The controlled assembly of synthetic polymer structures is now possible with an unprecedented range of functional groups and molecular architectures. In this critical review we consider how the ability to create artificial materials over lengthscales ranging from a few nm to several microns is generating systems that not only begin to mimic those in nature but also may lead to exciting applications in synthetic biology (139 references)
Research directed toward the biological production of novel polymeric materials is presented, in whi...
Complex chemical systems, such as living biological matter, are highly organized structures based on...
Complex chemical systems, such as living biological matter, are highly organized structures based on...
Nature is based on complex self-assembling systems that span from the nanoscale to the macroscale. W...
A grand challenge in materials chemistry is the synthesis of macromolecules and polymers with precis...
This paper describes the use of artificial genes to direct bacterial synthesis of new polypeptides o...
This paper describes the use of artificial genes to direct bacterial synthesis of new polypeptides o...
Nature is based on complex self-assembling systems that span from the nanoscale to the macroscale. W...
This paper describes the use of artificial genes to direct bacterial synthesis of new polypeptides o...
The fabrication of functional nanoscale devices requires the construction of complex architectures a...
The fabrication of functional nanoscale devices requires the construction of complex architectures a...
Nature has evolved sequence-controlled polymers, such as DNA and proteins, over its long history. Th...
AbstractThe topic synthetic biology appears still as an ‘empty basket to be filled’. However, there ...
Polymerization reactions are generally divided into two broad classes: step growth or polycondensati...
Polymerization reactions are generally divided into two broad classes: step growth or polycondensati...
Research directed toward the biological production of novel polymeric materials is presented, in whi...
Complex chemical systems, such as living biological matter, are highly organized structures based on...
Complex chemical systems, such as living biological matter, are highly organized structures based on...
Nature is based on complex self-assembling systems that span from the nanoscale to the macroscale. W...
A grand challenge in materials chemistry is the synthesis of macromolecules and polymers with precis...
This paper describes the use of artificial genes to direct bacterial synthesis of new polypeptides o...
This paper describes the use of artificial genes to direct bacterial synthesis of new polypeptides o...
Nature is based on complex self-assembling systems that span from the nanoscale to the macroscale. W...
This paper describes the use of artificial genes to direct bacterial synthesis of new polypeptides o...
The fabrication of functional nanoscale devices requires the construction of complex architectures a...
The fabrication of functional nanoscale devices requires the construction of complex architectures a...
Nature has evolved sequence-controlled polymers, such as DNA and proteins, over its long history. Th...
AbstractThe topic synthetic biology appears still as an ‘empty basket to be filled’. However, there ...
Polymerization reactions are generally divided into two broad classes: step growth or polycondensati...
Polymerization reactions are generally divided into two broad classes: step growth or polycondensati...
Research directed toward the biological production of novel polymeric materials is presented, in whi...
Complex chemical systems, such as living biological matter, are highly organized structures based on...
Complex chemical systems, such as living biological matter, are highly organized structures based on...