This CNF S material was evaluated as the cathode material in lithium/sulfur cells with three different binders.
Cu-BTC metal organic framework (HKUST-1) was evaluated as the model material for CO2 capture from flue gas streams.
A novel perovskite-type La0.8Sr0.2Sc0.2Mn0.8O3 (LSSM) oxide was synthesized and evaluated as the electrode material of a symmetric solid-oxide fuel cell.
Dual-phase composites of (1 x La0.5Sr0.5CoO3 δ/xLaSrCoO4±δ were designed and evaluated as the cathode materials of solid-oxide fuel cells.
When evaluated as the anode materials for LIBs, the effects of different carbon contents in the as-obtained MoO3/WO2@C nanomaterials on the lithium-ion storage properties are investigated.
Finally, the polymers were evaluated as the donor materials for polymer solar cells, which all presented high open-circuit voltage around 1.0 V, and the branched 3,7-dimethyloctane modified polymer displayed the best performance with a PCE of 2.66% (Voc = 1.01 V, Jsc = 6.71 mandm2 and FF = 0.39).
To investigate the effect of the structure of the core nanomaterials, three different types of CNT networks: a 1D CNT array, a 2D CNT film, and a 3D CNT cluster, were designed and evaluated as the core materials for thermopower wave generation.
The SiMn graphite composite powder was prepared by mechanical ball milling and its electrochemical performances were evaluated as the candidate anode materials for lithium ion batteries.
The reduction in porosity of drainage material is evaluated as the accumulation of clog mass reduces the pore spaces of granular media.
The setting behavior, compressive strength development, and pH variation of the biological coating materials were evaluated as the replacement level of expanded vermiculite that contained bacterial agents varied from 0 to 10%.
