Evolution of magnesium during reactive milling under hydrogen atmosphere with crystallitic carbon as milling aid

•Shape of β-MgH2 nanoparticles from milling of Mg with H2 is oblique hexagonal prism.•Size increase of Mg particles from MgH2 dehydriding can be restrained by carbon.•Endothermic peak of γ-MgH2 is 53°C lower than that of β-MgH2 from 10 to 20h milling.•Heat absorption of γ-MgH2 dehydriding is 18kJ/mo...

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Published inJournal of alloys and compounds Vol. 581; pp. 472 - 478
Main Authors Zhou, Shixue, Zhang, Qianqian, Ran, Weixian, Han, Zongying, Niu, Haili, Han, Shuna, Cui, Liqiang, Zhang, Tonghuan, Chen, Haipeng, Liu, Di
Format Journal Article
LanguageEnglish
Published Kidlington Elsevier B.V 25.12.2013
Elsevier
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Abstract •Shape of β-MgH2 nanoparticles from milling of Mg with H2 is oblique hexagonal prism.•Size increase of Mg particles from MgH2 dehydriding can be restrained by carbon.•Endothermic peak of γ-MgH2 is 53°C lower than that of β-MgH2 from 10 to 20h milling.•Heat absorption of γ-MgH2 dehydriding is 18kJ/mol H2 lower than that of β-MgH2. This paper is concerned with the changes of morphology, crystal structure and hydrogen storage properties of magnesium during reactive milling under hydrogen atmosphere with crystallitic carbon, which is prepared from anthracite coal by demineralization and carbonization, as milling aid. Experiments show that β-MgH2 of tetrahedral crystal structure with particle size of 20–60nm and geometric shape of oblique hexagonal prism predominates in the material from 3h of milling under 1MPa H2. Besides, there is γ-MgH2 of orthorhombic crystal structure in the materials from milling. The Mg particles from MgH2 dehydriding take the shape of right hexagonal prism. The carbon can prevent Mg particles from coalescing into big bulk during heating for hydrogen releasing. The endothermic peak of γ-MgH2 is 53°C lower than that of β-MgH2 in the materials from 10 to 20h of milling, and its heat absorption for dehydriding is 18kJ/mol H2 lower than that of β-MgH2.
AbstractList This paper is concerned with the changes of morphology, crystal structure and hydrogen storage properties of magnesium during reactive milling under hydrogen atmosphere with crystallitic carbon, which is prepared from anthracite coal by demineralization and carbonization, as milling aid. Experiments show that beta-MgH(2) of tetrahedral crystal structure with particle size of 20-60 nm and geometric shape of oblique hexagonal prism predominates in the material from 3 h of milling under 1 MPa H(2). Besides, there is gamma-MgH(2) of orthorhombic crystal structure in the materials from milling. The Mg particles from MgH(2) dehydriding take the shape of right hexagonal prism. The carbon can prevent Mg particles from coalescing into big bulk during heating for hydrogen releasing. The endothermic peak of gamma-MgH(2) is 53 degree C lower than that of beta-MgH(2) in the materials from 10 to 20 h of milling, and its heat absorption for dehydriding is 18 kJ/mol H(2) lower than that of beta-MgH(2).
•Shape of β-MgH2 nanoparticles from milling of Mg with H2 is oblique hexagonal prism.•Size increase of Mg particles from MgH2 dehydriding can be restrained by carbon.•Endothermic peak of γ-MgH2 is 53°C lower than that of β-MgH2 from 10 to 20h milling.•Heat absorption of γ-MgH2 dehydriding is 18kJ/mol H2 lower than that of β-MgH2. This paper is concerned with the changes of morphology, crystal structure and hydrogen storage properties of magnesium during reactive milling under hydrogen atmosphere with crystallitic carbon, which is prepared from anthracite coal by demineralization and carbonization, as milling aid. Experiments show that β-MgH2 of tetrahedral crystal structure with particle size of 20–60nm and geometric shape of oblique hexagonal prism predominates in the material from 3h of milling under 1MPa H2. Besides, there is γ-MgH2 of orthorhombic crystal structure in the materials from milling. The Mg particles from MgH2 dehydriding take the shape of right hexagonal prism. The carbon can prevent Mg particles from coalescing into big bulk during heating for hydrogen releasing. The endothermic peak of γ-MgH2 is 53°C lower than that of β-MgH2 in the materials from 10 to 20h of milling, and its heat absorption for dehydriding is 18kJ/mol H2 lower than that of β-MgH2.
This paper is concerned with the changes of morphology, crystal structure and hydrogen storage properties of magnesium during reactive milling under hydrogen atmosphere with crystallitic carbon, which is prepared from anthracite coal by demineralization and carbonization, as milling aid. Experiments show that I2-MgH2 of tetrahedral crystal structure with particle size of 20a60 nm and geometric shape of oblique hexagonal prism predominates in the material from 3 h of milling under 1 MPa H2. Besides, there is I3-MgH2 of orthorhombic crystal structure in the materials from milling. The Mg particles from MgH2 dehydriding take the shape of right hexagonal prism. The carbon can prevent Mg particles from coalescing into big bulk during heating for hydrogen releasing. The endothermic peak of I3-MgH2 is 53 degree C lower than that of I2-MgH2 in the materials from 10 to 20 h of milling, and its heat absorption for dehydriding is 18 kJ/mol H2 lower than that of I2-MgH2.
Author Han, Zongying
Niu, Haili
Zhang, Qianqian
Cui, Liqiang
Chen, Haipeng
Liu, Di
Ran, Weixian
Han, Shuna
Zhou, Shixue
Zhang, Tonghuan
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Keywords Crystal phase
Magnesium hydride
Microstructure
Reactive milling
Particle size
Hydrogen storage
Solubility
Controlled atmospheres
Desorption
Carbon
Heat treatments
Carbonization
Hexagonal lattices
Orthorhombic lattices
Magnesium
Crystal morphology
Orthorhombic crystals
Dehydridation
Crystal structure
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Snippet •Shape of β-MgH2 nanoparticles from milling of Mg with H2 is oblique hexagonal prism.•Size increase of Mg particles from MgH2 dehydriding can be restrained by...
This paper is concerned with the changes of morphology, crystal structure and hydrogen storage properties of magnesium during reactive milling under hydrogen...
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SubjectTerms Applied sciences
Atmospheres
Carbon
Chemical and electrochemical properties
Coal
Condensed matter: structure, mechanical and thermal properties
Crystal phase
Crystal structure
Energy
Energy. Thermal use of fuels
Equations of state, phase equilibria, and phase transitions
Exact sciences and technology
Heating
Hydrogen storage
Magnesium
Magnesium hydride
Materials and auxiliary equipments used in energy engineering
Metals. Metallurgy
Microstructure
Physics
Prisms
Reactive milling
Solubility, segregation, and mixing; phase separation
Structure of solids and liquids; crystallography
Structure of specific crystalline solids
Title Evolution of magnesium during reactive milling under hydrogen atmosphere with crystallitic carbon as milling aid
URI https://dx.doi.org/10.1016/j.jallcom.2013.07.091
https://www.proquest.com/docview/1475561054
https://www.proquest.com/docview/1513465844
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