Key result
The best results for visualizing mechanical tension in tissues were obtained using Xenopus embryos and a vinculin-based fluorescent mechanosensor.
Genetically encoded fluorescent mechanosensors, particularly those based on vinculin, can be effectively used to visualize mechanical tension in developing Xenopus embryos.
Facilitates noninvasive tension mapping in embryos; leaves open validation and broader developmental insights.
Lately, the growing body of quantitative data has provided evidence of the importance of mechanical forces in embryogenesis. The study of spatial and temporal distribution of mechanical tension in the course of embryogenesis is one of the most important problems of modern developmental biology. Development of genetically encoded fluorescent mechanosensors allowed their application in an intravital study of mechanical tension in developing embryos via noninvasive techniques. The possibility of applying fluorescent mechanosensors based on vinculin and C-cadherin to visualize mechanical tension in tissues of Gallus and Xenopus embryos was studied. The methods to express and detect these proteins, as well as process the resulting images, were elaborated. The best results were obtained using Xenopus embryos and the vinculin-based mechanosensor.
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Eroshkin et al. (2018) studied Embryogenesis. Genetically encoded fluorescent mechanosensors based on vinculin and C-cadherin was evaluated on Visualization of mechanical tension in tissues. The best results for visualizing mechanical tension in tissues were obtained using Xenopus embryos and a vinculin-based fluorescent mechanosensor.
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