The Experts below are selected from a list of 6456 Experts worldwide ranked by ideXlab platform
Guy Duportail - One of the best experts on this subject based on the ideXlab platform.
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Hexahistidine tagged single walled carbon nanotubes his6 tagswnts a multifunctional hard template for hierarchical directed self assembly and nanocomposite construction
Advanced Functional Materials, 2012Co-Authors: Rachid Baati, Dris Ihiawakrim, Rodrigue R. Mafouana, Ovidiu Ersen, Céline Dietlin, Guy DuportailAbstract:While a Hexahistidine affinity tag can be introduced at protein termini or internal sites by standard molecular biology procedures for purification, immobilization, or labeling of proteins, here the versatility of this concept is exploited for the chemical preparation of novel Hexahistidine-tagged single-walled carbon nanotubes (His6-tagSWNTs), a novel hard template useful for solubilizing, assembling, processing, and interfacing SWNTs in aqueous conditions. Water-soluble and exfoliated His6-tagSWNTs are prepared and fully characterized. This functional molecular module is able to interact via robust physisorption (π−π stacking) with the sidewall of SWNTs and combines the versatility of small, water-soluble reporters (His6) for hierarchical directed self-assembly (HDSA) and construction of nanocomposites. It is demonstrated that metal coordination bonds with Ni(II) can be used for the supramolecular self assembly of His6-tagSWNTs, generating complex reticulated networks and architectures. The His6-tagSWNTs hard template nanohybrid is further utilized for directed self-assembly with silica nanoparticles. The versatility of the novel hybrids opens a new era for the rational design, smart (bio)functionalization, processing, interfacing, and self assembling of carbon nanotubes for the construction of multicomposites and more complex systems with controllable spatial organization and programmable properties for a wide range of applications in biology, nanoelectronics, and catalysis.
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Hexahistidine‐Tagged Single‐Walled Carbon Nanotubes (His6‐tagSWNTs): A Multifunctional Hard Template for Hierarchical Directed Self‐Assembly and Nanocomposite Construction
Advanced Functional Materials, 2012Co-Authors: Rachid Baati, Dris Ihiawakrim, Rodrigue R. Mafouana, Ovidiu Ersen, Céline Dietlin, Guy DuportailAbstract:While a Hexahistidine affinity tag can be introduced at protein termini or internal sites by standard molecular biology procedures for purification, immobilization, or labeling of proteins, here the versatility of this concept is exploited for the chemical preparation of novel Hexahistidine-tagged single-walled carbon nanotubes (His6-tagSWNTs), a novel hard template useful for solubilizing, assembling, processing, and interfacing SWNTs in aqueous conditions. Water-soluble and exfoliated His6-tagSWNTs are prepared and fully characterized. This functional molecular module is able to interact via robust physisorption (π−π stacking) with the sidewall of SWNTs and combines the versatility of small, water-soluble reporters (His6) for hierarchical directed self-assembly (HDSA) and construction of nanocomposites. It is demonstrated that metal coordination bonds with Ni(II) can be used for the supramolecular self assembly of His6-tagSWNTs, generating complex reticulated networks and architectures. The His6-tagSWNTs hard template nanohybrid is further utilized for directed self-assembly with silica nanoparticles. The versatility of the novel hybrids opens a new era for the rational design, smart (bio)functionalization, processing, interfacing, and self assembling of carbon nanotubes for the construction of multicomposites and more complex systems with controllable spatial organization and programmable properties for a wide range of applications in biology, nanoelectronics, and catalysis.
Rachid Baati - One of the best experts on this subject based on the ideXlab platform.
