Fabrication of P-doped Co9S8/g-C3N4 heterojunction for excellent photocatalytic hydrogen evolution

Amorphous CoSx decorated Cd0.5Zn0.5S with a bulk-twinned homojunction for efficient photocatalytic hydrogen evolution

“…obtained from the formula E g = E VB − E CB that the VB position of T-CZS is 2.04 V (vs. RHE). 7,36 On account of the VB position of T-CZS, it is more positive than the standard oxidation potential of OH − /˙OH (1.99 eV), OH − can be oxidized to ˙OH by the holes on the VB of T-CZS. In order to further explore the mechanism, the samples were characterized by electron paramagnetic resonance (EPR) as shown in Fig.…”

“…Combined with the UV absorption spectrum and MS curve, it can be obtained from the formula E g = E VB − E CB that the VB position of T-CZS is 2.04 V ( vs. RHE). 7,36…”

“…35 At present, CoS has been attracting much attention for its distinguished photoelectrochemical properties; it has been widely employed in the field of electrocatalytic and photocatalytic water splitting, as well as supercapacitors. [36][37][38] CoS provides not only the active sites for H 2 evolution reaction (HER) but also operates as an electron collector, promoting directional transfer of surface charge carriers by the Schottky junction effect. For instance, Li et al improved the charge separation efficiency of NiMoO 4 by loading a small amount of CoS, and the H 2 production rate was 3.23 times higher than that of pure NiMoO 4 .…”

Ni2P NPs loaded on methylthio-functionalized UiO-66 for boosting visible-light-driven photocatalytic H2production

“…Artificial photosynthesis is a great approach for generating sustainable energy by turning solar energy into chemical energy for storage. 8 Photocatalytic hydrogen evolution is a promising strategy for converting solar energy into hydrogen energy, [9][10][11] which not only can address the energy crisis but also resolve growing ecological threats. Photocatalytic water splitting 12 to generate H 2 relies on the development of high-performance, low-cost photocatalysts.…”

Preparation of artificial graphite coated with sodium alginate as a negative electrode material for lithium-ion battery study and its lithium storage properties

“…The special structure of carbon atoms in the crystal layer is hexagonal by covalent combination and Van Der Waals force combination between the layers, so that lithium ions can be reversible in the layers of graphite crysta. The reversible process makes graphite material also reversible, so graphite occupies a dominant position in anode materials [15][16][17] .At present, the preparation process of commercial graphite is mainly improved through spheroidization [18] , coated [19] and doping [20] .Although the spheroidization process is relatively mature, it is difficult to significantly improve…”