Stem cells respond to nanoscale surface features, with changes in cell growth and differentiation mediated by alterations in cell adhesion. The interaction of nanotopographical features with integrin receptors in the cells' focal adhesions alters how the cells adhere to materials surfaces, and defines cell fate through changes in both cell biochemistry and cell morphology. In this Review, we discuss how cell adhesions interact with nanotopography, and we provide insight as to how materials scientists can exploit these interactions to direct stem cell fate and to understand how the behaviour of stem cells in their niche can be controlled. We expect knowledge gained from the study of cell–nanotopography interactions to accelerate the developm...
Manipulating neural stem cell (NSC) fate is of great importance for improving the therapeutic effica...
Nanotopography mimicking extracellular environments reportedly impact cell morphological changes; ho...
Stem cells (SCs) can self-renew or differentiate into different cell types, which makes them an idea...
Stem cells respond to nanoscale surface features, with changes in cell growth and differentiation me...
Stem cells are known for their potential to repair damaged tissues. The adhesion, growth and differe...
Stem cells have attracted great attention in recent years due to their promise in regenerative medic...
The growth of stem cells can be modulated by physical factors such as extracellular matrix nanotopog...
Human embryonic stem cells (hESCs) have great potentials for future cell-based therapeutics. However...
ells that adhere to the extracellular matrix (ECM) can sense and respond to a wide variety of chemic...
As materials technology and the field of biomedical engineering advances, the role of cellular mecha...
There is a rapidly growing body of literature on the effects of topography and critically, nanotopog...
Regulated biophysical cues, such as nanotopography, have been shown to be integral for tissue regene...
Regulated biophysical cues, such as nanotopography, have been shown to be integral for tissue regene...
Regulated biophysical cues, such as nanotopography, have been shown to be integral for tissue regene...
Regulated biophysical cues, such as nanotopography, have been shown to be integral for tissue regene...
Manipulating neural stem cell (NSC) fate is of great importance for improving the therapeutic effica...
Nanotopography mimicking extracellular environments reportedly impact cell morphological changes; ho...
Stem cells (SCs) can self-renew or differentiate into different cell types, which makes them an idea...
Stem cells respond to nanoscale surface features, with changes in cell growth and differentiation me...
Stem cells are known for their potential to repair damaged tissues. The adhesion, growth and differe...
Stem cells have attracted great attention in recent years due to their promise in regenerative medic...
The growth of stem cells can be modulated by physical factors such as extracellular matrix nanotopog...
Human embryonic stem cells (hESCs) have great potentials for future cell-based therapeutics. However...
ells that adhere to the extracellular matrix (ECM) can sense and respond to a wide variety of chemic...
As materials technology and the field of biomedical engineering advances, the role of cellular mecha...
There is a rapidly growing body of literature on the effects of topography and critically, nanotopog...
Regulated biophysical cues, such as nanotopography, have been shown to be integral for tissue regene...
Regulated biophysical cues, such as nanotopography, have been shown to be integral for tissue regene...
Regulated biophysical cues, such as nanotopography, have been shown to be integral for tissue regene...
Regulated biophysical cues, such as nanotopography, have been shown to be integral for tissue regene...
Manipulating neural stem cell (NSC) fate is of great importance for improving the therapeutic effica...
Nanotopography mimicking extracellular environments reportedly impact cell morphological changes; ho...
Stem cells (SCs) can self-renew or differentiate into different cell types, which makes them an idea...