The growth of neurons into networks of controlled geometry is of great interest in the field of cell-based biosensors, neuroelectronic circuits, neurological implants, pharmaceutical testing as well as fundamental biological questions about neuronal interactions. The precise control of the network architecture can be achieved by defined engineering of the surface material properties: this process is called neuronal cell patterning. Different techniques can be used to produce such surface patterns. We have chosen microcontact printing (mu CP), because it is a comparatively simple and universal method for patterning biomolecules
Engineering of neuronal network geometry by micropatterning technology is a key future technology fo...
Background: Multi-electrode arrays (MEAs) allow non-invasive multi-unit recording in-vitro from cult...
The presented thesis describes the formation of functional neuronal networks on an underlying micro...
The in vitro assembly of neuronal networks with control over cell position and connectivity is a fas...
Microcontact printing (mu CP) of extracellular matrix proteins is a fascinating approach to control ...
Micro-patterning of neuronal cells in vitro is a critical step for studies in the fundamental biolog...
Microcontact printing (microCP) of proteins has been successfully used for patterning surfaces in va...
We present a method for patterning neural stem cells based on pre-patterning polypeptides on a cellr...
High resolution lithography combined with microcontact printing (µCP) by means of polyolefine polyme...
Cells navigate by integrating signals derived from the discrete binding of signaling proteins with i...
Patterned neuronal cell cultures are important tools for investigating neuronal signal integration, ...
A spatially resolved delivery of substances integrated with cell culture substrates shows promise fo...
A grid micropattern of neuronal cells was formed on a free-standing collagen film (35 μm thickness) ...
Paper presented at the 29th Annual International Conference of IEEE-EMBS, Engineering in Medicine an...
Functional networks are the basis of information processing in the central nervous system. Essential...
Engineering of neuronal network geometry by micropatterning technology is a key future technology fo...
Background: Multi-electrode arrays (MEAs) allow non-invasive multi-unit recording in-vitro from cult...
The presented thesis describes the formation of functional neuronal networks on an underlying micro...
The in vitro assembly of neuronal networks with control over cell position and connectivity is a fas...
Microcontact printing (mu CP) of extracellular matrix proteins is a fascinating approach to control ...
Micro-patterning of neuronal cells in vitro is a critical step for studies in the fundamental biolog...
Microcontact printing (microCP) of proteins has been successfully used for patterning surfaces in va...
We present a method for patterning neural stem cells based on pre-patterning polypeptides on a cellr...
High resolution lithography combined with microcontact printing (µCP) by means of polyolefine polyme...
Cells navigate by integrating signals derived from the discrete binding of signaling proteins with i...
Patterned neuronal cell cultures are important tools for investigating neuronal signal integration, ...
A spatially resolved delivery of substances integrated with cell culture substrates shows promise fo...
A grid micropattern of neuronal cells was formed on a free-standing collagen film (35 μm thickness) ...
Paper presented at the 29th Annual International Conference of IEEE-EMBS, Engineering in Medicine an...
Functional networks are the basis of information processing in the central nervous system. Essential...
Engineering of neuronal network geometry by micropatterning technology is a key future technology fo...
Background: Multi-electrode arrays (MEAs) allow non-invasive multi-unit recording in-vitro from cult...
The presented thesis describes the formation of functional neuronal networks on an underlying micro...