After years of dedicated research and development, SZLKTE has successfully independently developed piezoelectric ceramic drive modules and a high-performance control architecture, both with fully independent intellectual property rights. Its core valve body leverages the inverse piezoelectric effect of piezoelectric materials to achieve ultra-fast microsecond-level response and nanometer-level displacement control accuracy, completely eliminating the hysteresis, heat generation, and wear issues inherent in traditional solenoid valves. Combined with SZLKTE’s self-developed multi-parameter coupling compensation algorithm, the dispensing valve maintains exceptional stability in fluid output even during high-speed operation, with dispensing repeatability within ±1% and a minimum dot diameter as small as 0.2 mm.

We are officially launching a new generation of intelligent dispensing valves. The SZLKTE piezoelectric micro-dispensing valve features built-in high-precision sensors that can monitor key parameters such as pressure, temperature, and flow rate in real time; its adaptive control system dynamically adjusts output to ensure absolute consistency under long-term operation and complex working conditions. In addition, its open communication interfaces and rich process data provide robust support for building digital production lines, enabling predictive maintenance and in-depth process optimization.

SZLKTE not only prioritizes product innovation but has also established a solid “application R&D–testing and validation” system. Currently, SZLKTE’s products and solutions are widely used in cutting-edge fields such as 5G communication equipment, new-energy vehicle batteries, wearable smart devices, micro-sensors, and biochips.

The general manager of Shenzhen SZLKTE Technology Co., Ltd. stated: “All our efforts are devoted to making the dispensing process exceptionally reliable and precise. In 2026, SZLKTE will continue to increase R&D investment, deepen cooperation with universities and research institutes, and persistently explore more advanced areas such as microfluidics and semiconductor-grade material jetting, striving to empower the upgrading and leapfrogging of high-end manufacturing through smarter, more precise core technologies.”