Hydride formation rates of titanium-based b.c.c. solid solution alloys

Effects of desorption temperature and substitution of Fe for Cr on the hydrogen storage properties of Ti0.32Cr0.43V0.25Ti0.32Cr0.43V0.25 alloy

“…Of the various materials under consideration, some of bcc solid solution alloys look more promising than others. Since the pioneering work of Libowitz et al [1][2][3], many researchers have studied and improved the bcc solid solution alloys for hydrogen storage [4][5][6][7][8][9]. They show excellent volumetric hydrogen storage density and high reactivity with hydrogen at reasonably low temperature.…”

The study on binary Mg–Co hydrogen storage alloys with BCC phase

“…Many amorphous or nano-crystalline Mg-based alloys were hereby obtained to improve their gaseous or electrochemical hydrogen storage properties. Meanwhile, previous studies including those of our group showed experimentally that the BCC structure has more room for hydrogen accommodation in the lattice [5][6][7][8][9][10], because the BCC structure possesses lower density than the conventional intermetallic hydrogen absorbing alloys that have usually closer packed structures. Ti-Cr-V "Laves phase related BCC solid solution" alloy absorbed and desorbed hydrogen at room temperature [9,10] and the hydrogen capacity reached at around 3 mass%.…”

Hydrogenation properties and crystal structures of Ti−Mn-V BCC solid solution alloys

“…Before the Laves phase related BCC solid solution was proposed, only a few reports on hydrogen absorbing properties of BCC alloys could be found in the literature [6][7][8]. However, the hydrogen capacity of the BCC metals and alloys was recognized to be large in the hydrogen-metal ratio.…”