PMID-sentid Pub_year Sent_text comp_official_name comp_offsetprotein_name organism prot_offset 31997833-0 2018 The deposition of thin films of cadmium zinc sulfide Cd1-x Zn x S at 250 C from spin-coated xanthato complexes: a potential route to window layers for photovoltaic cells. Zinc 59-61 CD1c molecule Homo sapiens 53-56 33462468-4 2021 We also exploited the atomic-level miscibility of Cd and Zn to synthesize Mn2+:(Cd1-xZnxSe)13 alloy suprastructures with tunable metal synergy: Mn2+:(Cd0.5Zn0.5Se)13 suprastructures demonstrated high catalytic activity (turnover number, 17,964 per cluster in 6 h; turnover frequency, 2,994 per cluster per hour) for converting CO2 to organic cyclic carbonates under mild reaction conditions. Zinc 57-59 CD1c molecule Homo sapiens 80-83 32326581-3 2020 In addition, it is possible to tune the CdTe bandgap by introducing, for example, Zn into the composition, forming Cd1-xZnxTe alloys, which can fulfill the Shockley-Queisser limit design criteria for tandem devices. Zinc 82-84 CD1c molecule Homo sapiens 115-118 30645027-4 2019 Interestingly, the band alignments, exposure of active sites, and interfacial charge separation of Cd1- x Znx S@O-MoS2 /NiOx are optimized by tuning the Zn-doping content as well as the growth of defect-rich O-MoS2 layer and NiOx nanoparticles, which endow the hybrids with excellent HER performances. Zinc 106-108 CD1c molecule Homo sapiens 99-102 31997833-8 2018 This work is the first study to demonstrate Cd1-x Zn x S thin films by a spin coating/melt method from xanthato precursors. Zinc 50-52 CD1c molecule Homo sapiens 44-47 29170618-1 2017 We report on the growth and characterization of optical quality multiple quantum well structures of Zn x Cd1-x Se/Zn x Cd y Mg1-x-y Se on an ultra-thin Bi2Se3/CdTe virtual substrate on c-plane Al2O3 (sapphire). Zinc 100-102 CD1c molecule Homo sapiens 105-108 28683540-3 2017 Thus, the main goal of this study was to develop composition-tunable and biocompatible Zn x Cd1 - x S QDs using carboxymethylcellulose polysaccharide as direct capping ligand via green colloidal aqueous route at neutral pH and at room temperature for potential biomedical and environmental applications. Zinc 87-89 CD1c molecule Homo sapiens 92-95 28683540-6 2017 The XRD results indicated that monophasic ternary alloyed Zn x Cd1 - x S nanocrystals were produced with homogenous composition of the core as evidenced by EELS and XPS analyses. Zinc 58-60 CD1c molecule Homo sapiens 63-66 28683540-7 2017 In addition, the absorption and emission optical properties of Zn x Cd1 - x S QDs were red shifted with increasing the amount of Cd2+ in the alloyed nanocrystals, which have also increased the quantum yield compared to pure CdS and ZnS nanoparticles. Zinc 63-65 CD1c molecule Homo sapiens 68-71 28683540-7 2017 In addition, the absorption and emission optical properties of Zn x Cd1 - x S QDs were red shifted with increasing the amount of Cd2+ in the alloyed nanocrystals, which have also increased the quantum yield compared to pure CdS and ZnS nanoparticles. Zinc 232-235 CD1c molecule Homo sapiens 68-71 25977654-0 2015 Facile synthesis of composition-tuned ZnO/Zn x Cd1-x Se nanowires for photovoltaic applications. Zinc 38-40 CD1c molecule Homo sapiens 47-50 28116384-0 2017 Effect of Zn substitution on the magnetic and magnetocaloric properties of Cd1-xZnxCr2Se4 spinel. Zinc 10-12 CD1c molecule Homo sapiens 75-78 28176522-3 2017 Our results identify that full miscibility of most Cd1-xZnxOyS1-y compositions and even binaries like Zn(O,S) is outside typical photovoltaic processing conditions. Zinc 56-58 CD1c molecule Homo sapiens 51-54 26451804-2 2015 Here we report a novel strategy to synthesize Zn x Cd1-x S NFs via the synergistic actions of the graphene oxide (GO) confinement effect and oriented cation exchange. Zinc 46-48 CD1c molecule Homo sapiens 51-54 24833283-4 2015 The band gap of Znx Cd1-x S/alginate core/shell nanoparticles increases with increasing Zn/Cd molar ratio, and the UV/vis absorption blue-shifts correspondingly. Zinc 16-18 CD1c molecule Homo sapiens 20-23 24833283-6 2015 A cadmium-related emission was observed for both the uncovered Znx Cd1-x S and Znx Cd1-x S/alginate core/shell nanoparticles, which has a significant blue-shift with increasing Zn/Cd molar ratio. Zinc 63-65 CD1c molecule Homo sapiens 67-70 34490697-5 2021 Owing to the efficient charge transfer, the Zn x Cd 1-x S-Pt 1 exhibited outstanding photocatalytic performance of CO 2 to CO, with the highest CO generation rate of 75.31 mumol h -1. Zinc 44-46 CD1c molecule Homo sapiens 49-53 23905339-6 2013 The 20% and 30% cu-doped Cd1-x Zn, Te films were both p-type conductivity. Zinc 31-33 CD1c molecule Homo sapiens 25-28 16834351-5 2006 The activation energy for solid-solution formation was determined as approximately 152 kJ/mol, which evidently indicates that the diffusion of Zn2+ ions in the CdSe-ZnSe system is the governing mechanism for the Cd1-xZnxSe solid-solution formation. Zinc 143-147 CD1c molecule Homo sapiens 212-215 11670523-7 1998 An analogous reaction was observed for the cadmium derivative, Cd-1, which displays a (1)H NMR spectrum identical to that of Zn-2. Zinc 125-129 CD1c molecule Homo sapiens 63-67 15721369-4 2005 Using APOBEC3G deletion and point mutants, we mapped the encapsidation determinant to the Zn(2+) coordination residues of the N-terminal catalytic domain (CD1). Zinc 90-92 CD1c molecule Homo sapiens 155-158 34095649-7 2021 Elemental mapping showed that the Zn element was mainly distributed in the outermost layer of the hollow spheres; this might be the critical factor that enabled Ni-doped Zn x Cd1-x S to maintain excellent stability. Zinc 34-36 CD1c molecule Homo sapiens 175-178 34095649-7 2021 Elemental mapping showed that the Zn element was mainly distributed in the outermost layer of the hollow spheres; this might be the critical factor that enabled Ni-doped Zn x Cd1-x S to maintain excellent stability. Zinc 170-172 CD1c molecule Homo sapiens 175-178