Promoting research and development of artificial intelligence strain sensors, microelectromechanical systems skin, the development of implantable biological field sensors and biological diagnostics. To further promote the practical application of the strain sensors, considering its stability during use is particularly important. Especially in some harsh environments such as water, microorganisms, acidic, basic conditions can lead to device conductivity and electronic sensing instability, thus affecting the performance of the strain sensor and shorten its life. For example, a microorganism in an aqueous environment the surface of bacteria attached to the sensor, corrosion of the conductive layer, so that the interference pathway. Water can penetrate into the pathway, interference sensing performance. In order to avoid the environmental impact of liquid sensor performance, extending its life, to build a super-hydrophobic surface of the sensor is a good strategy. Since the area of contact between the liquid and super-hydrophobic surface is very small, the conductive layer difficult to penetrate the liquid sensor. But previously reported superhydrophobic sensor focused on the design of ultra-hydrophobic strain sensor function, and how the design of liquid anti-interference strain sensor and studies the mechanism of liquid anti-interference, has not been reported. Recently, Guangzhou University Professor Lin Jingfu , Beijing Normal University, Professor Liu Nan and the University of Tennessee [123 ] Guo Zhanhu Associate Professor cooperation proposed a new strategies interference against liquids and a flexible strain sensor bacterial adhesion was . of a fluorine-containing unique micro / nano structure by constructing multilevel F / Ag / MWCNG / G-PDMS (FAMG) strain sensors, the liquid in the Cassie-Baxter state wetted surface of the sensor, performance superhydrophobic resistance and self-cleaning function. The surplus stable sensor performance liquid resistant strain sensing interfering in tests, while having high sensitivity, wide strain range, the advantages of quick response time. The authors also explored in depth Cassie-Baxter state wetting liquid resistant strain sensing interference in the action of the strain sensor and high sensitivity, wide strain range of reasons. Further, the sensor exhibits excellent underwater superhydrophobic and oleophobic, so that it has good resistance to interference and antibacterial liquid adhesive properties. Finally, the sensor is applied to an electronic EagleWings in outdoor sports and artificial rainfall monitoring, and monitoring of human motion a complex environment, indicating its potential applications in the field of wearable electronic devices. The work entitled \”Anti-liquid-Interfering andBacterially Antiadhesive Strategy for Highly Stretchable and UltrasensitiveStrain Sensors Based on Cassie-Baxter Wetting State\” published in \” Advanced Functional Materials \” (Adv. Funct. Mater. 2020,2000398) on.