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Features of Hydride Synthesis
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Lithium, sodium, and titanium hydrides have been synthesized. It has been found that lithium hydride is formed at a temperature of 650-700°C and a pressure of 12 atm. Lithium hydride contains 11 mass.% of hydrogen. Hydrogen desorption from lithium hydride occurs at a temperature of 700°C. Lithium hydride decomposes in water to form lithium hydroxide and hydrogen. Sodium hydride is formed at a temperature of 300-450°C with a hydrogen absorption level of up to 4 mass%. Hydrogen desorption from sodium hydride occurs at a temperature of 350-400°C. Titanium hydride is formed at a temperature of 600-650°C with a hydrogen absorption level of up to 4 mass%. Hydrogen desorption from sodium hydride occurs at a temperature of 450-650°C. Lithium, sodium, and titanium hydrides can be used in hydrogen storage and transportation processes.
Syncsci Publishing Pte., Ltd.
Title: Features of Hydride Synthesis
Description:
Lithium, sodium, and titanium hydrides have been synthesized.
It has been found that lithium hydride is formed at a temperature of 650-700°C and a pressure of 12 atm.
Lithium hydride contains 11 mass.
% of hydrogen.
Hydrogen desorption from lithium hydride occurs at a temperature of 700°C.
Lithium hydride decomposes in water to form lithium hydroxide and hydrogen.
Sodium hydride is formed at a temperature of 300-450°C with a hydrogen absorption level of up to 4 mass%.
Hydrogen desorption from sodium hydride occurs at a temperature of 350-400°C.
Titanium hydride is formed at a temperature of 600-650°C with a hydrogen absorption level of up to 4 mass%.
Hydrogen desorption from sodium hydride occurs at a temperature of 450-650°C.
Lithium, sodium, and titanium hydrides can be used in hydrogen storage and transportation processes.
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