The Experts below are selected from a list of 96 Experts worldwide ranked by ideXlab platform
Shiyang Zhang - One of the best experts on this subject based on the ideXlab platform.
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the ternary amide kli3 nh2 4 an important intermediate in the Potassium Compound added li n h systems
ChemInform, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In the study of the KH-added H2 storage system LiH-NH3 (KH-added LiH-LiNH2, KH-added LiNH2, and KNH2-added LiNH2), KLi3(NH2)4 is found to be an important intermediate formed in dehydrogenation and hydrogenation of the KH-added Li-N-H system.
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the ternary amide kli3 nh2 4 an important intermediate in the Potassium Compound added li n h systems
RSC Advances, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In this paper, the KH-added LiH–NH3, KH-added LiH–LiNH2, KH-added LiNH2, and KNH2-added LiNH2 systems were systematically investigated. It was found that the ternary amide KLi3(NH2)4 was an important intermediate that was inclined to be formed in the dehydrogenation and hydrogenation processes of the Potassium Compound-added Li–N–H system. Further investigations revealed that both the solid state reaction of LiNH2 with KNH2 and the solid state reaction of LiNH2 with KH under mechanical ball milling or heat treatment conditions will lead to the formation of the KLi3(NH2)4 ternary amide. Moreover, the ternary amide KLi3(NH2)4 single phase was successfully synthesized by the mechanical ball milling and its ammonia desorption and hydrogenation properties were investigated. It was observed that the ammonia desorption rate of KLi3(NH2)4 was faster than that of LiNH2 and the hydrogen absorption kinetics of KLi3(NH2)4 were between those of KNH2 and LiNH2.
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The ternary amide KLi3(NH2)4: an important intermediate in the Potassium Compound-added Li–N–H systems
RSC Advances, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In this paper, the KH-added LiH–NH3, KH-added LiH–LiNH2, KH-added LiNH2, and KNH2-added LiNH2 systems were systematically investigated. It was found that the ternary amide KLi3(NH2)4 was an important intermediate that was inclined to be formed in the dehydrogenation and hydrogenation processes of the Potassium Compound-added Li–N–H system. Further investigations revealed that both the solid state reaction of LiNH2 with KNH2 and the solid state reaction of LiNH2 with KH under mechanical ball milling or heat treatment conditions will lead to the formation of the KLi3(NH2)4 ternary amide. Moreover, the ternary amide KLi3(NH2)4 single phase was successfully synthesized by the mechanical ball milling and its ammonia desorption and hydrogenation properties were investigated. It was observed that the ammonia desorption rate of KLi3(NH2)4 was faster than that of LiNH2 and the hydrogen absorption kinetics of KLi3(NH2)4 were between those of KNH2 and LiNH2.
Baoxia Dong - One of the best experts on this subject based on the ideXlab platform.
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the ternary amide kli3 nh2 4 an important intermediate in the Potassium Compound added li n h systems
ChemInform, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In the study of the KH-added H2 storage system LiH-NH3 (KH-added LiH-LiNH2, KH-added LiNH2, and KNH2-added LiNH2), KLi3(NH2)4 is found to be an important intermediate formed in dehydrogenation and hydrogenation of the KH-added Li-N-H system.
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the ternary amide kli3 nh2 4 an important intermediate in the Potassium Compound added li n h systems
RSC Advances, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In this paper, the KH-added LiH–NH3, KH-added LiH–LiNH2, KH-added LiNH2, and KNH2-added LiNH2 systems were systematically investigated. It was found that the ternary amide KLi3(NH2)4 was an important intermediate that was inclined to be formed in the dehydrogenation and hydrogenation processes of the Potassium Compound-added Li–N–H system. Further investigations revealed that both the solid state reaction of LiNH2 with KNH2 and the solid state reaction of LiNH2 with KH under mechanical ball milling or heat treatment conditions will lead to the formation of the KLi3(NH2)4 ternary amide. Moreover, the ternary amide KLi3(NH2)4 single phase was successfully synthesized by the mechanical ball milling and its ammonia desorption and hydrogenation properties were investigated. It was observed that the ammonia desorption rate of KLi3(NH2)4 was faster than that of LiNH2 and the hydrogen absorption kinetics of KLi3(NH2)4 were between those of KNH2 and LiNH2.
