Lithium-doped silica rich MIL-101(Cr) for enhanced hydrogen uptake.

Lithium-doped silica rich MIL-101(Cr) for enhanced hydrogen uptake.

Panchariya, Dharmendra K;Kumar, E Anil;Singh, Sanjay Kumar;
Chemistry, an Asian journal 2019
243
panchariya2019lithiumdopedchemistry

Abstract

Metal organic frameworks (MOFs) show promising characteristics for hydrogen storage application. In this direction, modification of under-utilized large pore cavities of MOFs has been extensively explored as a promising strategy to further enhance the hydrogen storage properties of MOFs. Here, we described a simple methodology to enhance the hydrogen uptake properties of RHA incorporated MIL-101 (RHA-MIL-101, where RHA is rice husk ash - a waste material) by controlled doping of Li+ ions. Hydrogen gas uptake of Li-doped RHA-MIL-101 is significantly higher (up to 72%) compared to the undoped RHA-MIL-101, where the content of Li+ ions doping greatly influenced the hydrogen uptake properties. We attributed the observed enhancement in hydrogen gas uptake of Li-doped RHA-MIL-101 to the favorable Li+ ion to H2 interactions and the co-operative effect of silanol bonds of silica-rich rice-husk ash incorporated in MIL-101.

Citation

ID: 22456
Ref Key: panchariya2019lithiumdopedchemistry
Use this key to autocite in SciMatic or Thesis Manager

References

Blockchain Verification

Account:
NFT Contract Address:
0x95644003c57E6F55A65596E3D9Eac6813e3566dA
Article ID:
22456
Unique Identifier:
10.1002/asia.201900833
Network:
Scimatic Chain (ID: 481)
Loading...
Blockchain Readiness Checklist
Authors
Abstract
Journal Name
Year
Title
5/5
Creates 1,000,000 NFT tokens for this article
Token Features:
  • ERC-1155 Standard NFT
  • 1 Million Supply per Article
  • Transferable via MetaMask
  • Permanent Blockchain Record
Blockchain QR Code
Scan with Saymatik Web3.0 Wallet

Saymatik Web3.0 Wallet