The ability of cells to sense and respond to mechanical forces is central to a wide range of biological processes and plays an important role in numerous pathol- ogies. The molecular mechanisms underlying cellular mech- anotransduction, however, have remained largely elusive because suitable methods to investigate subcellular force propagation were missing. Here, we review recent advances in the development of biosensors that allow molecular force measurements. We describe the underlying principle of currently available techniques and propose a strategy to systematically evaluate new Fo ̈ rster resonance energy trans- fer (FRET)-based biosensor
We have developed a nanoscopic force sensor with optical readout. The sensor consists of a single-st...
Knowledge of the ionic strength in cells is required to understand the in vivo biochemistry of the c...
Mechanical forces are an integral part in biology, they regulate several cellular properties, such a...
Associate Editor Roger D Kamm oversaw the review of this article. Abstract—The ability of cells to s...
The ability of cells to sense and respond to mechanical forces is central to a wide range of biologi...
The inability to measure mechanical forces within cells has been limiting our understanding of how m...
1 Abstract and key words Mechanical forces have great impact on the life of cells. They influence ce...
The ability of cells to sense and respond to mechanical forces is crucial for a wide range of develo...
AbstractThree signaling systems play the fundamental roles in modulating cell activities: chemical, ...
Mechanical signals are central for the regulation of developmental, physiological, and pathological ...
Living cells are exquisitely responsive to mechanical cues, yet how cells produce and detect mechani...
Forster resonance energy transfer (FRET)-based tension sensor modules (TSM s) are available for inve...
The development of calibrated Forster resonance energy transfer (FRET)-based tension sensors has all...
Fluorescence- or Förster resonance energy transfer (FRET) is a measurable physical energy transfer p...
MEMS technology and devices have proven their importance in facilitating single cell stud-ies by pro...
We have developed a nanoscopic force sensor with optical readout. The sensor consists of a single-st...
Knowledge of the ionic strength in cells is required to understand the in vivo biochemistry of the c...
Mechanical forces are an integral part in biology, they regulate several cellular properties, such a...
Associate Editor Roger D Kamm oversaw the review of this article. Abstract—The ability of cells to s...
The ability of cells to sense and respond to mechanical forces is central to a wide range of biologi...
The inability to measure mechanical forces within cells has been limiting our understanding of how m...
1 Abstract and key words Mechanical forces have great impact on the life of cells. They influence ce...
The ability of cells to sense and respond to mechanical forces is crucial for a wide range of develo...
AbstractThree signaling systems play the fundamental roles in modulating cell activities: chemical, ...
Mechanical signals are central for the regulation of developmental, physiological, and pathological ...
Living cells are exquisitely responsive to mechanical cues, yet how cells produce and detect mechani...
Forster resonance energy transfer (FRET)-based tension sensor modules (TSM s) are available for inve...
The development of calibrated Forster resonance energy transfer (FRET)-based tension sensors has all...
Fluorescence- or Förster resonance energy transfer (FRET) is a measurable physical energy transfer p...
MEMS technology and devices have proven their importance in facilitating single cell stud-ies by pro...
We have developed a nanoscopic force sensor with optical readout. The sensor consists of a single-st...
Knowledge of the ionic strength in cells is required to understand the in vivo biochemistry of the c...
Mechanical forces are an integral part in biology, they regulate several cellular properties, such a...