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The ternary amide KLi3(NH2)4: an important intermediate in the Potassium Compound-added Li–N–H systems
RSC Advances, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In this paper, the KH-added LiH–NH3, KH-added LiH–LiNH2, KH-added LiNH2, and KNH2-added LiNH2 systems were systematically investigated. It was found that the ternary amide KLi3(NH2)4 was an important intermediate that was inclined to be formed in the dehydrogenation and hydrogenation processes of the Potassium Compound-added Li–N–H system. Further investigations revealed that both the solid state reaction of LiNH2 with KNH2 and the solid state reaction of LiNH2 with KH under mechanical ball milling or heat treatment conditions will lead to the formation of the KLi3(NH2)4 ternary amide. Moreover, the ternary amide KLi3(NH2)4 single phase was successfully synthesized by the mechanical ball milling and its ammonia desorption and hydrogenation properties were investigated. It was observed that the ammonia desorption rate of KLi3(NH2)4 was faster than that of LiNH2 and the hydrogen absorption kinetics of KLi3(NH2)4 were between those of KNH2 and LiNH2.
Liang Song - One of the best experts on this subject based on the ideXlab platform.
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the ternary amide kli3 nh2 4 an important intermediate in the Potassium Compound added li n h systems
ChemInform, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In the study of the KH-added H2 storage system LiH-NH3 (KH-added LiH-LiNH2, KH-added LiNH2, and KNH2-added LiNH2), KLi3(NH2)4 is found to be an important intermediate formed in dehydrogenation and hydrogenation of the KH-added Li-N-H system.
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the ternary amide kli3 nh2 4 an important intermediate in the Potassium Compound added li n h systems
RSC Advances, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In this paper, the KH-added LiH–NH3, KH-added LiH–LiNH2, KH-added LiNH2, and KNH2-added LiNH2 systems were systematically investigated. It was found that the ternary amide KLi3(NH2)4 was an important intermediate that was inclined to be formed in the dehydrogenation and hydrogenation processes of the Potassium Compound-added Li–N–H system. Further investigations revealed that both the solid state reaction of LiNH2 with KNH2 and the solid state reaction of LiNH2 with KH under mechanical ball milling or heat treatment conditions will lead to the formation of the KLi3(NH2)4 ternary amide. Moreover, the ternary amide KLi3(NH2)4 single phase was successfully synthesized by the mechanical ball milling and its ammonia desorption and hydrogenation properties were investigated. It was observed that the ammonia desorption rate of KLi3(NH2)4 was faster than that of LiNH2 and the hydrogen absorption kinetics of KLi3(NH2)4 were between those of KNH2 and LiNH2.
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The ternary amide KLi3(NH2)4: an important intermediate in the Potassium Compound-added Li–N–H systems
RSC Advances, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In this paper, the KH-added LiH–NH3, KH-added LiH–LiNH2, KH-added LiNH2, and KNH2-added LiNH2 systems were systematically investigated. It was found that the ternary amide KLi3(NH2)4 was an important intermediate that was inclined to be formed in the dehydrogenation and hydrogenation processes of the Potassium Compound-added Li–N–H system. Further investigations revealed that both the solid state reaction of LiNH2 with KNH2 and the solid state reaction of LiNH2 with KH under mechanical ball milling or heat treatment conditions will lead to the formation of the KLi3(NH2)4 ternary amide. Moreover, the ternary amide KLi3(NH2)4 single phase was successfully synthesized by the mechanical ball milling and its ammonia desorption and hydrogenation properties were investigated. It was observed that the ammonia desorption rate of KLi3(NH2)4 was faster than that of LiNH2 and the hydrogen absorption kinetics of KLi3(NH2)4 were between those of KNH2 and LiNH2.
Yunlei Teng - One of the best experts on this subject based on the ideXlab platform.
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the ternary amide kli3 nh2 4 an important intermediate in the Potassium Compound added li n h systems
ChemInform, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In the study of the KH-added H2 storage system LiH-NH3 (KH-added LiH-LiNH2, KH-added LiNH2, and KNH2-added LiNH2), KLi3(NH2)4 is found to be an important intermediate formed in dehydrogenation and hydrogenation of the KH-added Li-N-H system.
