Phase Separation Tendencies of Aluminum‐Doped Transition‐Metal Oxides  ( LiAl1 − x  M  x  O 2 )  in the α ‐ NaFeO2 Crystal Structure

1999 ◽  
Vol 146 (12) ◽  
pp. 4335-4338 ◽  
Author(s):  
S. Buta ◽  
D. Morgan ◽  
A. Van der Ven ◽  
M. K. Aydinol ◽  
G. Ceder
2018 ◽  
Author(s):  
Michael Gaultois ◽  
Matthew T Dunstan ◽  
Adam W Bateson ◽  
Martin Chan ◽  
Clare P Grey

<div>This work describes the experimental characterisation and CO<sub>2</sub> sorption properties of several new ternary transition metal oxides predicted by high-throughput DFT screening. One material reported here, Li<sub>5</sub>SbO<sub>5</sub>, displays reversible CO<sub>2</sub> sorption, and maintains ~72% of its theoretical capacity out to 25 cycles. <br></div><div>The results in this work are used to discuss major influences on CO<sub>2</sub> absorption capacity and rate, including the role of the crystal structure, the transition metal, the alkali or alkaline earth metal, and the competing roles of thermodynamics and kinetics. </div><div>Notably, this work shows the extent and rate to which ternary metal oxides carbonate is driven primarily by the identity of the alkali or alkaline earth ion and the nature of the crystal structure, whereas the identity of the transition ion carries little influence in the systems studied here.</div>


2018 ◽  
Author(s):  
Michael Gaultois ◽  
Matthew T Dunstan ◽  
Adam W Bateson ◽  
Martin Chan ◽  
Clare P Grey

<div>This work describes the experimental characterisation and CO<sub>2</sub> sorption properties of several new ternary transition metal oxides predicted by high-throughput DFT screening. One material reported here, Li<sub>5</sub>SbO<sub>5</sub>, displays reversible CO<sub>2</sub> sorption, and maintains ~72% of its theoretical capacity out to 25 cycles. <br></div><div>The results in this work are used to discuss major influences on CO<sub>2</sub> absorption capacity and rate, including the role of the crystal structure, the transition metal, the alkali or alkaline earth metal, and the competing roles of thermodynamics and kinetics. </div><div>Notably, this work shows the extent and rate to which ternary metal oxides carbonate is driven primarily by the identity of the alkali or alkaline earth ion and the nature of the crystal structure, whereas the identity of the transition ion carries little influence in the systems studied here.</div>


2018 ◽  
Vol 20 (20) ◽  
pp. 13734-13746
Author(s):  
Daniel T. Bowron ◽  
Jonathan Booth ◽  
Nathan S. Barrow ◽  
Patricia Sutton ◽  
Simon R. Johnson

Low levels of transition metal oxides in alkali borosilicate glass systems can drastically influence crystallisation and phase separation properties.


2017 ◽  
Author(s):  
Michael Gaultois ◽  
Matthew T Dunstan ◽  
Adam W Bateson ◽  
Martin Chan ◽  
Clare P Grey

<div>This work describes the experimental characterisation and CO<sub>2</sub> sorption properties of several new ternary transition metal oxides predicted by high-throughput DFT screening. One material reported here, Li<sub>5</sub>SbO<sub>5</sub>, displays reversible CO<sub>2</sub> sorption, and maintains ~72% of its theoretical capacity out to 25 cycles. <br></div><div>The results in this work are used to discuss major influences on CO<sub>2</sub> absorption capacity and rate, including the role of the crystal structure, the transition metal, the alkali or alkaline earth metal, and the competing roles of thermodynamics and kinetics. </div><div>Notably, this work shows the extent and rate to which ternary metal oxides carbonate is driven primarily by the identity of the alkali or alkaline earth ion and the nature of the crystal structure, whereas the identity of the transition ion carries little influence in the systems studied here.</div>


2021 ◽  
Author(s):  
Guowei Zhou ◽  
Huihui Ji ◽  
Zhi Yan ◽  
Penghua Kang ◽  
Zhilan Li ◽  
...  

The dimensionality of the crystal structure plays a vital role in the artificial heterostructures composed of different transition metal oxides. Nonlinear layer-thickness dependence of exchange bias effect was observed in...


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