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Hexahistidine tagged single walled carbon nanotubes his6 tagswnts a multifunctional hard template for hierarchical directed self assembly and nanocomposite construction
Advanced Functional Materials, 2012Co-Authors: Rachid Baati, Dris Ihiawakrim, Rodrigue R. Mafouana, Ovidiu Ersen, Céline Dietlin, Guy DuportailAbstract:While a Hexahistidine affinity tag can be introduced at protein termini or internal sites by standard molecular biology procedures for purification, immobilization, or labeling of proteins, here the versatility of this concept is exploited for the chemical preparation of novel Hexahistidine-tagged single-walled carbon nanotubes (His6-tagSWNTs), a novel hard template useful for solubilizing, assembling, processing, and interfacing SWNTs in aqueous conditions. Water-soluble and exfoliated His6-tagSWNTs are prepared and fully characterized. This functional molecular module is able to interact via robust physisorption (π−π stacking) with the sidewall of SWNTs and combines the versatility of small, water-soluble reporters (His6) for hierarchical directed self-assembly (HDSA) and construction of nanocomposites. It is demonstrated that metal coordination bonds with Ni(II) can be used for the supramolecular self assembly of His6-tagSWNTs, generating complex reticulated networks and architectures. The His6-tagSWNTs hard template nanohybrid is further utilized for directed self-assembly with silica nanoparticles. The versatility of the novel hybrids opens a new era for the rational design, smart (bio)functionalization, processing, interfacing, and self assembling of carbon nanotubes for the construction of multicomposites and more complex systems with controllable spatial organization and programmable properties for a wide range of applications in biology, nanoelectronics, and catalysis.
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Hexahistidine‐Tagged Single‐Walled Carbon Nanotubes (His6‐tagSWNTs): A Multifunctional Hard Template for Hierarchical Directed Self‐Assembly and Nanocomposite Construction
Advanced Functional Materials, 2012Co-Authors: Rachid Baati, Dris Ihiawakrim, Rodrigue R. Mafouana, Ovidiu Ersen, Céline Dietlin, Guy DuportailAbstract:While a Hexahistidine affinity tag can be introduced at protein termini or internal sites by standard molecular biology procedures for purification, immobilization, or labeling of proteins, here the versatility of this concept is exploited for the chemical preparation of novel Hexahistidine-tagged single-walled carbon nanotubes (His6-tagSWNTs), a novel hard template useful for solubilizing, assembling, processing, and interfacing SWNTs in aqueous conditions. Water-soluble and exfoliated His6-tagSWNTs are prepared and fully characterized. This functional molecular module is able to interact via robust physisorption (π−π stacking) with the sidewall of SWNTs and combines the versatility of small, water-soluble reporters (His6) for hierarchical directed self-assembly (HDSA) and construction of nanocomposites. It is demonstrated that metal coordination bonds with Ni(II) can be used for the supramolecular self assembly of His6-tagSWNTs, generating complex reticulated networks and architectures. The His6-tagSWNTs hard template nanohybrid is further utilized for directed self-assembly with silica nanoparticles. The versatility of the novel hybrids opens a new era for the rational design, smart (bio)functionalization, processing, interfacing, and self assembling of carbon nanotubes for the construction of multicomposites and more complex systems with controllable spatial organization and programmable properties for a wide range of applications in biology, nanoelectronics, and catalysis.
Dris Ihiawakrim - One of the best experts on this subject based on the ideXlab platform.
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Hexahistidine tagged single walled carbon nanotubes his6 tagswnts a multifunctional hard template for hierarchical directed self assembly and nanocomposite construction
Advanced Functional Materials, 2012Co-Authors: Rachid Baati, Dris Ihiawakrim, Rodrigue R. Mafouana, Ovidiu Ersen, Céline Dietlin, Guy DuportailAbstract:While a Hexahistidine affinity tag can be introduced at protein termini or internal sites by standard molecular biology procedures for purification, immobilization, or labeling of proteins, here the versatility of this concept is exploited for the chemical preparation of novel Hexahistidine-tagged single-walled carbon nanotubes (His6-tagSWNTs), a novel hard template useful for solubilizing, assembling, processing, and interfacing SWNTs in aqueous conditions. Water-soluble and exfoliated His6-tagSWNTs are prepared and fully characterized. This functional molecular module is able to interact via robust physisorption (π−π stacking) with the sidewall of SWNTs and combines the versatility of small, water-soluble reporters (His6) for hierarchical directed self-assembly (HDSA) and construction of nanocomposites. It is demonstrated that metal coordination bonds with Ni(II) can be used for the supramolecular self assembly of His6-tagSWNTs, generating complex reticulated networks and architectures. The His6-tagSWNTs hard template nanohybrid is further utilized for directed self-assembly with silica nanoparticles. The versatility of the novel hybrids opens a new era for the rational design, smart (bio)functionalization, processing, interfacing, and self assembling of carbon nanotubes for the construction of multicomposites and more complex systems with controllable spatial organization and programmable properties for a wide range of applications in biology, nanoelectronics, and catalysis.
