PMID-sentid Pub_year Sent_text comp_official_name comp_offsetprotein_name organism prot_offset 22422051-2 2012 Herein, we report a large-scale synthesis of a SnO(2)/alpha-Fe(2)O(3) composite nanotube array on a stainless steel substrate via a ZnO nanowire array as an in situ sacrificial template without using any strong acid or alkali. Zinc Oxide 132-135 strawberry notch homolog 1 Homo sapiens 47-50 22108293-3 2011 The as-synthesized SnO(2) nanoshuttles showed ultrahigh flexibility and strong toughness with a large elastic strain of ~ 6.2, which is much higher than reported for Si and ZnO nanowire as well as most crystalline metallic materials. Zinc Oxide 173-176 strawberry notch homolog 1 Homo sapiens 19-22 21292279-0 2011 Self-assembly of disk-like multiring ZnO-SnO2 colloidal nanoparticles. Zinc Oxide 37-40 strawberry notch homolog 1 Homo sapiens 41-44 21292279-1 2011 ZnO-SnO(2) colloidal nanoparticles have been successfully synthesized by using the composite of ZnCl(2) and Sn(OC(4)H(9))(4) as inorganic precursor and dodecylbenzenesulfonic acid (DBSA) as an organic template. Zinc Oxide 0-3 strawberry notch homolog 1 Homo sapiens 4-7 21292279-2 2011 The assembled nanostructures of ZnO-SnO(2) products have been carefully investigated by powder X-ray diffraction (XRD) and transmission electron microscopy (TEM). Zinc Oxide 32-35 strawberry notch homolog 1 Homo sapiens 36-39 21292279-3 2011 It is found that ZnO-SnO(2) colloidal nanoparticles take a disk-like multiring nanostructure. Zinc Oxide 17-20 strawberry notch homolog 1 Homo sapiens 21-24 21292279-4 2011 This interesting structure is predominantly determined by the tenacity for ZnO-SnO(2) mixtures to stabilize lamellae. Zinc Oxide 75-78 strawberry notch homolog 1 Homo sapiens 79-82 20516577-3 2010 Combined ZnO:SnO(2) nanowire arrays yield a desired emission color from (0.30, 0.31) to (0.35, 0.37) and a white luminescence of approximately 100 cd m(-2), whose reproducibility can be controlled accurately. Zinc Oxide 9-12 strawberry notch homolog 1 Homo sapiens 13-16 19772329-0 2009 Hierarchical assembly of ZnO nanostructures on SnO(2) backbone nanowires: low-temperature hydrothermal preparation and optical properties. Zinc Oxide 25-28 strawberry notch homolog 1 Homo sapiens 47-50 20453289-1 2010 ZnO nanorods containing different hollow structures have been grown by a thermal evaporation-deposition method with a mixture of ZnS and SnO(2) powders as precursor. Zinc Oxide 0-3 strawberry notch homolog 1 Homo sapiens 137-140 19772329-2 2009 The ZnO nanorods grow epitaxially on the SnO(2) nanowire side faces mainly with a four-fold symmetry. Zinc Oxide 4-7 strawberry notch homolog 1 Homo sapiens 41-44 19772329-5 2009 Such hybrid SnO(2)-ZnO nanostructures show an enhanced near-band gap emission compared with the primary SnO(2) nanowires. Zinc Oxide 19-22 strawberry notch homolog 1 Homo sapiens 12-15 19772329-5 2009 Such hybrid SnO(2)-ZnO nanostructures show an enhanced near-band gap emission compared with the primary SnO(2) nanowires. Zinc Oxide 19-22 strawberry notch homolog 1 Homo sapiens 104-107 19094028-1 2008 The effects of Bi(2)O(3) addition on the phase composition, microstructure and optical properties of ZnO-SnO(2) ceramics were investigated. Zinc Oxide 101-104 strawberry notch homolog 1 Homo sapiens 105-108 11401386-3 2001 Observation on dye-sensitizated photoelectrochemical cells made from SnO(2)/ZnO films sensitized with different dyes suggests that the electron transfer could occur in either direction, that is from semiconductor of high band position to the semiconductor of the low band position or vice versa, depending on which surface adsorbs the dye more strongly. Zinc Oxide 76-79 strawberry notch homolog 1 Homo sapiens 69-72 18512700-4 2008 ZnO nanostructures doped with Sn or Eu were grown by adding SnO(2) and Eu(2)O(3) powder, respectively, to the