (all-carbon) fullerene decorated with calcium. We employ density functional theory (DFT) on the lowest energy configurations of C 48 B 12 molecules and find that these molecules have the following properties. (1) The most stable C 48 B 12 isomers have an electron affinity that is 0.93-1.04 eV higher than their carbon only counterpart. (2) The binding of a Ca atom to C 48 B 12 is ∼2.2 eV stronger than its binding to C 60 . (3) Unlike C 60 Ca x , x = 1-6, C 48 B 12 Ca x is stable with respect to decomposition into the fullerene molecules and Ca bulk metal. (4) C 48 B 12 Ca x binds up to six hydrogen molecules per metal center, leading to a gravimetric density of up to 7.1 weight percent (wt%). The hydrogen binding energies of up to ∼0.24 eV open a prospect of hydrogen storage at ambient temperature. Using first principles calculations we predicted new molecular based hydrogen storage systems, which are composed of abundant elements, with interesting thermodynamics.
We computationally investigate the hydrogen storage properties of calcium-decorated C sub(48)B sub(12) boron-carbon heterofullerene molecules, and compare them to C sub(60) (all-carbon) fullerene decorated with calcium. We employ density functional theory (DFT) on the lowest energy configurations of C sub(48)B sub(12) molecules and find that these molecules have the following properties. (1) The most stable C sub(48)B sub(12) isomers have an electron affinity that is 0.93-1.04 eV higher than their carbon only counterpart. (2) The binding of a Ca atom to C sub(48)B sub(12) is similar to 2.2 eV stronger than its binding to C sub(60). (3) Unlike C sub(60)Ca sub(x), x= 1-6, C sub(48)B sub(12)Ca sub(x) is stable with respect to decomposition into the fullerene molecules and Ca bulk metal. (4) C sub(48)B sub(12)Ca sub(x) binds up to six hydrogen molecules per metal center, leading to a gravimetric density of up to 7.1 weight percent (wt%). The hydrogen binding energies of up to similar to 0.24 eV open a prospect of hydrogen storage at ambient temperature.
We computationally investigate the hydrogen storage properties of calcium-decorated C 48 B 12 boron-carbon heterofullerene molecules, and compare them to C 60 (all-carbon) fullerene decorated with calcium. We employ density functional theory (DFT) on the lowest energy configurations of C 48 B 12 molecules and find that these molecules have the following properties. (1) The most stable C 48 B 12 isomers have an electron affinity that is 0.93–1.04 eV higher than their carbon only counterpart. (2) The binding of a Ca atom to C 48 B 12 is ∼2.2 eV stronger than its binding to C 60 . (3) Unlike C 60 Ca x , x = 1–6, C 48 B 12 Ca x is stable with respect to decomposition into the fullerene molecules and Ca bulk metal. (4) C 48 B 12 Ca x binds up to six hydrogen molecules per metal center, leading to a gravimetric density of up to 7.1 weight percent (wt%). The hydrogen binding energies of up to ∼0.24 eV open a prospect of hydrogen storage at ambient temperature.
Author Er, Süleyman
Brocks, Geert
de Wijs, Gilles A
AuthorAffiliation Institute for Molecules and Materials
Faculty of Science and Technology and MESA+ Institute for Nanotechnology
Harvard University
University of Twente
Radboud University
Department of Chemistry and Chemical Biology
AuthorAffiliation_xml – name: Harvard University
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  surname: Brocks
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Snippet We computationally investigate the hydrogen storage properties of calcium-decorated C 48 B 12 boron-carbon heterofullerene molecules, and compare them to C 60...
We computationally investigate the hydrogen storage properties of calcium-decorated C sub(48)B sub(12) boron-carbon heterofullerene molecules, and compare them...
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SubjectTerms Binding energy
Buckminsterfullerene
Calcium
Carbon
Density
Fullerenes
Hydrogen storage
Sustainability
Title Improved hydrogen storage in Ca-decorated boron heterofullerenes: a theoretical study
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https://search.proquest.com/docview/1687667256
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