Mechanosensitive flipper probes are attracting interest as fluorescent reporters of membrane order and tension in biological systems. We introduce PhotoFlippers, which contain a photocleavable linker and an ultralong tether between mechanophore and various targeting motifs. Upon irradiation, the original probe is released and labels the most ordered membrane that is accessible by intermembrane transfer. Spatiotemporal control from photocleavable flippers is essential to access open, dynamic or elusive membrane motifs without chemical or physical interference. For instance, fast release with light is shown to place the original small-molecule probes into the innermost leaflet of the nuclear envelope to image changes in membrane tension, at s...
Planarizable push–pull fluorescent probes, also referred to as flipper probes, have been introduced ...
In this report, “fluorescent flippers” are introduced to create planarizable push–pull probes with t...
Abstract Measuring forces within living cells remains a technical challenge. We developed hydrophobi...
In 2016, Flipper-TR® has been introduced as the first small fluorescent molecule capable of visualiz...
Tools to image membrane tension in response to mechanical stimuli are badly needed in mechanobiology...
Tools to image membrane tension in response to mechanical stimuli are badly needed in mechanobiology...
Measuring forces inside cells is particularly challenging. With the development of quantitative micr...
We report the design, synthesis, and evaluation of fluorescent flipper probes for single-molecule su...
HydroFlippers are introduced as the first fluorescent membrane tension probes that report simultaneo...
In this report, “fluorescent flippers” are introduced to create planarizable push–pull probes with t...
Lateral forces in biological membranes affect a variety of dynamic cellular processes. Recent synthe...
Flipper-TR® was introduced to image membrane tension in living cells. Targeting strategies to study ...
Cells and organelles are delimited by lipid bilayers in which high deformability is essential to man...
Measuring forces inside cells is particularly challenging. With the development of quantitative micr...
To image the membrane tension in living cells, planarizable push–pull probes have been introduced. T...
Planarizable push–pull fluorescent probes, also referred to as flipper probes, have been introduced ...
In this report, “fluorescent flippers” are introduced to create planarizable push–pull probes with t...
Abstract Measuring forces within living cells remains a technical challenge. We developed hydrophobi...
In 2016, Flipper-TR® has been introduced as the first small fluorescent molecule capable of visualiz...
Tools to image membrane tension in response to mechanical stimuli are badly needed in mechanobiology...
Tools to image membrane tension in response to mechanical stimuli are badly needed in mechanobiology...
Measuring forces inside cells is particularly challenging. With the development of quantitative micr...
We report the design, synthesis, and evaluation of fluorescent flipper probes for single-molecule su...
HydroFlippers are introduced as the first fluorescent membrane tension probes that report simultaneo...
In this report, “fluorescent flippers” are introduced to create planarizable push–pull probes with t...
Lateral forces in biological membranes affect a variety of dynamic cellular processes. Recent synthe...
Flipper-TR® was introduced to image membrane tension in living cells. Targeting strategies to study ...
Cells and organelles are delimited by lipid bilayers in which high deformability is essential to man...
Measuring forces inside cells is particularly challenging. With the development of quantitative micr...
To image the membrane tension in living cells, planarizable push–pull probes have been introduced. T...
Planarizable push–pull fluorescent probes, also referred to as flipper probes, have been introduced ...
In this report, “fluorescent flippers” are introduced to create planarizable push–pull probes with t...
Abstract Measuring forces within living cells remains a technical challenge. We developed hydrophobi...