ZnO precursor powder. Zinc Oxide 0-3 strawberry notch homolog 1 Homo sapiens 60-63 17676572-3 2007 The same approach was used to grow branched ZnO-SnO(2) heterojunction nanostructures. Zinc Oxide 44-47 strawberry notch homolog 1 Homo sapiens 48-51 17041672-1 2006 ZnO/SnO nanocomposites have been designed to enhance the band edge emission and suppress the defect emission of ZnO nanorods simultaneously. Zinc Oxide 0-3 strawberry notch homolog 1 Homo sapiens 4-7 17041672-1 2006 ZnO/SnO nanocomposites have been designed to enhance the band edge emission and suppress the defect emission of ZnO nanorods simultaneously. Zinc Oxide 112-115 strawberry notch homolog 1 Homo sapiens 4-7 17041672-3 2006 The underlying mechanism is interpreted in terms of surface modification as well as carrier transfer from SnO nanoparticles to ZnO nanorods. Zinc Oxide 127-130 strawberry notch homolog 1 Homo sapiens 106-109 34653855-0 2022 Orange peel extract influenced partial transformation of SnO2 to SnO in green 3D-ZnO/SnO2 system for chlorophenol degradation. Zinc Oxide 81-84 strawberry notch homolog 1 Homo sapiens 65-68 31458911-3 2018 High-resolution transmission electron microscopy images show the close contacts between SnO2-ZnO QDs with the g-C3N4 in the ternary SnO2-ZnO QDs/g-C3N4 hybrid. Zinc Oxide 93-96 strawberry notch homolog 1 Homo sapiens 88-91 32639143-4 2020 A possible growth mechanism of the p-SnO/n-ZnO biaxial nanowires was discussed based on the subsequent growth process: the VLS catalyticgrowth of the ZnO nanowire and subsequent epitaxial SnO growth on the sidewall of the pre-grown ZnO nanowire. Zinc Oxide 43-46 strawberry notch homolog 1 Homo sapiens 188-191 32639143-4 2020 A possible growth mechanism of the p-SnO/n-ZnO biaxial nanowires was discussed based on the subsequent growth process: the VLS catalyticgrowth of the ZnO nanowire and subsequent epitaxial SnO growth on the sidewall of the pre-grown ZnO nanowire. Zinc Oxide 150-153 strawberry notch homolog 1 Homo sapiens 37-40 32639143-5 2020 An epitaxial relationship, (001)SnO//(110)ZnO and [110]SnO//[002]ZnO, was observed in the biaxial p-SnO/n-ZnOheterostructured nanowires. Zinc Oxide 42-45 strawberry notch homolog 1 Homo sapiens 32-35 32639143-5 2020 An epitaxial relationship, (001)SnO//(110)ZnO and [110]SnO//[002]ZnO, was observed in the biaxial p-SnO/n-ZnOheterostructured nanowires. Zinc Oxide 42-45 strawberry notch homolog 1 Homo sapiens 55-58 32639143-5 2020 An epitaxial relationship, (001)SnO//(110)ZnO and [110]SnO//[002]ZnO, was observed in the biaxial p-SnO/n-ZnOheterostructured nanowires. Zinc Oxide 42-45 strawberry notch homolog 1 Homo sapiens 55-58 32639143-5 2020 An epitaxial relationship, (001)SnO//(110)ZnO and [110]SnO//[002]ZnO, was observed in the biaxial p-SnO/n-ZnOheterostructured nanowires. Zinc Oxide 65-68 strawberry notch homolog 1 Homo sapiens 32-35 32639143-5 2020 An epitaxial relationship, (001)SnO//(110)ZnO and [110]SnO//[002]ZnO, was observed in the biaxial p-SnO/n-ZnOheterostructured nanowires. Zinc Oxide 65-68 strawberry notch homolog 1 Homo sapiens 55-58 32639143-5 2020 An epitaxial relationship, (001)SnO//(110)ZnO and [110]SnO//[002]ZnO, was observed in the biaxial p-SnO/n-ZnOheterostructured nanowires. Zinc Oxide 65-68 strawberry notch homolog 1 Homo sapiens 55-58 31458911-5 2018 The enriched charge-carrier separation and transportation in the SnO2-ZnO QDs/g-C3N4 hybrid was determined based on electrochemical impedance and photocurrent analyses. Zinc Oxide 70-73 strawberry notch homolog 1 Homo sapiens 65-68 31458911-6 2018 This remarkable photoactivity is ascribed to the "smart" heterostructure, which yields numerous benefits, such as visible-light-driven fast electron and hole transfer, due to the strong interaction between the SnO2-ZnO QDs with the g-C3N4 matrix. Zinc Oxide 215-218 strawberry notch homolog 1 Homo sapiens 210-213