4results about How to "Prevent electrostatic discharge" patented technology

The utility model relates to the technical field of whole-body safety belts, in particular to a whole-body safety belt with an anti-static function, which comprises a waist bandage, a chest bandage and an extension ring, the chest bandage is arranged above the waist bandage, the bottom of the chest bandage is connected with the top of the waist bandage in a sewing mode, and the extension ring is arranged on the waist bandage. A fixing bandage is arranged at the bottom of the waist bandage, a leg bandage is arranged at the bottom of the fixing bandage, the interior of the leg bandage is connected with the extension ring in an embedded mode, fluff on the bandage is prevented from directly rubbing a user to generate static electricity, meanwhile, a static bracelet is arranged, the static bracelet is fixed to the wrist of the user, and therefore the static electricity can be effectively prevented from being generated. The electrostatic bracelet is in contact with the skin of a user, so that the human body and the whole-body safety belt are at the same potential, the potential difference between the human body and the equipment is eliminated, electrostatic discharge is prevented, static electricity generated after long-term use is effectively prevented, and the safety of the device is embodied.

This utility model relates to the field of power facility technology, and in particular to a PE and PVC blended structural wall pipe. The technical solution includes: a pipe body and an overhead ring. The pipe body is composed of a non-toxic bitter layer, a hardened layer, a composite layer, a core, and an antistatic coating. The non-toxic bitter layer, hardened layer, composite layer, core, and antistatic coating are arranged sequentially from the outside to the inside. The outer ring surface of the overhead ring is equidistantly fixed with ball seats, and rolling balls are rotatably mounted on the ball seats, rolling in contact with the inner wall of the pipe body. This utility model, through the synergistic design of a multi-layered composite protective pipe body and a ball-supported overhead ring, achieves an integrated cable protection structure that is rodent-proof, abrasion-proof, antistatic, and has high-strength compressive strength, significantly improving the safety and durability of cable laying.

This invention discloses a DNTF@Ni3(HHTP)2 composite energetic material with electrostatic dissipation characteristics and its preparation method, comprising: dispersing DNTF in water and stirring to obtain a DNTF dispersion; adding a nickel acetate tetrahydrate solution to the DNTF dispersion and stirring to obtain a mixed solution system; adding an aqueous dispersion of HHTP organic ligands to the mixed solution system and stirring to obtain a mixed solution system; after the reaction, performing solid-liquid separation, washing, and drying to obtain the DNTF@Ni3(HHTP)2 composite energetic material with electrostatic dissipation characteristics. This invention utilizes Ni3(HHTP)2 material with high conductivity and, through process control, forms a conductor with rod-like structure on the surface of DNTF, forming an effective conductive path. The volume resistivity of the composite energetic material reaches the electrostatic dissipation range, effectively promoting the dissipation of accumulated static electricity and improving the electrostatic safety of the powder energetic material.

The application relates to a UTG-based solar cell substrate and a solar cell. The UTG-based solar cell substrate comprises a connecting layer, a first UTG substrate layer, a growth substrate layer and an epitaxial growth layer. The connecting layer is arranged on one side of the first UTG substrate layer. The growth substrate layer is arranged on the side, away from the connecting layer, of the first UTG substrate layer. The growth substrate layer comprises at least one of a copper layer, an iridium layer, a hexagonal boron nitride layer and a silicon carbide layer, and the epitaxial growth layer comprises a graphene layer arranged on the side, away from the first UTG substrate layer, of the growth substrate layer. The UTG substrate layer has excellent characteristics such as high light transmittance, high barrier property, atomic oxygen resistance, radiation resistance and bendability. The growth substrate layer has good heat conduction performance. The graphene layer can be epitaxially grown on the growth substrate layer easily, and the graphene layer has high infrared emission performance and high conductivity, can realize passive and efficient heat dissipation, avoid accumulation of static electricity, and prevent the internal circuit of the battery from being broken.