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doi:10.1002/adfm.v23.7

Cited by 6 publications

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“…In addition, the initial Columbic efficiency of the former electrode is 73.0% compared to 69.0% of the later. The improved rate capability can be attributed to the fact that the carbon flake shell can buffer the strain at high rates and maintain kinetics with facile charge transport [51].…”

Section: Lithium Storage Propertymentioning

confidence: 99%

Atomic-layer-deposition alumina induced carbon on porous Ni_xCo_{1 − x}O nanonets for enhanced pseudocapacitive and Li-ion storage performance

et al. 2014

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A unique composite nanonet of metal oxide@carbon interconnected sheets is obtained by atomic layer deposition (ALD)-assisted fabrication. In this nanonet structure, mesoporous metal oxide nanosheets are covered by a layer of amorphous carbon nanoflakes. Specifically, quasi-vertical aligned and mesoporous Ni(x)Co(1-x)O nanosheets are first fabricated directly on nickel foam substrates by a hydrothermal method. Then, an ALD-enabled carbon coating method is applied for the growth of carbon nanoflakes on the surface of the nanosheets. The thus formed 3D hierarchical structure of Ni(x)Co(1-x)O@carbon composite flakes have a higher surface area, better electrical conductivity and structure stability than the bare Ni(x)Co(1-x)O. The application of such composite nanomaterials is demonstrated as electrodes for a supercapacitor and a lithium-ion battery. In both tests, the composite electrode shows enhancement in capacity and cycling stability. This effective composite nanostructure design of metal oxides@carbon flakes could provide a promising method to construct high-performance materials for energy and environment applications.

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Section: Lithium Storage Propertymentioning

confidence: 99%

Atomic-layer-deposition alumina induced carbon on porous Ni_xCo_{1 − x}O nanonets for enhanced pseudocapacitive and Li-ion storage performance

et al. 2014

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“…As a common chemotherapeutic drug, doxorubicin (DOX) has been frequently applied in tumor chemotherapy. However, apart from the high toxicity of DOX, its high in vivo permeability has caused an extremely low utilization ratio 3,4. In order to solve the above problems, different kinds of drug carriers have been designed to simultaneously deliver DOX into the tumor to enhance drug usage and safety.…”

Section: Introductionmentioning

confidence: 99%

<p>Photothermal transforming agent and chemotherapeutic co-loaded electrospun nanofibers for tumor treatment</p>

Zhao¹,

Zhu²,

Ye³

et al. 2019

IJN

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Background: Photothermal and chemotherapy treatment has been frequently studied for cancer therapy; however, chemotherapy is equally toxic to both normal and cancer cells. The clinical application value of most kinds of photothermal transforming agents remains limited, due to their poor degradation and minimal accumulation in tumors. Materials and methods: We reported the synthesis of photothermal transforming agents (MoS 2 ) and chemotherapeutic (doxorubicin, DOX) co-loaded electrospun nanofibers using blend electrospinning for the treatment of postoperative tumor recurrence. Results: Under the irradiation of an 808 nm laser, the as-prepared chitosan/polyvinyl alcohol/MoS 2 /DOX nanofibers showed an admirable photothermal conversion capability with a photothermal conversion efficiency of 23.2%. These composite nanofibers are in vitro and in vivo biocompatible. In addition, they could control the sustained release of DOX and the generated heat can sensitize the chemotherapeutic efficacy of DOX via enhancing its release rate. Their chemo-/photothermal combined therapy efficiency was systematically studied in vitro and in vivo. Instead of circulating with the body fluid, MoS 2 was trapped by the nanofibrous matrix in the tumor and so its tumor-killing ability was not compromised, thus rendering this composite nanofiber a promising alternative for future clinical translation within biomedical application fields. Conclusion: Chitosan/polyvinyl alcohol/MoS 2 /DOX nanofibers showed an excellent photothermal conversion capability with a photothermal conversion efficiency of 23.2% and can completely inhibit the postoperative tumor reoccurrence.

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Characterising the morphology and efficiency of polymer solar cell by experiments and simulations

et al. 2016

Molecular Simulation

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Cited by 6 publications

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Atomic-layer-deposition alumina induced carbon on porous Ni_xCo_{1 − x}O nanonets for enhanced pseudocapacitive and Li-ion storage performance

Atomic-layer-deposition alumina induced carbon on porous Ni_xCo_{1 − x}O nanonets for enhanced pseudocapacitive and Li-ion storage performance

<p>Photothermal transforming agent and chemotherapeutic co-loaded electrospun nanofibers for tumor treatment</p>

Characterising the morphology and efficiency of polymer solar cell by experiments and simulations

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Cited by 6 publications

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Atomic-layer-deposition alumina induced carbon on porous NixCo1 − xO nanonets for enhanced pseudocapacitive and Li-ion storage performance

Atomic-layer-deposition alumina induced carbon on porous NixCo1 − xO nanonets for enhanced pseudocapacitive and Li-ion storage performance

<p>Photothermal transforming agent and chemotherapeutic co-loaded electrospun nanofibers for tumor treatment</p>

Characterising the morphology and efficiency of polymer solar cell by experiments and simulations

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Product

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Atomic-layer-deposition alumina induced carbon on porous Ni_xCo_{1 − x}O nanonets for enhanced pseudocapacitive and Li-ion storage performance

Atomic-layer-deposition alumina induced carbon on porous Ni_xCo_{1 − x}O nanonets for enhanced pseudocapacitive and Li-ion storage performance