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Hexahistidine‐Tagged Single‐Walled Carbon Nanotubes (His6‐tagSWNTs): A Multifunctional Hard Template for Hierarchical Directed Self‐Assembly and Nanocomposite Construction
Advanced Functional Materials, 2012Co-Authors: Rachid Baati, Dris Ihiawakrim, Rodrigue R. Mafouana, Ovidiu Ersen, Céline Dietlin, Guy DuportailAbstract:While a Hexahistidine affinity tag can be introduced at protein termini or internal sites by standard molecular biology procedures for purification, immobilization, or labeling of proteins, here the versatility of this concept is exploited for the chemical preparation of novel Hexahistidine-tagged single-walled carbon nanotubes (His6-tagSWNTs), a novel hard template useful for solubilizing, assembling, processing, and interfacing SWNTs in aqueous conditions. Water-soluble and exfoliated His6-tagSWNTs are prepared and fully characterized. This functional molecular module is able to interact via robust physisorption (π−π stacking) with the sidewall of SWNTs and combines the versatility of small, water-soluble reporters (His6) for hierarchical directed self-assembly (HDSA) and construction of nanocomposites. It is demonstrated that metal coordination bonds with Ni(II) can be used for the supramolecular self assembly of His6-tagSWNTs, generating complex reticulated networks and architectures. The His6-tagSWNTs hard template nanohybrid is further utilized for directed self-assembly with silica nanoparticles. The versatility of the novel hybrids opens a new era for the rational design, smart (bio)functionalization, processing, interfacing, and self assembling of carbon nanotubes for the construction of multicomposites and more complex systems with controllable spatial organization and programmable properties for a wide range of applications in biology, nanoelectronics, and catalysis.
Rodrigue R. Mafouana - One of the best experts on this subject based on the ideXlab platform.
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Hexahistidine tagged single walled carbon nanotubes his6 tagswnts a multifunctional hard template for hierarchical directed self assembly and nanocomposite construction
Advanced Functional Materials, 2012Co-Authors: Rachid Baati, Dris Ihiawakrim, Rodrigue R. Mafouana, Ovidiu Ersen, Céline Dietlin, Guy DuportailAbstract:While a Hexahistidine affinity tag can be introduced at protein termini or internal sites by standard molecular biology procedures for purification, immobilization, or labeling of proteins, here the versatility of this concept is exploited for the chemical preparation of novel Hexahistidine-tagged single-walled carbon nanotubes (His6-tagSWNTs), a novel hard template useful for solubilizing, assembling, processing, and interfacing SWNTs in aqueous conditions. Water-soluble and exfoliated His6-tagSWNTs are prepared and fully characterized. This functional molecular module is able to interact via robust physisorption (π−π stacking) with the sidewall of SWNTs and combines the versatility of small, water-soluble reporters (His6) for hierarchical directed self-assembly (HDSA) and construction of nanocomposites. It is demonstrated that metal coordination bonds with Ni(II) can be used for the supramolecular self assembly of His6-tagSWNTs, generating complex reticulated networks and architectures. The His6-tagSWNTs hard template nanohybrid is further utilized for directed self-assembly with silica nanoparticles. The versatility of the novel hybrids opens a new era for the rational design, smart (bio)functionalization, processing, interfacing, and self assembling of carbon nanotubes for the construction of multicomposites and more complex systems with controllable spatial organization and programmable properties for a wide range of applications in biology, nanoelectronics, and catalysis.
