Aromatic Clusters as Potential Hydrogen Storage Materials

The scientific community is engrossed in the thought of a probable solution to the future energy crisis keeping in mind a better environment-friendly alternative. Although there are many such alternatives, the green hydrogen energy has occupied most of the brilliant minds due to its abundance and nu...

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Main Authors: Ranita Pal, Pratim Kumar Chattaraj
Format: Article
Language:English
Published: Frontiers Media S.A. 2021-11-01
Series:Frontiers in Energy Research
Subjects:
Online Access:https://www.frontiersin.org/articles/10.3389/fenrg.2021.786967/full
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author Ranita Pal
Pratim Kumar Chattaraj
Pratim Kumar Chattaraj
author_facet Ranita Pal
Pratim Kumar Chattaraj
Pratim Kumar Chattaraj
author_sort Ranita Pal
collection DOAJ
description The scientific community is engrossed in the thought of a probable solution to the future energy crisis keeping in mind a better environment-friendly alternative. Although there are many such alternatives, the green hydrogen energy has occupied most of the brilliant minds due to its abundance and numerous production resources. For the advancement of hydrogen economy, Government agencies are funding pertinent research projects. There is an avalanche of molecular systems which are studied by several chemists for storing atomic and molecular hydrogens. The present review on molecular hydrogen storage focuses on all-metal and nonmetal aromatic clusters. In addition to the effect of aromaticity on hydrogen trapping potential of different molecular moieties, the importance of using the conceptual density functional theory based reactivity descriptors is also highlighted. Investigations from our group have been revealing the fact that several aromatic metal clusters, metal doped nonmetal clusters as well as pure nonmetal clusters can serve as potential molecular hydrogen trapping agents. Reported systems include N4Li2, N6Ca2 clusters, Mgn, and Can (n = 8–10) cage-like moieties, B12N12 clathrate, transition metal doped ethylene complexes, M3+ (M = Li, Na) ions, E3-M2 (E = Be, Mg, Al; M = Li, Na, K) clusters, Li3Al4− ions, Li decorated star-like molecules, BxLiy (x = 3–6; y = 1, 2), Li-doped annular forms, Li-doped borazine derivatives, C12N12 clusters (N4C3H)6Li6 and associated 3-D functional material, cucurbiturils, lithium–phosphorus double-helices. Ni bound C12N12 moieties are also reported recently.
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spelling doaj.art-35b2868d3eb54e1087f70d33c69514122022-12-21T21:27:10ZengFrontiers Media S.A.Frontiers in Energy Research2296-598X2021-11-01910.3389/fenrg.2021.786967786967Aromatic Clusters as Potential Hydrogen Storage MaterialsRanita Pal0Pratim Kumar Chattaraj1Pratim Kumar Chattaraj2Advanced Technology Development Centre, Indian Institute of Technology Kharagpur, Kharagpur, IndiaDepartment of Chemistry, Indian Institute of Technology Kharagpur, Kharagpur, IndiaDepartment of Chemistry, Indian Institute of Technology Bombay, Mumbai, IndiaThe scientific community is engrossed in the thought of a probable solution to the future energy crisis keeping in mind a better environment-friendly alternative. Although there are many such alternatives, the green hydrogen energy has occupied most of the brilliant minds due to its abundance and numerous production resources. For the advancement of hydrogen economy, Government agencies are funding pertinent research projects. There is an avalanche of molecular systems which are studied by several chemists for storing atomic and molecular hydrogens. The present review on molecular hydrogen storage focuses on all-metal and nonmetal aromatic clusters. In addition to the effect of aromaticity on hydrogen trapping potential of different molecular moieties, the importance of using the conceptual density functional theory based reactivity descriptors is also highlighted. Investigations from our group have been revealing the fact that several aromatic metal clusters, metal doped nonmetal clusters as well as pure nonmetal clusters can serve as potential molecular hydrogen trapping agents. Reported systems include N4Li2, N6Ca2 clusters, Mgn, and Can (n = 8–10) cage-like moieties, B12N12 clathrate, transition metal doped ethylene complexes, M3+ (M = Li, Na) ions, E3-M2 (E = Be, Mg, Al; M = Li, Na, K) clusters, Li3Al4− ions, Li decorated star-like molecules, BxLiy (x = 3–6; y = 1, 2), Li-doped annular forms, Li-doped borazine derivatives, C12N12 clusters (N4C3H)6Li6 and associated 3-D functional material, cucurbiturils, lithium–phosphorus double-helices. Ni bound C12N12 moieties are also reported recently.https://www.frontiersin.org/articles/10.3389/fenrg.2021.786967/fullhydrogen storagearomaticityall-metal clustersnonmetal clustersconceptual density functional theory
spellingShingle Ranita Pal
Pratim Kumar Chattaraj
Pratim Kumar Chattaraj
Aromatic Clusters as Potential Hydrogen Storage Materials
Frontiers in Energy Research
hydrogen storage
aromaticity
all-metal clusters
nonmetal clusters
conceptual density functional theory
title Aromatic Clusters as Potential Hydrogen Storage Materials
title_full Aromatic Clusters as Potential Hydrogen Storage Materials
title_fullStr Aromatic Clusters as Potential Hydrogen Storage Materials
title_full_unstemmed Aromatic Clusters as Potential Hydrogen Storage Materials
title_short Aromatic Clusters as Potential Hydrogen Storage Materials
title_sort aromatic clusters as potential hydrogen storage materials
topic hydrogen storage
aromaticity
all-metal clusters
nonmetal clusters
conceptual density functional theory
url https://www.frontiersin.org/articles/10.3389/fenrg.2021.786967/full
work_keys_str_mv AT ranitapal aromaticclustersaspotentialhydrogenstoragematerials
AT pratimkumarchattaraj aromaticclustersaspotentialhydrogenstoragematerials
AT pratimkumarchattaraj aromaticclustersaspotentialhydrogenstoragematerials