Measuring small forces is a major challenge in cell biology. Here we improve the spatial resolution and accuracy of force reconstruction of the well-established technique of traction force microscopy (TFM) using STED microscopy. The increased spatial resolution of STED-TFM (STFM) allows a greater than 5-fold higher sampling of the forces generated by the cell than conventional TFM, accessing the nano instead of the micron scale. This improvement is highlighted by computer simulations and an activating RBL cell model system
Quantification of mechanical forces is a major challenge across biomedical sciences. Yet such measu...
Quantifying small, rapidly evolving forces generated by cells is a major challenge for the understan...
Quantifying cell generated mechanical forces is key to furthering our understanding of mechanobiolog...
Measuring small forces is a major challenge in cell biology. Here we improve the spatial resolution ...
Measuring small forces is a major challenge in cell biology. Here we improve the spatial resolution ...
Measuring small forces is a major challenge in cell biology. Here we improve the spatial resolution ...
Measuring small forces is a major challenge in cell biology. Here we improve the spatial resolution ...
Measuring small forces is a major challenge in cell biology. Here we improve the spatial resolution ...
Measuring small forces is a major challenge in cell biology. Here we improve the spatial resolution ...
Cells continuously exert or respond to mechanical force. Measurement of these nanoscale forces is a ...
Animal cells continuously sense and respond to mechanical force. Quantifying these forces remains a ...
Animal cells continuously sense and respond to mechanical force. Quantifying these forces remains a ...
Quantification of mechanical forces is a major challenge across biomedical sciences. Yet such measur...
Quantification of mechanical forces is a major challenge across biomedical sciences. Yet such measur...
Quantification of mechanical forces is a major challenge across biomedical sciences. Yet such measur...
Quantification of mechanical forces is a major challenge across biomedical sciences. Yet such measu...
Quantifying small, rapidly evolving forces generated by cells is a major challenge for the understan...
Quantifying cell generated mechanical forces is key to furthering our understanding of mechanobiolog...
Measuring small forces is a major challenge in cell biology. Here we improve the spatial resolution ...
Measuring small forces is a major challenge in cell biology. Here we improve the spatial resolution ...
Measuring small forces is a major challenge in cell biology. Here we improve the spatial resolution ...
Measuring small forces is a major challenge in cell biology. Here we improve the spatial resolution ...
Measuring small forces is a major challenge in cell biology. Here we improve the spatial resolution ...
Measuring small forces is a major challenge in cell biology. Here we improve the spatial resolution ...
Cells continuously exert or respond to mechanical force. Measurement of these nanoscale forces is a ...
Animal cells continuously sense and respond to mechanical force. Quantifying these forces remains a ...
Animal cells continuously sense and respond to mechanical force. Quantifying these forces remains a ...
Quantification of mechanical forces is a major challenge across biomedical sciences. Yet such measur...
Quantification of mechanical forces is a major challenge across biomedical sciences. Yet such measur...
Quantification of mechanical forces is a major challenge across biomedical sciences. Yet such measur...
Quantification of mechanical forces is a major challenge across biomedical sciences. Yet such measu...
Quantifying small, rapidly evolving forces generated by cells is a major challenge for the understan...
Quantifying cell generated mechanical forces is key to furthering our understanding of mechanobiolog...