• 专利标题:   Preparing flexible conductive composite material with double non-sensitive corresponding variable and temperature involves using chemical vapor deposition process, high surface density, wavy nickel foam surface growing graphene film.
  • 专利号:   CN113205900-A, CN113205900-B
  • 发明人:   WU Y, WANG L, JIANG N, LI H, NIU K
  • 专利权人:   UNIV BEIJING SCI TECHNOLOGY
  • 国际专利分类:   H01B001/04, H01B001/12, H01B013/00, H01B005/16
  • 专利详细信息:   CN113205900-A 03 Aug 2021 H01B-001/12 202179 Pages: 12 Chinese
  • 申请详细信息:   CN113205900-A CN10394406 13 Apr 2021
  • 优先权号:   CN10394406

▎ 摘  要

NOVELTY - Preparing flexible conductive composite material with double non-sensitive corresponding variable and temperature involves using chemical vapor deposition process, the high surface density, wavy nickel foam surface growing graphene film to obtain wave-shaped nickel/graphene foam, placing the obtained wavy nickel/graphene foam on the sample preparation frame, dropping high elastic high molecular polymer precursor liquid, suspending, solidifying to obtain wave-shaped nickel/graphene/macromolecule conductive composite material, putting the obtained wavy nickel/graphene/polymer composite material into a specific solution, removing the metal nickel in the inner portion to obtain the wavy graphene/macromolecule conductive composite material with hollow pipe structure, and putting the obtained wavy graphene/macromolecule conductive composite material with hollow pipe structure into the conductive polymer solution. USE - Method for preparing flexible conductive composite material with double non-sensitive corresponding variable and temperature. ADVANTAGE - The method enables to prepare flexible conductive composite material with dual insensitive temperature and variable temperature. DETAILED DESCRIPTION - Preparing flexible conductive composite material with double non-sensitive corresponding variable and temperature involves using chemical vapor deposition process, the high surface density, wavy nickel foam surface growing graphene film to obtain wave-shaped nickel/graphenefoam, placing the obtained wavy nickel/graphene foam on the sample preparation frame, dropping high elastic high molecular polymer precursor liquid, suspending, solidifying to obtain wave-shaped nickel/graphene/macromolecule conductive composite material, putting the obtained wavy nickel/graphene/polymer composite material into a specific solution, removing the metal nickel in the inner portion to obtain the wavy graphene/macromolecule conductive composite material with hollow pipe structure, putting the obtained wavy graphene/macromolecule conductive composite material with hollow pipe structure into the conductive polymer solution, making vacuum auxiliary conductive polymer solution enters the graphene foam bone overhead pipe, and using de-ionized water to wash for multiplle times, and using solvent to volatilizes the conductive polymer in the graphene foam framework inner wall film to obtain conductive polymer/graphene/polymer composite material.