Area of research
Materials Chemistry · Catalysis
Research interest
Research focused on Hydrogen storage and Dehydrogenation, with related work in Composite number, MXenes, Hydrogen. Notable publications include 'Exfoliation of compact layered Ti2VAlC2 MAX to open layered Ti2VC2 MXene towards enhancing the hydrogen storage properties of MgH2', 'Ti 3 AlCN MAX for tailoring MgH 2 hydrogen storage material: from performance to mechanism', and 'Highly-dispersed nano-TiB2 derived from the two-dimensional Ti3CN MXene for tailoring the kinetics and reversibility of the Li-Mg-B-H hydrogen storage material'.
Layered MoS2-supported and metallic Ni-doped MgH2 towards enhanced hydrogen storage kinetics and cycling stability
MXene as a hydrogen storage material
Nb-doped layered oxides with P2/O3 biphasic as high-rate, air-stable cathodes for sodium-ion batteries
Reversible hydrogen storage in AlH <sub>3</sub> −LiNH <sub>2</sub> system
Hybrid of bulk NbC and layered Nb4C3 MXene for tailoring the hydrogen storage kinetics and reversibility of Li–Mg–B–H composite: An experimental and theoretical study
Fin structure optimization for improving heat transfer efficiency and hydrogen absorption rate of metal hydride hydrogen storage tank
MXenes as catalysts for lightweight hydrogen storage materials: A review
High cyclic stability and low plateau of Ti2V2Zr/NaH/Al hydrogen storage composite system prepared by ultrasound-assisted ball milling
Exfoliation of compact layered Ti2VAlC2 MAX to open layered Ti2VC2 MXene towards enhancing the hydrogen storage properties of MgH2
Ti <sub>3</sub> AlCN MAX for tailoring MgH <sub>2</sub> hydrogen storage material: from performance to mechanism
Layered niobium carbide enabling excellent kinetics and cycling stability of Li‐Mg‐B‐H hydrogen storage material
Effect of Ti0.9Zr0.1Mn1.5V0.3 alloy catalyst on hydrogen storage kinetics and cycling stability of magnesium hydride
Effect of (Ti0.35V0.65)0.86Fe0.14Hy on synthesis and hydrogen storage properties of NaAlH4
Highly-dispersed nano-TiB2 derived from the two-dimensional Ti3CN MXene for tailoring the kinetics and reversibility of the Li-Mg-B-H hydrogen storage material
Achieving both high hydrogen capacity and low decomposition temperature of the metastable AlH3 by proper ball milling with TiB2
Directed Stabilization by Air-Milling and Catalyzed Decomposition by Layered Titanium Carbide Toward Low-Temperature and High-Capacity Hydrogen Storage of Aluminum Hydride
Cerium hydride generated during ball milling and enhanced by graphene for tailoring hydrogen sorption properties of sodium alanate
Structure and stability of high pressure synthesized MgTM2H6 (TM = Zr, Nb) hydrides