However, the powerful combination of high voltage and high frequency also poses nearly cruel physical tests on every basic passive component inside the vehicle. In this technological wave of winning the 800V era, MLCCs (Multilayer Ceramic Capacitors) once again become the key cornerstone related to the success or failure of the entire high-voltage power system.

In this grand project pursuing ultimate balance and agility, MLCCs (Multilayer Ceramic Capacitors), as the cornerstone of analog frontends and signal conditioning circuits, are playing an irreplaceable role with their pure guardianship of microvolt-level signals.

In this journey with ultimate pursuit of flight safety and high maneuverability, MLCCs (Multilayer Ceramic Capacitors), as the cornerstone of power distribution and signal filtering, are shouldering the heavy responsibility of guarding the "nerve center" of the flight control system.

Driven by the wave of "Whole-House Intelligence" and AIoT, every socket, switch, light bulb, gateway, and speaker around us has been endowed with "wisdom." However, compared with the extreme environments of industrial-grade or aerospace-grade equipment, smart home hardware faces another kind of stringent test: they must operate faultlessly and silently

When we easily achieve "two-way satellite calls" on our phones, when drone clusters achieve ultra-low latency real-time HD transmission at altitudes of 10,000 meters through 5.5G (5G-Advanced) networks — the boundaries of wireless communication are being relentlessly expanded by the giant wheel of technology time and again.

In today's rapid advancement of Embodied AI, robots are no longer just "iron arms" in factories that mechanically repeat fixed actions. Walking into the cutting-edge technology exhibition hall of 2026, bipedal humanoid robots can flexibly pass eggs with both hands and autonomously shuttle through complex home environments to wash clothes

In AI computing power clusters, massive data exchange between GPUs and distributed synchronization of large model parameters generate astronomical amounts of traffic every moment. However, traditional copper cables often encounter severe signal attenuation and bandwidth bottlenecks when facing ultra-long-distance, ultra-high-rate data transmission. As a result, high-speed optical transceivers

As classical silicon-based semiconductors gradually touch the boundaries of physical limits, a scientific revolution disrupting human computing power is quietly erupting deep within laboratories — this is the future technology represented by quantum computers and superconducting electronics.

As human footprints advance toward deep space, as probes Darw out  elegant orbits in space at minus 200 degrees Celsius, as new-generation satellite constellations build global communication networks at altitudes of thousands of kilometers — human exploration of technology is repeatedly approaching the limits of the physical world.

Walking into a highly automated modern lighthouse factory, dozens of collaborative robots wave their mechanical arms with astonishing precision for high-speed assembly; AGV carts shuttle between various workstations for autonomous material delivery; densely packed PLC control cabinets and servo drives emit a low and steady hum — this is a symphony of modern industry.