国家/地区 美国（88）
IPC部 C（88）
IPC大类 C01（88） H01（59） B82（43）
B01（20） C09（18） C23（16）
C08（10） C25（9） B32（7）
C07（6） H05（6） B05（5）
C04（4） G01（4） A61（3）
IPC小类 C01B（88）
IPC C01B032/18（88）
发明人 TAMAKI E（7） HASEGAWA S（4） HASEGAWA SHOJI（4）
KAMIYA N（4） KAMIYA NAGISA（4） KAWASAKI M（4）
LICHT S（4） MATSUMOTO T（4） MIHASHI F（4）
MITSUHASHI F（4） SAKAI T（4） TATENO Y（4）
TODORIKI H（4） TODOROKI H（4） UENO M（4）
公开年 2015（30） 2017（19） 2013（8） 2014（7） 2016（5） 2021（5） 2012（4） 2018（4） 2023（4）
申请年 2014（22）  2016（14）  2013（13）  2015（12）  2012（7）  2017（7）  2021（4）  2022（4）  2020（2） 
专利权人 SEMICONDUCTO.（9） TORAY IND IN.（7） TOSHIBA KK（5） C2CNT LLC（4）
GRAPHENE PLA.（4） SUMITOMO ELE.（4） TOKYO ELECTR.（4） CARBON NANO .（3）
FUJITSU LTD（3） SHENZHEN CAN.（3） TODORIKI H（3） UNIV TOHOKU（3）
BASF CHINA C.（2） BASF SE（2） BOEING CO（2） GRAPHENE PLA.（2）
GUO S（2） LG CHEM CO L.（2） LG CHEM LTD（2） MAX PLANCK G.（2）

Preparing carbon nanomaterial product for medical device, structural enhancement additive, strength enhancement additive, electrical conductivity enhancement additive, involves heating electrolyte media to obtain molten electrolyte media.

LICHT G, LICHT S

Preparing carbon nanomaterial product for medical device, structural enhancement additive, and strength enhancement additive, involves heating electrolyte media to obtain molten electrolyte media, positioning molten electrolyte media between high-nickel content anode and cathode of electrolytic cell.

LICHT G, LICHT S

Producing macro-assembly product for nano-filtration, involves heating electrolyte media to obtain molten electrolyte media, positioning molten electrolyte media between anode and cathode of electrolytic cell, introducing source of carbon into electrolytic cell.

LICHT G, LICHT S

Manufacturing electrostatic self-assembled silicon/reduced graphene oxide (rGO)/carbon nanofibers composite as anode materials for lithium-ion battery, involves obtaining silicon (Si)-(3-aminopropyl)triethoxysilane (APTES) solution by adding predetermined silicon nanoparticles to piranha solution.

CONG R, LEE C S, LEECHANGSUP, FEMALE T

Preparation of carbon nanochains for electronic devices, involves pyrolyzing mixture of feedstock which is biomass and/or carbonaceous material, and a catalyst containing transition metal salt, elemental metal and/or alloy, irradiating formed feedstock/catalyst-containing char with laser.

MCKENZIE K R, ABELE D T, BANEK N A, WAGNER M J

Producing magnetic carbon nanomaterial used in e.g., medical applications by heating electrolyte media, positioning the molten electrolyte media between anode and cathode of electrolytic cell and introducing a magnetic additive component.

LICHT S

Carbon material used as filter for desalination or deionization of solution, comprises carbon-containing layer having opening and solid material provided for covering the opening of carbon-containing layer, where solid material comprises hole communicating with opening.

KATSUMI K, TOSHIO T, YASUSHI S, STEVIC D, KATSUYUKI M, KANEKO K, TAKAGI T, SHIMIZU Y, DRAGANA S, MURATA K, MURADA K

Manufacture of spherical nanocarbon fiber assembly used for manufacturing carbon nanorods, involves spraying dispersion liquid comprising cellulose nanofibers on brine liquid, freezing, drying in vacuum, heating and carbonizing in preset atmosphere.

MASAYA N, MIKAYO I, YUZU K, HIROAKI T, TAKESHI K, KOMATSU T, TAGUCHI H, KOBAYASHI Y, IWATA M, NOHARA M

Container for storing one or more items, comprises surface defining volume of the container, label comprises substrate, multiple of carbon-based sensors printed on substrate and collectively configured to detect presence of analytes.

GIBBS G C, COOK D, VANHEUSDEN K, CHMIOLA J, LIM S H, LANNING B, STOWELL M W, GHEZELBASH H, CHANG C, KUMAR A, SINGH S, VANHUESDEN K

Manufacture of nanocarbon material e.g. graphene product, involves exposing heated catalyst and template to carbon source, annealing catalyst, template, and carbon derived from carbon source and removing catalyst and template.

BALKUS K J, BROWN A T