国家/地区 中国（10）
IPC部 B（10）
IPC大类 C08（10）
IPC小类 C08K（10）
IPC C08K003/04（10） B82Y030/00（6） C08L101/00（6）
C01B031/04（5） C08J005/00（5） B82Y040/00（4）
C01B031/02（4） C08L023/06（4） B29C045/00（3）
C01B000/00（3） C01B032/182（3） C08K000/00（3）
C08K007/00（3） C08L000/00（3） C08L023/12（3）
发明人 BANDLA S（3） HANAN J C（3） CASALINI A（2）
CHIU G（2） FELISARI R（2） HASEGAWA S（2）
HASEGAWA SHOJI（2） HENDRIKS J（2） HENDRIX J（2）
KAMIYA N（2） KAMIYA NAGISA（2） KEAR B（2）
LYNCH J（2） NAGISA K（2） NOSKER T（2）
公开年 2011（3） 2014（2） 2015（2） 2017（2）
申请年 2010（3）  2016（3）  2014（2） 
专利权人 BANDLA S（3） HANAN J（3） HANAN J C（3） NIAGARA BOTT.（3）
GRAPHENE PLA.（2） GRAPHENE PLA.（2） POLIMERI EUR.（2） UNIV RUTGERS.（2）
VERSALIS SPA（2）

Preparing graphene reinforced polyethylene terephthalate used to e.g. pack, comprises compounding polyethylene terephthalate with dispersed graphene nanoplatelets, and forming polyethylene terephthalate-graphene nanoplatelet nanocomposities.

HANAN J C, BANDLA S

Graphene reinforced polyethylene terephthalate (PET) composition, used to prepare composite materials e.g. for packaging applications, comprises continuous matrix comprising PET, and dispersed reinforcement phase of graphene nanoplatelets.

HANAN J C, SHABAFROOZ V, BANDLA S

Preparation of graphene-reinforced polyethylene terephthalate used in e.g. packaging applications, involves compounding polyethylene terephthalate with graphene nanoplatelets to form preset amount of nanocomposites of resultant mixture.

HANAN J C, BANDLA S

Graphite-based carbon material used as graphene precursor for preparing graphene dispersion, comprises rhombohedral graphite layer and hexagonal graphite layer, and has specified rate calculated based on X-ray diffraction method.

HASEGAWA S, KAMIYA N, HASEGAWA SHOJI, KAMIYA NAGISA, SHOJI H, NAGISA K, SHEN Y

Graphite-type carbon raw material used as graphene precursor, has rhombohedral system graphite layer and hexagonal system graphite layer in ratio more than preset value, as measured using peak intensities specific planes of layers.

HASEGAWA S, KAMIYA N, SHOJI H, NAGISA K, HASEGAWA SHOJI, KAMIYA NAGISA, SHEN Y

Method for forming high-strength graphene-reinforced polymer matrix composite for e.g. aircraft part for commercial application, involves applying succession of shear strain events to molten polymer phase.

NOSKER T, LYNCH J, KEAR B, HENDRIX J, CHIU G, ZHAO G, HENDRIKS J, NOSKER T J, LYNCHBRANZOI J K, KEAR B H

Forming a graphene-reinforced polymer matrix composite useful in an aircraft, comprises distributing graphite microparticles into molten thermoplastic polymer phase, and applying succession of shear strain events to molten polymer phase.

NOSKER T, LYNCH J, HENDRIX J, KEAR B, CHIU G, TSE S, HENDRIKS J, XIE S, ZHAO G

Semiconductive polyolefin composition, useful in an article including semiconductive layer of a power cable, comprises an olefin polymer base resin, and graphene nanoplatelets.

SVANBERG C, PHAM T, MALIK M A, COSTA F, LIU Y, UEMATSU T, GKOURMPIS T, MALIK M, SVANBERG CH

Producing nano-scaled graphene platelet, useful in thermoplastic polymer nanocomposite composition, comprises contacting graphite material with molecular/atomic oxygen to obtain precursor, and chemically or physically reducing the precursor.

FELISARI R, VALENTINO O, CASALINI A

Nanocomposite composition for producing expanded extruded sheets of polyethylene comprises polymeric matrix produced by polymerization of polymerizable monomers; expanding agent; and athermanous filler containing nano-scaled graphene plates.

FELISARI R, VALENTINO O, CASALINI A, VILISARA R, CASALANA A