PMID-sentid Pub_year Sent_text comp_official_name comp_offsetprotein_name organism prot_offset 21344871-0 2011 SnO(2) nanorod-planted graphite: an effective nanostructure configuration for reversible lithium ion storage. Graphite 23-31 strawberry notch homolog 2 Homo sapiens 0-3 21967167-1 2011 In this study, the SnO(2) nanostructures and graphene-SnO(2) (G-SnO(2)) composite nanostructures were prepared on n-Si (100) substrates by electrophoretic deposition and magnetron sputtering techniques. Graphite 45-53 strawberry notch homolog 2 Homo sapiens 54-57 21967167-1 2011 In this study, the SnO(2) nanostructures and graphene-SnO(2) (G-SnO(2)) composite nanostructures were prepared on n-Si (100) substrates by electrophoretic deposition and magnetron sputtering techniques. Graphite 45-53 strawberry notch homolog 2 Homo sapiens 54-57 21967167-2 2011 The field emission of SnO(2) nanostructures is improved largely by depositing graphene buffer layer, and the field emission of G-SnO(2) composite nanostructures can also further be improved by decreasing sputtering time of Sn nanoparticles to 5 min. Graphite 78-86 strawberry notch homolog 2 Homo sapiens 22-25 21967167-5 2011 Our results indicated that graphene can also be used as buffer layer acting as interface modification to simultaneity improve the field emission and PL properties of SnO(2) nanostructures effectively. Graphite 27-35 strawberry notch homolog 2 Homo sapiens 166-169 22894878-1 2012 Graphene sheets decorated with SnO(2) nanoparticles (RGO-SnO(2)) were prepared via a redox reaction between graphene oxide (GO) and SnCl(2). Graphite 0-8 strawberry notch homolog 2 Homo sapiens 31-34 22894878-1 2012 Graphene sheets decorated with SnO(2) nanoparticles (RGO-SnO(2)) were prepared via a redox reaction between graphene oxide (GO) and SnCl(2). Graphite 0-8 strawberry notch homolog 2 Homo sapiens 57-60 21607244-1 2011 We demonstrate a new hydrothermal method to directly grow SnO(2) nanosheets on a graphene oxide support that is subsequently reduced to graphene. Graphite 81-89 strawberry notch homolog 2 Homo sapiens 58-61 21607244-2 2011 This unique SnO(2)/graphene hybrid structure exhibits enhanced lithium storage properties with high reversible capacities and good cycling performance. Graphite 19-27 strawberry notch homolog 2 Homo sapiens 12-15 21344871-1 2011 We report a novel architecture of SnO(2) nanorod-planted graphite particles for an efficient Li ion storage material that can be prepared by a simple catalyst-assisted hydrothermal process. Graphite 57-65 strawberry notch homolog 2 Homo sapiens 34-37 21344871-2 2011 Rectangular-shaped SnO(2) nanorods are highly crystalline with a tetragonal rutile phase and distributed uniformly over the surface of micrometer-sized graphite particles. Graphite 152-160 strawberry notch homolog 2 Homo sapiens 19-22 21344871-5 2011 Significantly, the SnO(2) nanorod-planted graphite demonstrates an initial Li ion storage capacity of about 1010 mAh g(-1) during the first cycle. Graphite 42-50 strawberry notch homolog 2 Homo sapiens 19-22 21344871-6 2011 Also, these SnO(2)-graphite composites show high Coulombic efficiency and cycle stability in comparison with SnO(2) nanomaterials that are not combined with graphite. Graphite 19-27 strawberry notch homolog 2 Homo sapiens 12-15 21344871-6 2011 Also, these SnO(2)-graphite composites show high Coulombic efficiency and cycle stability in comparison with SnO(2) nanomaterials that are not combined with graphite. Graphite 19-27 strawberry notch homolog 2 Homo sapiens 109-112 21344871-7 2011 The enhanced electrochemical properties of SnO(2) nanorod-planted graphite, as compared with bare SnO(2) materials, inspire better design of composite materials with effective nanostructural configurations for advanced electrodes in lithium ion batteries. Graphite 66-74 strawberry notch homolog 2 Homo sapiens 43-46 28296060-3 2017 Herein, a novel monolithic optoelectronic device fabricated by a mask-free laser direct writing method is demonstrated in which in situ laser induced graphene-like materials are employed as lateral electrodes for flexible ZnS/SnO2 ultraviolet photodetectors. Graphite 150-158 strawberry notch homolog 2 Homo sapiens 226-229 19420508-3 2009 SnO(2) nanowires are obtained when SnO(2) mixed with graphite is used as the source material; adding TiO(2) into the source reliably leads to the formation of nanobelts. Graphite 53-61 strawberry notch homolog 2 Homo sapiens 0-3 31166936-5 2019 