We report on a method to fabricate biofunctionalized polyethylene glycol hydrogel microchannels with adjustable circular cross-sections. The inner channel surfaces are decorated with Au-nanoparticle arrays of tunable density. These Au-nanoparticles are functionalized with biomolecules whereas the hydrogel material provides an inert and biocompatible background. This technology provides control over flow conditions, channel curvature and biomolecule density on the channel surface. It can be applied for biophysical studies of cell-surface interactions mimicking, for example, leukocyte interactions with the endothelial lining in small vessels.peerReviewe
Precisely controlling the spatial distribution of biomolecules on biomaterial surface is important f...
Despite tremendous progress in recent years, nanopatterning of hydrated polymeric systems such as hy...
Abstract Nanoparticles-based glues have recently been shown with substantial potential for hydrogel ...
We report on a method to fabricate biofunctionalized polyethylene glycol hydrogel microchannels with...
In vivo, cells encounter different physical and chemical signals in the extracellular matrix (ECM) w...
This work describes the results of experimental study of the flow of soft objects (microgels) throug...
The research areas of tissue engineering and drug development have displayed increased interest in o...
Cellular functions such as cell growth, adhesion and differentiation are essentially controlled by t...
The human body consist of a vast number of cells, and jointly, the cells, form tissues and organs. T...
Culturing cells in a vascularized three-dimensional (3D) hydrogel scaffold has significant applicati...
The building blocks of human tissues are cells. The cells interact and respond to the characteristic...
Vascularization remains a critical challenge in tissue engineering. The development of vascular netw...
The ability to control the deposition and location of adherent and non-adherent cells within microfl...
In the present work we introduce a novel method to create linear and rectangular micro-patterns of g...
In the present work we introduce a novel method to create linear and rectangular micro-patterns of g...
Precisely controlling the spatial distribution of biomolecules on biomaterial surface is important f...
Despite tremendous progress in recent years, nanopatterning of hydrated polymeric systems such as hy...
Abstract Nanoparticles-based glues have recently been shown with substantial potential for hydrogel ...
We report on a method to fabricate biofunctionalized polyethylene glycol hydrogel microchannels with...
In vivo, cells encounter different physical and chemical signals in the extracellular matrix (ECM) w...
This work describes the results of experimental study of the flow of soft objects (microgels) throug...
The research areas of tissue engineering and drug development have displayed increased interest in o...
Cellular functions such as cell growth, adhesion and differentiation are essentially controlled by t...
The human body consist of a vast number of cells, and jointly, the cells, form tissues and organs. T...
Culturing cells in a vascularized three-dimensional (3D) hydrogel scaffold has significant applicati...
The building blocks of human tissues are cells. The cells interact and respond to the characteristic...
Vascularization remains a critical challenge in tissue engineering. The development of vascular netw...
The ability to control the deposition and location of adherent and non-adherent cells within microfl...
In the present work we introduce a novel method to create linear and rectangular micro-patterns of g...
In the present work we introduce a novel method to create linear and rectangular micro-patterns of g...
Precisely controlling the spatial distribution of biomolecules on biomaterial surface is important f...
Despite tremendous progress in recent years, nanopatterning of hydrated polymeric systems such as hy...
Abstract Nanoparticles-based glues have recently been shown with substantial potential for hydrogel ...