国家/地区 中国（10）
IPC部 C（10） B（6） H（5）
IPC大类 C01（10）
IPC小类 C01B（10）
IPC C08G061/10（10）
发明人 FENG X（7） MUELLEN K（7） MULLEN K（7）
SCHWAB M G（5） FASEL R（4） MILLEN K（4）
RUFFIEUX P（4） CAI J（3） SCHVAB M G（3）
SCHWAB M G S（3） TSAI J（3） DUMSLAFF T（2）
NARITA A（2）
公开年 2013（4） 2015（2）
申请年 2012（5）  2015（2） 
专利权人 BASF SE（7） MAX PLANCK G.（6） BASF CHINA C.（5） BASF AG（4）

Manufacture of naphthyl silole compound used for preparing graphene nanoribbons, involves reacting brominated/iodinated biphenyl compound with lanthanoid-and-lithium-containing ate complex, and reacting obtained lanthanoid complex with silyl compound.

ITAMI K, ITO H, MATSUSHIMA K, MURAKAMI K, NAKATSUJI H, ISHIDA S

New soluble graphene nanoribbons used in field-effect transistor, photovoltaic cell, nonlinear optical component and sensor.

MO Y

New ortho-terphenyl derivatives used for preparing graphene nanoribbons for thin film semiconductor for use in optical device, such as organic field effect transistor device, organic photovoltaic device or organic light-emitting diode.

SCHWAB M G, MULLEN K, FENG X, DUMSLAFF T, RUFFIEUX P, FASEL R, MUELLEN K

Graphene nanoribbon comprises repeating unit comprising edge carbons which can unambiguously be assigned as zigzag or cove type carbon atoms.

SCHWAB M G, MUELLEN K, FENG X, YANG B, DUMSLAFF T, FASEL R, RUFFIEUX P, LIU J, CAI J, SANCHEZSANCHEZ C, MULLEN K, SANCHEZ S C, TSAI J, MILLEN K

New oligophenylene monomer useful in polymeric precursor for preparing graphene nanoribbons that used are in thin film semiconductor of electronic, optical, or optoelectronic device e.g. organic field effect transistor device.

MUELLEN K, FENG X, CAI J, RUFFIEUX P, FASEL R, NARITA A, TSAI J, MULLEN K, MILLEN K

New oligophenylene monomer useful for preparing a polymeric precursor for producing graphene nanoribbons useful in an electronic, optical, or optoelectronic device.

SCHWAB M G, NARITA A, FENG X, MUELLEN K, MULLEN K, SCHWAB M G S, SCHVAB M G, MILLEN K

Segmented graphene nanoribbon useful for generating heterojunctions and heterostructures, comprises at least two different graphene segments covalently linked to each other.

BLANKENBURG S, CAI J, FASEL R, FENG X, MUELLEN K, PASSERONE D, PIGNEDOLI C, RUFFIEUX P, MULLEN K, PIGNEDOLI C A, TSAI J, CAI Y

New oligophenylene monomers, useful for synthesizing polymeric precursors for preparing graphene nanoribbons.

IVANOVICI S, SCHWAB M G S, FENG X, MUELLEN K, SCHWAB M G, MULLEN K, KLAUS M, SCHVAB M G, SCHWAB M, MILLEN K

New graphene nanoribbon precursors comprising polycyclic aromatic hydrocarbon repeat units, used in graphene nanoribbons for field-effect transistors.

SCHWAB M G S, MUELLEN K, FENG X, DOESSEL L, SCHWAB M G, MULLEN K, DOSSEL L, SCHVAB M G

Making graphene nanoribbon comprises contacting poly(phenylene ethynylene) polymer, annulating compound, and catalyst system comprising metal catalyst and protic acid, and oxidizing the arylannulated polymer product.

DICHTEL W R, ARSLAN H, URIBEROMO F J