In particular, the optimized SnS2-SnO2/graphene photocatalyst can degrade 97.1% of RhB within 60 min, which is about 1.38 times greater than that of SnS2-SnO2 heterostructures. Graphite 39-47 strawberry notch homolog 2 Homo sapiens 34-37 30848880-7 2019 Furthermore, because the Fermi level of the SnO2{221} facet is higher than that of graphene, the electrons are transferred from SnO2 nanoparticles to graphene sheets, enabling effective electron exchange between the composite and external NO2 gas. Graphite 150-158 strawberry notch homolog 2 Homo sapiens 44-47 30525394-5 2019 The power conversion efficiency (PCE) of PSCs based on the graphene-SnO2 ETL reached over 18% with negligible hysteresis. Graphite 59-67 strawberry notch homolog 2 Homo sapiens 68-71 30014061-4 2018 Moreover, the graphene nanosheet provides a large specific surface area for SnO2 nanoparticles to anchor on, which could efficiently overcome the structure destruction of SnO2-based electrodes during continuous charging and discharging tests. Graphite 14-22 strawberry notch homolog 2 Homo sapiens 76-79 29688654-2 2017 The effects of the vacuum annealing and ultraviolet (UV) ozone (O3) exposure of the bare graphene films prior to the thermal evaporation on the SnO(x) -Sn films" sensitivities, bonding states, and surface morphologies were investigated. Graphite 89-97 strawberry notch homolog 2 Homo sapiens 144-147 29688654-3 2017 With increasing annealing time, the coverage of the SnO(x) -Sn nanoparticles on the graphene increased and the p to n sensitivity transition occurred when n-type SnO(x) -Sn nanoparticles became dominant instead of the p-type graphene films for sensors without O3 exposure. Graphite 84-92 strawberry notch homolog 2 Homo sapiens 52-55 29688654-5 2017 The chemisorbed Sn on the graphene generated by O3 exposure was oxidized by highly reactive NO2, resulting in a p-type doping effect, which would lead to n- to p-type sensitivity transition when the hole concentration exceeded the initial electron concentration of the n-type SnO(x) -Sn compound films. Graphite 26-34 strawberry notch homolog 2 Homo sapiens 276-279 25483827-1 2015 Three-dimensional (3D) TiO2-SnO2-graphene aerogels (TTGs) were built up from the graphene oxide nanosheets supported with both TiO2 and SnO2 nanoparticles (NPs) via a facile hydrothermal assembly process. Graphite 33-41 strawberry notch homolog 2 Homo sapiens 28-31 27192399-6 2016 Moreover, the MoS2/SnO2 hybrid nanocomposite film sensor exhibited great enhancement in humidity sensing performances as compared to the pure MoS2, SnO2, and graphene counterparts. Graphite 158-166 strawberry notch homolog 2 Homo sapiens 19-22 25483827-0 2015 Hierarchical TiO2-SnO2-graphene aerogels for enhanced lithium storage. Graphite 23-31 strawberry notch homolog 2 Homo sapiens 18-21 25367289-1 2014 The catalytic role of germanium (Ge) was investigated to improve the electrochemical performance of tin dioxide grown on graphene (SnO(2)/G) nanocomposites as an anode material of lithium ion batteries (LIBs). Graphite 121-129 strawberry notch homolog 2 Homo sapiens 131-134 25367289-2 2014 Germanium dioxide (GeO(20) and SnO(2) nanoparticles (<10 nm) were uniformly anchored on the graphene sheets via a simple single-step hydrothermal method. Graphite 95-103 strawberry notch homolog 2 Homo sapiens 31-34 24316886-3 2014 SnO and SnO2 nanoparticles are uniformly distributed on the surface of the graphene. Graphite 75-83 strawberry notch homolog 2 Homo sapiens 0-3 25179102-0 2014 Enhancing electrocatalytic performance of Sb-doped SnO 2 electrode by compositing nitrogen-doped graphene nanosheets. Graphite 97-105 strawberry notch homolog 2 Homo sapiens 51-54 24316886-4 2014 Taking advantage of the high electron conductivity of graphene and the large theoretical capacity of SnO, this SnO/SnO2/GNS composite exhibits high charge/discharge capacity, good cycling stability and good rate capability. Graphite 54-62 strawberry notch homolog 2 Homo sapiens 111-114 24299146-0 2014 Photogenerated carriers transfer in dye-graphene-SnO2 composites for highly efficient visible-light photocatalysis. Graphite 40-48 strawberry notch homolog 2 Homo sapiens 49-52 24299146-2 2014 Here we report graphene-SnO2 aerosol nanocomposites that exhibit more superior dye adsorption capacity and photocatalytic efficiency compared with pure SnO2 quantum dots, P25 TiO2, and pure graphene aerosol under the visible light. 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