\u3cp\u3eIn order to better understand the brain and brain diseases, in vitro human brain models need to include not only a chemically and physically relevant microenvironment, but also structural network complexity. This complexity reflects the hierarchical architecture in brain tissue. Here, a method has been developed that adds complexity to a 3D cell culture by means of nanogrooved substrates. SH-SY5Y cells were grown on these nanogrooved substrates and covered with Matrigel, a hydrogel. To quantitatively analyze network behavior in 2D neuronal cell cultures, we previously developed an automated image-based screening method. We first investigated if this method was applicable to 3D primary rat brain cortical (CTX) cell cultures. Since t...
A new generation of in vitro human brain models is vital to surpass the limitations of current cell ...
A new generation of in vitro human brain models is vital to surpass the limitations of current cell ...
The need for in vitro models that mimic the human brain to replace animal testing and allow high-thr...
In order to better understand the brain and brain diseases, in vitro human brain models need to incl...
In order to better understand the brain and brain diseases, in vitro human brain models need to incl...
In order to better understand the brain and brain diseases, in vitro human brain models need to incl...
In order to better understand the brain and brain diseases, in vitro human brain models need to incl...
In order to better understand the brain and brain diseases, in vitro human brain models need to incl...
In this contribution, the authors present our advances in three-dimensional (3D) neuronal cell cultu...
\u3cp\u3eA new generation of in vitro human brain models is vital to surpass the limitations of curr...
Brain-on-chip (BOC) technology such as nanogrooves and microtunnel structures can advance in vitro n...
Brain-on-chip (BOC) technology such as nanogrooves and microtunnel structures can advance in vitro n...
We present a simple and easy to handle PDMS microfluidic device for neuronal cell culture studies in...
Brain-on-chip (BOC) technology such as nanogrooves and microtunnel structures can advance in vitro n...
A new generation of in vitro human brain models is vital to surpass the limitations of current cell ...
A new generation of in vitro human brain models is vital to surpass the limitations of current cell ...
A new generation of in vitro human brain models is vital to surpass the limitations of current cell ...
The need for in vitro models that mimic the human brain to replace animal testing and allow high-thr...
In order to better understand the brain and brain diseases, in vitro human brain models need to incl...
In order to better understand the brain and brain diseases, in vitro human brain models need to incl...
In order to better understand the brain and brain diseases, in vitro human brain models need to incl...
In order to better understand the brain and brain diseases, in vitro human brain models need to incl...
In order to better understand the brain and brain diseases, in vitro human brain models need to incl...
In this contribution, the authors present our advances in three-dimensional (3D) neuronal cell cultu...
\u3cp\u3eA new generation of in vitro human brain models is vital to surpass the limitations of curr...
Brain-on-chip (BOC) technology such as nanogrooves and microtunnel structures can advance in vitro n...
Brain-on-chip (BOC) technology such as nanogrooves and microtunnel structures can advance in vitro n...
We present a simple and easy to handle PDMS microfluidic device for neuronal cell culture studies in...
Brain-on-chip (BOC) technology such as nanogrooves and microtunnel structures can advance in vitro n...
A new generation of in vitro human brain models is vital to surpass the limitations of current cell ...
A new generation of in vitro human brain models is vital to surpass the limitations of current cell ...
A new generation of in vitro human brain models is vital to surpass the limitations of current cell ...
The need for in vitro models that mimic the human brain to replace animal testing and allow high-thr...