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the ternary amide kli3 nh2 4 an important intermediate in the Potassium Compound added li n h systems
RSC Advances, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In this paper, the KH-added LiH–NH3, KH-added LiH–LiNH2, KH-added LiNH2, and KNH2-added LiNH2 systems were systematically investigated. It was found that the ternary amide KLi3(NH2)4 was an important intermediate that was inclined to be formed in the dehydrogenation and hydrogenation processes of the Potassium Compound-added Li–N–H system. Further investigations revealed that both the solid state reaction of LiNH2 with KNH2 and the solid state reaction of LiNH2 with KH under mechanical ball milling or heat treatment conditions will lead to the formation of the KLi3(NH2)4 ternary amide. Moreover, the ternary amide KLi3(NH2)4 single phase was successfully synthesized by the mechanical ball milling and its ammonia desorption and hydrogenation properties were investigated. It was observed that the ammonia desorption rate of KLi3(NH2)4 was faster than that of LiNH2 and the hydrogen absorption kinetics of KLi3(NH2)4 were between those of KNH2 and LiNH2.
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The ternary amide KLi3(NH2)4: an important intermediate in the Potassium Compound-added Li–N–H systems
RSC Advances, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In this paper, the KH-added LiH–NH3, KH-added LiH–LiNH2, KH-added LiNH2, and KNH2-added LiNH2 systems were systematically investigated. It was found that the ternary amide KLi3(NH2)4 was an important intermediate that was inclined to be formed in the dehydrogenation and hydrogenation processes of the Potassium Compound-added Li–N–H system. Further investigations revealed that both the solid state reaction of LiNH2 with KNH2 and the solid state reaction of LiNH2 with KH under mechanical ball milling or heat treatment conditions will lead to the formation of the KLi3(NH2)4 ternary amide. Moreover, the ternary amide KLi3(NH2)4 single phase was successfully synthesized by the mechanical ball milling and its ammonia desorption and hydrogenation properties were investigated. It was observed that the ammonia desorption rate of KLi3(NH2)4 was faster than that of LiNH2 and the hydrogen absorption kinetics of KLi3(NH2)4 were between those of KNH2 and LiNH2.
Jun Ge - One of the best experts on this subject based on the ideXlab platform.
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the ternary amide kli3 nh2 4 an important intermediate in the Potassium Compound added li n h systems
ChemInform, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In the study of the KH-added H2 storage system LiH-NH3 (KH-added LiH-LiNH2, KH-added LiNH2, and KNH2-added LiNH2), KLi3(NH2)4 is found to be an important intermediate formed in dehydrogenation and hydrogenation of the KH-added Li-N-H system.
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the ternary amide kli3 nh2 4 an important intermediate in the Potassium Compound added li n h systems
RSC Advances, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In this paper, the KH-added LiH–NH3, KH-added LiH–LiNH2, KH-added LiNH2, and KNH2-added LiNH2 systems were systematically investigated. It was found that the ternary amide KLi3(NH2)4 was an important intermediate that was inclined to be formed in the dehydrogenation and hydrogenation processes of the Potassium Compound-added Li–N–H system. Further investigations revealed that both the solid state reaction of LiNH2 with KNH2 and the solid state reaction of LiNH2 with KH under mechanical ball milling or heat treatment conditions will lead to the formation of the KLi3(NH2)4 ternary amide. Moreover, the ternary amide KLi3(NH2)4 single phase was successfully synthesized by the mechanical ball milling and its ammonia desorption and hydrogenation properties were investigated. It was observed that the ammonia desorption rate of KLi3(NH2)4 was faster than that of LiNH2 and the hydrogen absorption kinetics of KLi3(NH2)4 were between those of KNH2 and LiNH2.
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The ternary amide KLi3(NH2)4: an important intermediate in the Potassium Compound-added Li–N–H systems
RSC Advances, 2014Co-Authors: Baoxia Dong, Liang Song, Jun Ge, Yunlei Teng, Shiyang ZhangAbstract:In this paper, the KH-added LiH–NH3, KH-added LiH–LiNH2, KH-added LiNH2, and KNH2-added LiNH2 systems were systematically investigated. It was found that the ternary amide KLi3(NH2)4 was an important intermediate that was inclined to be formed in the dehydrogenation and hydrogenation processes of the Potassium Compound-added Li–N–H system. Further investigations revealed that both the solid state reaction of LiNH2 with KNH2 and the solid state reaction of LiNH2 with KH under mechanical ball milling or heat treatment conditions will lead to the formation of the KLi3(NH2)4 ternary amide. Moreover, the ternary amide KLi3(NH2)4 single phase was successfully synthesized by the mechanical ball milling and its ammonia desorption and hydrogenation properties were investigated. It was observed that the ammonia desorption rate of KLi3(NH2)4 was faster than that of LiNH2 and the hydrogen absorption kinetics of KLi3(NH2)4 were between those of KNH2 and LiNH2.