Synthesis and evaluation of ATO as a support for Pt–IrO2 in a unitized regenerative fuel cell

Electrochemical performance of a Sb-doped SnO2 support synthesized by coprecipitation for oxygen reactions

“…Previous studies on the relationship between the annealing time and the electrochemical performance of ATO showed that a short time of heat treatment results in a better performance [16,46]. In a previous report, it was shown that only 3 h of calcination are required to obtain an adequate ATO material as a support for IrO 2 electrocatalysts.…”

“…, its electrical conductivity increases to 10 2 or 10 3 X -1 cm -1 [13][14][15]. Several studies indicate that the ATO could be used as a catalyst support for OER and ORR in a water electrolyzer (WE) and FCs, with a reported improvement in the stability of the support compared with an undoped oxide under the conditions of oxygen evolution [12,13,[16][17][18][19][20][21][22].…”

Preparation of IrO2 nanoparticles with SBA-15 template and its supported Pt nanocomposite as bifunctional oxygen catalyst

“…In the structure design of Pt/IrO 2 catalyst, great efforts were spent on increasing the specific surface areas of IrO 2 and Pt catalysts so as to achieve high OER and ORR activities [13]. Thus high surface area of IrO 2 is first created, and then Pt nanoparticles are supported onto IrO 2 surface with high level of dispersion [14,15]. The overall performance of bifunctional Pt/IrO 2 catalyst depends on the material states of IrO 2 and Pt catalysts, and essentially, the behavior of Pt catalyst is also associated with the existent morphology of IrO 2 support (also as OER catalyst).…”

Antimony doped tin oxide applied in the gas diffusion layer for proton exchange membrane fuel cells

“…2. As indicated, the change of CV curves of ATO before and after oxidation was smaller than that of XC-72 carbon powder, which again showed the high electrochemical stability of ATO [25].…”