Fabrication of 3D porous CoTiO3 photocatalysts for hydrogen evolution application: Preparation and properties study

Primary graphitization of multi-functional dihydropyridine, a novel method for reconstructing a TiO2 surface to obtain high photocatalytic activity for hydrogen peroxide synthesis

“…The difference in electron transfer numbers at low potential and high potential indicates that there are two different ORR processes, but the two-electron process is the primary one. Compared with TiO 2 , which usually undergoes a four-electron ORR, 69,70 the catalyst modied by ACMD is essentially different, which is very conducive to the two-electron process to obtain H 2 O 2 .…”

Recent Achievements and Future Challenges in Nanoscience and Nanotechnology

“…Moreover, the yield of hydrogen under photocatalytic decomposition of the water-methanol mixture increased to 344.67 µmol h -1 g -1 for SrTiO 3 / PAN/Fe 2 O 3 , 398.3 µmol h -1 g -1 for SrTiO 3 /PAN/ Cr 2 O and 420.82 µmol h -1 g -1 for SrTiO 3 /PAN/CuO based photocatalysts. In [60], the authors proposed the formation of multilayered 3D photocatalyst based on CoTiO 3 with a multilayered structure by mixing Co 3 O 4 and TiO 2 powders with the addition of a pore-forming agent. The calcined at different temperatures Co 3 O 4 photocatalysts are presented by a multilayered structure with different porosity.…”

Porous Nickel Based Half-Cell Solid Oxide Fuel Cell and Thin-Film Yttria-Stabilized Zirconia Electrolyte

“…Today, economically competitive SOFC systems already exist, apparently ready for commercialization, but the widespread penetration of the technology into the market requires constant innovation of materials and manufacturing processes to increase the system service life and reduce the costs [9]. Among the numerous types of FC, such as alkaline FC [10,11], FCs with proton-exchange membrane [12][13][14], FCs based on carbon compounds [15,16], solid oxide fuel cells (SOFCs) based on oxygen-conducting solid electrolytes, which have a high efficiency (up to 60%) and can use not only pure hydrogen but also various hydrocarbons as a fuel, should be highlighted. The main structural components of these SOFCs are porous electrodes (anode and cathode) and a solid gas-tight electrolyte (ZrO 2 : Y 2 O 3 (YSZ)) located between them [1].…”

“…The main advantage of the SOFCs over other FCs is that they are characterized by high efficiency and possess the ability to convert chemical fuel directly into electrical and thermal energy without the use of expensive catalysts [16]. Various types of fuel, such as hydrogen or natural gases, can be used in the operation of the SOFCs [17].…”

“…Water and CO 2 are the main reaction products on the anode part. The known most effective material for the creation of anodes is the so-called "cermet", which is a composite based on Ni (or NiO) and YSZ [9,[8][9][10][11][12][13][14][15][16][17][18][19][20].…”