国家/地区 美国（45） 中国（42） 德国（34）
IPC部 H（39） B（14） C（12）
IPC大类 H01（37） C01（5） B29（4）
B60（4） B82（4） C08（4）
B32（3） B22（2） C09（2）
H05（2）
IPC小类 H01M（36） H01G（8） B82Y（4）
C01B（4） C08K（4） B29C（3）
B32B（3） B22F（2） B60L（2）
C08L（2） H05B（2）
IPC H01M010/0525（30） H01M004/62（18） H01M004/36（14）
H01M004/04（10） H01M004/134（9） H01M010/0562（9）
H01M010/42（9） H01M004/131（8） H01M004/38（8）
H01M004/13（7） H01M004/133（7） H01M004/139（7）
H01M004/66（7） H01M010/052（7） H01G011/46（6）
发明人 LIU H（16） XIAO X（12） LI Z（10）
HUANG X（9） LU Y（9） KONG D（8）
QUE X（7） VERBRUGGE M W（7） WU M（6）
CAI M（5） HOU M（5） SU Q（5）
ELLISON N（4） LU H（4） RICH D G（4）
公开年 2022（14） 2021（13） 2023（7） 2010（2） 2012（2） 2013（2）
申请年 2021（12）  2019（9）  2022（8）  2020（7）  2012（3）  2008（2）  2010（2） 
专利权人 GM GLOBAL TECHNOLOGY OPERATIONS INC（46）

Electrode used for electrochemical cell i.e. lithium-ion battery for use in consumer product, comprises second electroactive material containing phosphatecontaining positive electroactive material, and third electroactive material containing lithium manganese oxide (LMO) and polymeric binder.

VERBRUGGE M W, HUANG X, FRIEBERG B R

Method for making thick multilayer electrode of i.e. lithium-ion battery, involves forming thick multilayer electrode on current collector by forming electrode units to form electrode stack on current collector, and arranging layer of conductive interface material with set of graphene nanoparticles.

KERRIGAN M M, HUANG X, JIANG M, KERRIGAN M M M

Method of making a prelithiated, layered anode material, involves contacting an ionic compound and a lithium precursor in an environment, where ionic compound is 3D layered material, and 2D layered material is formed, and lithium ions is introduced from lithium precursor into interlayer spaces.

BOBEL A C, CAIN J D, MAO L, TAICHIANG Y P, YU P T

Positive electrode for electrochemical cell, includes positive electrode active material particles, polymeric binder, polymeric dispersant and preset content of combination of electrically conductive carbon additives comprising carbon black particles, graphene nanoplates and carbon nanotubes.

KOESTNER R J, ELLISON N, HUANG X, FRIEBERG B R

Anode-free solid-state battery used for electrochemical energy storage devices as lithium-ion batteries, comprises charging battery extracts anode elements from cathode layer and discharging battery returns anode elements, gelled solid-state electrolyte layer from current collector to cathode layer.

VERBRUGGE M W, QUE X, SU Q, LIU H, LU Y, LI Z, ZHE L

Making functional lithium-exchanged zeolite particles for electrochemical cell comprises mixing solution containing ammonium phosphate and lithium ion exchanged zeolite particles and adding polymeric binder and lithium salt to first mixture.

XIAO X, CAI M

Manufacture of unit cell used for all-solid-state battery, involves aligning electrode comprising electroactive material layers on detachable substrate and electrode comprising electroactive material layers on current collector, arranging electrolyte layer between electrodes, and removing substrate.

SU Q, HOU M, LI Z, LU H, LIU H

Solid-state electrochemical cell used as all-solid-state lithium-ion battery, comprises solid electrolyte forming major surface, negative electrode forming major surface, and interface layer comprising ionic conductor arranged in organic matrix.

CHEN M, XIAO X

Method of manufacturing negative electrode for electrochemical cell of lithium secondary battery, involves removing portion of nonpolar organic solvent from precursor layer to form negative electrode layer on surface of substrate.

FRIEBERG B R, ELLISON N, HUANG X, LIU Z

Conductive electrode filler precursor dispersion has carbon-based conductive particle that is selected from group of graphene nanoplates, carbon nanofibers, carbon nanotubes or combinations.

KOESTNER R J, LUONG A, HUANG X, LONG A, KESTNER R J