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Hexahistidine‐Tagged Single‐Walled Carbon Nanotubes (His6‐tagSWNTs): A Multifunctional Hard Template for Hierarchical Directed Self‐Assembly and Nanocomposite Construction
Advanced Functional Materials, 2012Co-Authors: Rachid Baati, Dris Ihiawakrim, Rodrigue R. Mafouana, Ovidiu Ersen, Céline Dietlin, Guy DuportailAbstract:While a Hexahistidine affinity tag can be introduced at protein termini or internal sites by standard molecular biology procedures for purification, immobilization, or labeling of proteins, here the versatility of this concept is exploited for the chemical preparation of novel Hexahistidine-tagged single-walled carbon nanotubes (His6-tagSWNTs), a novel hard template useful for solubilizing, assembling, processing, and interfacing SWNTs in aqueous conditions. Water-soluble and exfoliated His6-tagSWNTs are prepared and fully characterized. This functional molecular module is able to interact via robust physisorption (π−π stacking) with the sidewall of SWNTs and combines the versatility of small, water-soluble reporters (His6) for hierarchical directed self-assembly (HDSA) and construction of nanocomposites. It is demonstrated that metal coordination bonds with Ni(II) can be used for the supramolecular self assembly of His6-tagSWNTs, generating complex reticulated networks and architectures. The His6-tagSWNTs hard template nanohybrid is further utilized for directed self-assembly with silica nanoparticles. The versatility of the novel hybrids opens a new era for the rational design, smart (bio)functionalization, processing, interfacing, and self assembling of carbon nanotubes for the construction of multicomposites and more complex systems with controllable spatial organization and programmable properties for a wide range of applications in biology, nanoelectronics, and catalysis.
Ovidiu Ersen - One of the best experts on this subject based on the ideXlab platform.
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Hexahistidine tagged single walled carbon nanotubes his6 tagswnts a multifunctional hard template for hierarchical directed self assembly and nanocomposite construction
Advanced Functional Materials, 2012Co-Authors: Rachid Baati, Dris Ihiawakrim, Rodrigue R. Mafouana, Ovidiu Ersen, Céline Dietlin, Guy DuportailAbstract:While a Hexahistidine affinity tag can be introduced at protein termini or internal sites by standard molecular biology procedures for purification, immobilization, or labeling of proteins, here the versatility of this concept is exploited for the chemical preparation of novel Hexahistidine-tagged single-walled carbon nanotubes (His6-tagSWNTs), a novel hard template useful for solubilizing, assembling, processing, and interfacing SWNTs in aqueous conditions. Water-soluble and exfoliated His6-tagSWNTs are prepared and fully characterized. This functional molecular module is able to interact via robust physisorption (π−π stacking) with the sidewall of SWNTs and combines the versatility of small, water-soluble reporters (His6) for hierarchical directed self-assembly (HDSA) and construction of nanocomposites. It is demonstrated that metal coordination bonds with Ni(II) can be used for the supramolecular self assembly of His6-tagSWNTs, generating complex reticulated networks and architectures. The His6-tagSWNTs hard template nanohybrid is further utilized for directed self-assembly with silica nanoparticles. The versatility of the novel hybrids opens a new era for the rational design, smart (bio)functionalization, processing, interfacing, and self assembling of carbon nanotubes for the construction of multicomposites and more complex systems with controllable spatial organization and programmable properties for a wide range of applications in biology, nanoelectronics, and catalysis.
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Hexahistidine‐Tagged Single‐Walled Carbon Nanotubes (His6‐tagSWNTs): A Multifunctional Hard Template for Hierarchical Directed Self‐Assembly and Nanocomposite Construction
Advanced Functional Materials, 2012Co-Authors: Rachid Baati, Dris Ihiawakrim, Rodrigue R. Mafouana, Ovidiu Ersen, Céline Dietlin, Guy DuportailAbstract:While a Hexahistidine affinity tag can be introduced at protein termini or internal sites by standard molecular biology procedures for purification, immobilization, or labeling of proteins, here the versatility of this concept is exploited for the chemical preparation of novel Hexahistidine-tagged single-walled carbon nanotubes (His6-tagSWNTs), a novel hard template useful for solubilizing, assembling, processing, and interfacing SWNTs in aqueous conditions. Water-soluble and exfoliated His6-tagSWNTs are prepared and fully characterized. This functional molecular module is able to interact via robust physisorption (π−π stacking) with the sidewall of SWNTs and combines the versatility of small, water-soluble reporters (His6) for hierarchical directed self-assembly (HDSA) and construction of nanocomposites. It is demonstrated that metal coordination bonds with Ni(II) can be used for the supramolecular self assembly of His6-tagSWNTs, generating complex reticulated networks and architectures. The His6-tagSWNTs hard template nanohybrid is further utilized for directed self-assembly with silica nanoparticles. The versatility of the novel hybrids opens a new era for the rational design, smart (bio)functionalization, processing, interfacing, and self assembling of carbon nanotubes for the construction of multicomposites and more complex systems with controllable spatial organization and programmable properties for a wide range of applications in biology, nanoelectronics, and catalysis.