The Experts below are selected from a list of 75012 Experts worldwide ranked by ideXlab platform
Wei Zhang - One of the best experts on this subject based on the ideXlab platform.
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Ultra‐thin Solid‐State Li‐Ion Electrolyte Membrane Facilitated by a Self‐Healing Polymer Matrix
Advanced Materials, 2015Co-Authors: Justin M. Whiteley, Philip Taynton, Wei ZhangAbstract:Thin solid membranes are formed by a new strategy, whereby an in situ derived Self-Healing Polymer matrix that penetrates the void space of an inorganic solid is created. The concept is applied as a separator in an all-solid-state battery with an FeS2 -based cathode and achieves tremendous performance for over 200 cycles. Processing in dry conditions represents a paradigm shift for incorporating high active-material mass loadings into mixed-matrix membranes.
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Ultra-thin Solid-State Li-Ion Electrolyte Membrane Facilitated by a Self-Healing Polymer Matrix
Advanced Materials, 2015Co-Authors: Justin M. Whiteley, Philip Taynton, Wei Zhang, Se-hee LeeAbstract:Thin solid membranes are formed by a new strategy, whereby an in situ derived Self-Healing Polymer matrix that penetrates the void space of an inorganic solid is created. The concept is applied as a separator in an all-solid-state battery with an FeS2 -based cathode and achieves tremendous performance for over 200 cycles. Processing in dry conditions represents a paradigm shift for incorporating high active-material mass loadings into mixed-matrix membranes.
Justin M. Whiteley - One of the best experts on this subject based on the ideXlab platform.
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Ultra‐thin Solid‐State Li‐Ion Electrolyte Membrane Facilitated by a Self‐Healing Polymer Matrix
Advanced Materials, 2015Co-Authors: Justin M. Whiteley, Philip Taynton, Wei ZhangAbstract:Thin solid membranes are formed by a new strategy, whereby an in situ derived Self-Healing Polymer matrix that penetrates the void space of an inorganic solid is created. The concept is applied as a separator in an all-solid-state battery with an FeS2 -based cathode and achieves tremendous performance for over 200 cycles. Processing in dry conditions represents a paradigm shift for incorporating high active-material mass loadings into mixed-matrix membranes.
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Ultra-thin Solid-State Li-Ion Electrolyte Membrane Facilitated by a Self-Healing Polymer Matrix
Advanced Materials, 2015Co-Authors: Justin M. Whiteley, Philip Taynton, Wei Zhang, Se-hee LeeAbstract:Thin solid membranes are formed by a new strategy, whereby an in situ derived Self-Healing Polymer matrix that penetrates the void space of an inorganic solid is created. The concept is applied as a separator in an all-solid-state battery with an FeS2 -based cathode and achieves tremendous performance for over 200 cycles. Processing in dry conditions represents a paradigm shift for incorporating high active-material mass loadings into mixed-matrix membranes.
Se-hee Lee - One of the best experts on this subject based on the ideXlab platform.
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Ultra-thin Solid-State Li-Ion Electrolyte Membrane Facilitated by a Self-Healing Polymer Matrix
Advanced Materials, 2015Co-Authors: Justin M. Whiteley, Philip Taynton, Wei Zhang, Se-hee LeeAbstract:Thin solid membranes are formed by a new strategy, whereby an in situ derived Self-Healing Polymer matrix that penetrates the void space of an inorganic solid is created. The concept is applied as a separator in an all-solid-state battery with an FeS2 -based cathode and achieves tremendous performance for over 200 cycles. Processing in dry conditions represents a paradigm shift for incorporating high active-material mass loadings into mixed-matrix membranes.
Philip Taynton - One of the best experts on this subject based on the ideXlab platform.
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Ultra‐thin Solid‐State Li‐Ion Electrolyte Membrane Facilitated by a Self‐Healing Polymer Matrix
Advanced Materials, 2015Co-Authors: Justin M. Whiteley, Philip Taynton, Wei ZhangAbstract:Thin solid membranes are formed by a new strategy, whereby an in situ derived Self-Healing Polymer matrix that penetrates the void space of an inorganic solid is created. The concept is applied as a separator in an all-solid-state battery with an FeS2 -based cathode and achieves tremendous performance for over 200 cycles. Processing in dry conditions represents a paradigm shift for incorporating high active-material mass loadings into mixed-matrix membranes.
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Ultra-thin Solid-State Li-Ion Electrolyte Membrane Facilitated by a Self-Healing Polymer Matrix
Advanced Materials, 2015Co-Authors: Justin M. Whiteley, Philip Taynton, Wei Zhang, Se-hee LeeAbstract:Thin solid membranes are formed by a new strategy, whereby an in situ derived Self-Healing Polymer matrix that penetrates the void space of an inorganic solid is created. The concept is applied as a separator in an all-solid-state battery with an FeS2 -based cathode and achieves tremendous performance for over 200 cycles. Processing in dry conditions represents a paradigm shift for incorporating high active-material mass loadings into mixed-matrix membranes.
Michael David Dickey - One of the best experts on this subject based on the ideXlab platform.
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Self‐Healing Stretchable Wires for Reconfigurable Circuit Wiring and 3D Microfluidics
Advanced materials (Deerfield Beach Fla.), 2013Co-Authors: E. Palleau, Stephen Reece, Sharvil C. Desai, Michael Smith, Michael David DickeyAbstract:This article describes the fabrication of Self-Healing stretchable wires formed by embedding liquid metal wires in microchannels composed of Self-Healing Polymer. These stretchable wires can be completely severed with scissors and rapidly self-heal both mechanically and electrically at ambient conditions. By cutting the channels strategically, the pieces can be re-assembled in a different order to form complex microfluidic networks in 2D or 3D space.
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Self-Healing stretchable wires for reconfigurable circuit wiring and 3D microfluidics
Advanced Materials, 2013Co-Authors: E. Palleau, Stephen Reece, Sharvil C. Desai, Michael E. Smith, Michael David DickeyAbstract:This article describes the fabrication of Self-Healing stretchable wires formed by embedding liquid metal wires in microchannels composed of Self-Healing Polymer. These stretchable wires can be completely severed with scissors and rapidly self-heal both mechanically and electrically at ambient conditions. By cutting the channels strategically, the pieces can be re-assembled in a different order to form complex microfluidic networks in 2D or 3D space.