One of the most promising tools for future applications in science and medicine is the use of nanotechnologies. Especially self-assembly systems, e.g., polyelectrolyte (PE) capsules prepared by means of the layer-by-layer technique with tailored properties, fulfill the requirements for nano-organized systems in a satisfactory manner. The nano-organized shells are suitable as coating for living cells or artificial tissue to prevent immune response. With these shells, material can be delivered to predefined organs. In this paper, some preliminary results are presented, giving a broad overview over the possibilities to use nano-organized capsules. Based on the observations that the cells while duplicating break the capsule a mutant yeast strai...
Encapsulation of cells has been an active area of research. Among various methods for encapsulation,...
We demonstrate that living cells can be encapsulated inside sporopollenin microcapsules derived from...
Living cells interfaced with a range of polyelectrolyte coatings, magnetic and noble metal nanoparti...
One of the most promising tools for future applications in science and medicine is the use of nanote...
One of the most promising applications of encapsulated living cells is their use as protected transp...
Nanocapsules, fuzzy assemblies of polyelectrolyte, represent a comparatively new class of colloids w...
We report the layer-by-layer coating of living fungi cells (Saccharomyces cerevisiae and Trichoderma...
PhDMaking headway in the field of biomaterials research and specifically in vivo drug delivery using...
The delivery and controlled release of drugs in the human body is one of the main research fields of...
Immune protection of artificial tissue by means of pancreatic islet microencapsulation is a very amb...
International audienceSaccharomyces cerevisiae, a eukaryotic model organism, plays a key role in the...
Cell-surface engineering has been attracting increased interest in the field of biotechnology, tissu...
© 2016 Dr. Xi ChenThe interactions between nanostructured materials and biological systems (nano-bio...
Figure Persented: Layer-by-layer encapsulation of living biological cells and other microorganisms v...
Encapsulation of cells has been an active area of research. Among various methods for encapsulation,...
We demonstrate that living cells can be encapsulated inside sporopollenin microcapsules derived from...
Living cells interfaced with a range of polyelectrolyte coatings, magnetic and noble metal nanoparti...
One of the most promising tools for future applications in science and medicine is the use of nanote...
One of the most promising applications of encapsulated living cells is their use as protected transp...
Nanocapsules, fuzzy assemblies of polyelectrolyte, represent a comparatively new class of colloids w...
We report the layer-by-layer coating of living fungi cells (Saccharomyces cerevisiae and Trichoderma...
PhDMaking headway in the field of biomaterials research and specifically in vivo drug delivery using...
The delivery and controlled release of drugs in the human body is one of the main research fields of...
Immune protection of artificial tissue by means of pancreatic islet microencapsulation is a very amb...
International audienceSaccharomyces cerevisiae, a eukaryotic model organism, plays a key role in the...
Cell-surface engineering has been attracting increased interest in the field of biotechnology, tissu...
© 2016 Dr. Xi ChenThe interactions between nanostructured materials and biological systems (nano-bio...
Figure Persented: Layer-by-layer encapsulation of living biological cells and other microorganisms v...
Encapsulation of cells has been an active area of research. Among various methods for encapsulation,...
We demonstrate that living cells can be encapsulated inside sporopollenin microcapsules derived from...
Living cells interfaced with a range of polyelectrolyte coatings, magnetic and noble metal nanoparti...