On September 3, 2025, a grand ceremony was held on Tiananmen Square in Beijing to commemorate the 80th anniversary of the victory of the Chinese People's War of Resistance Against Japanese Aggression and the World Anti Fascist War. When General Secretary Xi Jinping emphasized with a resounding voice the importance of "remembering history, honoring martyrs, cherishing peace, and creating the future", when 45 teams marched through Chang'an Avenue with steel like vigor, when 80000 peace doves flapped their wings and flew high, and 80000 balloons soared into the sky, my eyes moistened several times and my emotions surged.

Future sensor technology has broad application prospects in hypersonic missiles, and the following are some main aspects: Deep Applications of Quantum Sensors

On September 3, 2025, the military parade commemorating the 80th anniversary of the victory of the Chinese People's War of Resistance against Japanese Aggression and the World Anti Fascist War was held in Tiananmen Square in Beijing. This military parade is not only a solemn commemoration of historical victories, but also a concentrated display of the achievements of China's modernization of national defense forces, with the deep integration of sensor technology and national defense becoming a major highlight.

When the September bell rings again and students return to campus carrying backpacks, a "invisible protective network" constructed by sensor technology has already quietly unfolded. From intelligent lighting in classrooms to food safety monitoring in cafeterias, from environmental regulation in laboratories to safety warnings in dormitories, these small yet powerful devices are reshaping campus life with the power of technology, becoming indispensable "partners" for teachers and students.

In recent years, flexible electroluminescent devices have attracted much attention in the field of smart textiles, especially in lighting displays, wearable electronics, and interactive information systems. However, most current electroluminescent devices rely on petroleum based polymer matrices, complex high-voltage power sources, and embedded sensors, limiting their applicability in sustainable, lightweight, and visually intuitive wearable electronic products. In addition, mechanical mismatch between functional layers can easily lead to interface cracking or even delamination, further restricting its practical application.

Real time biochemical monitoring is crucial in personalized medicine and disease diagnosis. Fiber electrochemical sensors have become an ideal carrier for wearable devices due to their advantages of miniaturization and biocompatibility. However, the traditional surface functionalization preparation strategy has led to two major bottlenecks: firstly, the active material is easily peeled off from the high curvature fiber surface, resulting in mechanical degradation in dynamic biological environments (such as tissue deformation and fluid immersion), leading to monitoring failure; Secondly, the uniformity of the coating is difficult to control, with batch performance differences of up to 80%, which hinders large-scale applications.