(LiNH2-MgH2): a viable hydrogen storage system

By W. Luo. 2004

459 citations recorded by the source corpus.

Subfields: Catalysis, Energy Engineering and Power Technology, Materials Chemistry

View Paper: https://www.semanticscholar.org/paper/d08c0aae84f0a4e1da35acf416ef4406861edcca

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Catalysis

1. Qiang Xu
2. Jun-min Yan
3. Xin-bo Zhang
4. T. Umegaki
5. F. Lamari-Darkrim
6. V. Jai̇n
7. H. Shioyama
8. B. Kandasubramanian

In Energy Engineering and Power Technology

1. Qiang Xu
2. T. Umegaki
3. Xin-bo Zhang
4. F. Lamari-Darkrim
5. V. Jai̇n
6. H. Shioyama
7. Jun-min Yan
8. B. Kandasubramanian

In Materials Chemistry

1. Qiang Xu
2. Jun-min Yan
3. B. Kandasubramanian
4. V. Jai̇n
5. Xin-bo Zhang
6. H. Shioyama
7. T. Umegaki
8. F. Lamari-Darkrim

Citations in the corpus

• Metal hydride materials for solid hydrogen storage: a review (2007, background): “Luo [44] developed LiNH2/MgH2 system by partial substitution of Li by Mg which has a storage capacity of 4.”
• Functionalized graphene materials for hydrogen storage (2020, background): “[108] Luo W (2004) (LiNH2-MgH2): a viable hydrogen storage”
• Nanomaterials for Hydrogen Storage Applications: A Review (2008, background): “Though the MgH2 admixing increases the equilibrium plateau pressure of LiNH2 [41] or LiBH4 [29], catalytic doping of these complex hydrides has not yet been investigated.”
• The problem of solid state hydrogen storage (2009, background): “New materials are also being investigated, interesting because of their light weight and a DH value lower than that of MgH2 [21].”
• Boron- and nitrogen-based chemical hydrogen storage materials (2009, methodology): “LiNH2 or LiH with partial or complete Mg substitution has been also investigated for the dehydrogenation reaction [71–73].”