Effect of La3+and Ni2+ substitution on Sr1-xLaxFe12-yNiyO19 hexaferrite structural, magnetic, and dielectric properties

Solvothermal synthesis and supercapacitive properties of highly electrochemical stable covalent organic frameworks with triazine building block

“…As a special type of conducting polymer with similar covalent structure, COFs can promote electron delocalization and thus exhibit better electrical conductivity. At present, COFs are widely used in gas storage and separation, 19–21 heterogeneous catalysis, 22–24 sensors, 25–27 semiconductors, 17,28,29 electrochromic 30–32 and other fields. Furthermore, COFs are one of the candidates for electrode materials for supercapacitors due to their redox activity with adjustable topological structure and high crystallization 33 …”

Preparation of SiO2/Si3N4ws/PU reinforced coating and its reinforcement mechanism for SLS‐molded TPU materials

“…Its excellent strength and hardness as well as other properties, including thermal conductivity, corrosion resistance and wear resistance, make it widely used in the field of filler reinforcement materials. Considering its poor biocompatibility, research on the application of filler‐reinforced polymers has focused on the surface modification of their fillers by inorganic and organic coatings 20–29 …”

“…Considering its poor biocompatibility, research on the application of filler-reinforced polymers has focused on the surface modification of their fillers by inorganic and organic coatings. [20][21][22][23][24][25][26][27][28][29] In previous reports, for inorganic surface modification to increase the roughness of the surface of the reinforcing filler, silica grafting according to the hydrolytic condensation of TEOS has been studied extensively, while Si 3 N 4 ws has not been subjected to such modification applications for reinforcing filler materials. 4 To improve the surface compatibility of the material, coupling agent modification is considered an effective means.…”

Capacitors based on PEDOT nanowire electrodeposits

“…[2][3][4][5] During the last few years, the study of new materials for the improvement of capacitive properties has led nanostructures to play a fundamental role since the increase in the electro-active area has shown interesting results. [6][7][8][9] Among materials that have attracted a lot of attention are conducting polymers, CP, whose properties have allowed the development of different devices, such as biomolecules (e.g., enzymes and bacteria), [10][11][12][13][14][15] nanoparticles, 16 separation/storage of target gas, 17 electrochemical sensors, 18,19 rechargeable batteries, 6,20,21 and capacitors. 6,[22][23][24][25][26] It is important to note that CP-based energy storage is achieved through its doping/undoping process.…”

“…During the last few years, the study of new materials for the improvement of capacitive properties has led nanostructures to play a fundamental role since the increase in the electro‐active area has shown interesting results 6–9 …”