The Experts below are selected from a list of 306 Experts worldwide ranked by ideXlab platform
Yen Wei - One of the best experts on this subject based on the ideXlab platform.
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Synthesis of a Re-usable Cellobiase Enzyme Catalyst through In situ Encapsulation in Nonsurfactant Templated Sol–Gel Mesoporous Silica
Topics in Catalysis, 2012Co-Authors: Yen Wei, Sudipto Das, David Berke-schlessel, John K. Mcdonough, Lin Feng, Xiang Zhang, Wentao Zhai, Yingze CaoAbstract:We present a re-usable Enzyme Catalyst system via direct encapsulation of cellobiase in nonsurfactant templated sol–gel mesoporous silica host material with d-fructose as the template. The pore diameter and porosity of the silica host material, controlled by the fructose content, controlled the diffusion of substrate to the Enzyme. This in situ immobilized cellobiase showed little or no leakage while could be repeatedly used as bioCatalyst with little or no loss of activity after at least 9 cycles.
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synthesis of a re usable cellobiase Enzyme Catalyst through in situ encapsulation in nonsurfactant templated sol gel mesoporous silica
Topics in Catalysis, 2012Co-Authors: Yen Wei, Sudipto Das, John K. Mcdonough, Lin Feng, Xiang Zhang, Wentao Zhai, David Berkeschlessel, Yingze CaoAbstract:We present a re-usable Enzyme Catalyst system via direct encapsulation of cellobiase in nonsurfactant templated sol–gel mesoporous silica host material with d-fructose as the template. The pore diameter and porosity of the silica host material, controlled by the fructose content, controlled the diffusion of substrate to the Enzyme. This in situ immobilized cellobiase showed little or no leakage while could be repeatedly used as bioCatalyst with little or no loss of activity after at least 9 cycles.
Yingze Cao - One of the best experts on this subject based on the ideXlab platform.
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Synthesis of a Re-usable Cellobiase Enzyme Catalyst through In situ Encapsulation in Nonsurfactant Templated Sol–Gel Mesoporous Silica
Topics in Catalysis, 2012Co-Authors: Yen Wei, Sudipto Das, David Berke-schlessel, John K. Mcdonough, Lin Feng, Xiang Zhang, Wentao Zhai, Yingze CaoAbstract:We present a re-usable Enzyme Catalyst system via direct encapsulation of cellobiase in nonsurfactant templated sol–gel mesoporous silica host material with d-fructose as the template. The pore diameter and porosity of the silica host material, controlled by the fructose content, controlled the diffusion of substrate to the Enzyme. This in situ immobilized cellobiase showed little or no leakage while could be repeatedly used as bioCatalyst with little or no loss of activity after at least 9 cycles.
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synthesis of a re usable cellobiase Enzyme Catalyst through in situ encapsulation in nonsurfactant templated sol gel mesoporous silica
Topics in Catalysis, 2012Co-Authors: Yen Wei, Sudipto Das, John K. Mcdonough, Lin Feng, Xiang Zhang, Wentao Zhai, David Berkeschlessel, Yingze CaoAbstract:We present a re-usable Enzyme Catalyst system via direct encapsulation of cellobiase in nonsurfactant templated sol–gel mesoporous silica host material with d-fructose as the template. The pore diameter and porosity of the silica host material, controlled by the fructose content, controlled the diffusion of substrate to the Enzyme. This in situ immobilized cellobiase showed little or no leakage while could be repeatedly used as bioCatalyst with little or no loss of activity after at least 9 cycles.
Wentao Zhai - One of the best experts on this subject based on the ideXlab platform.
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Synthesis of a Re-usable Cellobiase Enzyme Catalyst through In situ Encapsulation in Nonsurfactant Templated Sol–Gel Mesoporous Silica
Topics in Catalysis, 2012Co-Authors: Yen Wei, Sudipto Das, David Berke-schlessel, John K. Mcdonough, Lin Feng, Xiang Zhang, Wentao Zhai, Yingze CaoAbstract:We present a re-usable Enzyme Catalyst system via direct encapsulation of cellobiase in nonsurfactant templated sol–gel mesoporous silica host material with d-fructose as the template. The pore diameter and porosity of the silica host material, controlled by the fructose content, controlled the diffusion of substrate to the Enzyme. This in situ immobilized cellobiase showed little or no leakage while could be repeatedly used as bioCatalyst with little or no loss of activity after at least 9 cycles.
