Three-dimensional fiber networks were created from an organogel system consisting mainly of elongated fibrils by using a nonionic surfactant as an additive. The presence of the surfactant molecules manipulates the network structure by enhancing the mismatch nucleation on the growing fiber tips. Both the fiber network structure and the rheological properties of the material can be finely tuned by changing the surfactant concentration, which provides a robust approach to the engineering of supramolecular soft functional materials.<br /
Nature uses combined covalent (chemical bonds) and non-covalent (physical bonds) synthesis in a high...
The architecture of self-organized three-dimensionally interconnected nanocrystal fibrillar networks...
The cytoskeleton is a highly adaptive network of filamentous proteins capable of stiffening under st...
Three-dimensional fiber networks were created from an organogel system consisting mainly of elongate...
The influence of a nonionic surfactant polyoxyethylene sirbitan monooelate on the structure of the f...
The formation of fiber networks and the resulting rheological properties of supramolecular soft mate...
The engineering of soft functional materials based on the construction of three-dimensional intercon...
This article gives an overview of the current progress of a class of supramolecular soft materials c...
The rheological properties of supramolecular soft functional materials are determined by the network...
The architecture of a biocompatible organogel formed by gelation of a small molecule organic gelator...
Crystalline spherulitic fiber networks are commonly observed in polymeric and supramolecular functio...
A new approach of engineering of molecular gels was established on the basis of a nucleation-initiat...
The architecture of a biocompatible organogel formed by gelation of a small molecule organic gelator...
The architecture of three-dimensional interconnecting self-organized nanofiber networks from separat...
Manipulating molecular assembly is significant for achieving materials with desirable performances. ...
Nature uses combined covalent (chemical bonds) and non-covalent (physical bonds) synthesis in a high...
The architecture of self-organized three-dimensionally interconnected nanocrystal fibrillar networks...
The cytoskeleton is a highly adaptive network of filamentous proteins capable of stiffening under st...
Three-dimensional fiber networks were created from an organogel system consisting mainly of elongate...
The influence of a nonionic surfactant polyoxyethylene sirbitan monooelate on the structure of the f...
The formation of fiber networks and the resulting rheological properties of supramolecular soft mate...
The engineering of soft functional materials based on the construction of three-dimensional intercon...
This article gives an overview of the current progress of a class of supramolecular soft materials c...
The rheological properties of supramolecular soft functional materials are determined by the network...
The architecture of a biocompatible organogel formed by gelation of a small molecule organic gelator...
Crystalline spherulitic fiber networks are commonly observed in polymeric and supramolecular functio...
A new approach of engineering of molecular gels was established on the basis of a nucleation-initiat...
The architecture of a biocompatible organogel formed by gelation of a small molecule organic gelator...
The architecture of three-dimensional interconnecting self-organized nanofiber networks from separat...
Manipulating molecular assembly is significant for achieving materials with desirable performances. ...
Nature uses combined covalent (chemical bonds) and non-covalent (physical bonds) synthesis in a high...
The architecture of self-organized three-dimensionally interconnected nanocrystal fibrillar networks...
The cytoskeleton is a highly adaptive network of filamentous proteins capable of stiffening under st...