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synthesis of a re usable cellobiase Enzyme Catalyst through in situ encapsulation in nonsurfactant templated sol gel mesoporous silica
Topics in Catalysis, 2012Co-Authors: Yen Wei, Sudipto Das, John K. Mcdonough, Lin Feng, Xiang Zhang, Wentao Zhai, David Berkeschlessel, Yingze CaoAbstract:We present a re-usable Enzyme Catalyst system via direct encapsulation of cellobiase in nonsurfactant templated sol–gel mesoporous silica host material with d-fructose as the template. The pore diameter and porosity of the silica host material, controlled by the fructose content, controlled the diffusion of substrate to the Enzyme. This in situ immobilized cellobiase showed little or no leakage while could be repeatedly used as bioCatalyst with little or no loss of activity after at least 9 cycles.
Xiang Zhang - One of the best experts on this subject based on the ideXlab platform.
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Synthesis of a Re-usable Cellobiase Enzyme Catalyst through In situ Encapsulation in Nonsurfactant Templated Sol–Gel Mesoporous Silica
Topics in Catalysis, 2012Co-Authors: Yen Wei, Sudipto Das, David Berke-schlessel, John K. Mcdonough, Lin Feng, Xiang Zhang, Wentao Zhai, Yingze CaoAbstract:We present a re-usable Enzyme Catalyst system via direct encapsulation of cellobiase in nonsurfactant templated sol–gel mesoporous silica host material with d-fructose as the template. The pore diameter and porosity of the silica host material, controlled by the fructose content, controlled the diffusion of substrate to the Enzyme. This in situ immobilized cellobiase showed little or no leakage while could be repeatedly used as bioCatalyst with little or no loss of activity after at least 9 cycles.
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synthesis of a re usable cellobiase Enzyme Catalyst through in situ encapsulation in nonsurfactant templated sol gel mesoporous silica
Topics in Catalysis, 2012Co-Authors: Yen Wei, Sudipto Das, John K. Mcdonough, Lin Feng, Xiang Zhang, Wentao Zhai, David Berkeschlessel, Yingze CaoAbstract:We present a re-usable Enzyme Catalyst system via direct encapsulation of cellobiase in nonsurfactant templated sol–gel mesoporous silica host material with d-fructose as the template. The pore diameter and porosity of the silica host material, controlled by the fructose content, controlled the diffusion of substrate to the Enzyme. This in situ immobilized cellobiase showed little or no leakage while could be repeatedly used as bioCatalyst with little or no loss of activity after at least 9 cycles.
Sudipto Das - One of the best experts on this subject based on the ideXlab platform.
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Synthesis of a Re-usable Cellobiase Enzyme Catalyst through In situ Encapsulation in Nonsurfactant Templated Sol–Gel Mesoporous Silica
Topics in Catalysis, 2012Co-Authors: Yen Wei, Sudipto Das, David Berke-schlessel, John K. Mcdonough, Lin Feng, Xiang Zhang, Wentao Zhai, Yingze CaoAbstract:We present a re-usable Enzyme Catalyst system via direct encapsulation of cellobiase in nonsurfactant templated sol–gel mesoporous silica host material with d-fructose as the template. The pore diameter and porosity of the silica host material, controlled by the fructose content, controlled the diffusion of substrate to the Enzyme. This in situ immobilized cellobiase showed little or no leakage while could be repeatedly used as bioCatalyst with little or no loss of activity after at least 9 cycles.
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synthesis of a re usable cellobiase Enzyme Catalyst through in situ encapsulation in nonsurfactant templated sol gel mesoporous silica
Topics in Catalysis, 2012Co-Authors: Yen Wei, Sudipto Das, John K. Mcdonough, Lin Feng, Xiang Zhang, Wentao Zhai, David Berkeschlessel, Yingze CaoAbstract:We present a re-usable Enzyme Catalyst system via direct encapsulation of cellobiase in nonsurfactant templated sol–gel mesoporous silica host material with d-fructose as the template. The pore diameter and porosity of the silica host material, controlled by the fructose content, controlled the diffusion of substrate to the Enzyme. This in situ immobilized cellobiase showed little or no leakage while could be repeatedly used as bioCatalyst with little or no loss of activity after at least 9 cycles.