Recently, the Science and Technology Department of Zhejiang Province released the "2026 'Vanguard Leading Geese+X' Science and Technology Plan Project Approval Public List", which includes three provincial-level key science and technology projects jointly researched and developed by Jinggong Technology and Zhejiang University of Technology! The three major projects are centered around "equipment leadership, material collaboration, and application support", carrying out key technological breakthroughs and injecting strong impetus into China's carbon fiber industry's independent controllability and breakthroughs in high-end equipment technology.

As a major science and technology project in Zhejiang Province focusing on national major scientific and technological strategic goals and tackling strategic cutting-edge technologies, this plan aims to break through key core technologies and drive high-quality economic and social development.

The three projects successfully approved this time precisely anchor the major national strategic development goals and industrial innovation needs, focusing on the three strategic areas of "wind power energy, deep-sea equipment, and high-end motors". After multiple rounds of rigorous evaluation, they have both technological breakthroughs and industrial landing value, covering high-end application scenarios of carbon fiber composite materials in multiple dimensions and fields.

Breakthrough the situation with technological equipment and seize the high ground of the wind turbine market

In the field of wind power energy, the demand for lightweight and high load performance of carbon fiber materials for wind turbines is extremely prominent, and the market potential is huge. The "Key Technologies and Application Demonstration of Fiber Material Preparation for Ultra Large Wind Turbine Blades" project, led by Zhejiang University of Technology and participated by Jinggong Technology, aims to meet the design and manufacturing needs of large-sized fiber-reinforced composite fan blades, and conducts research on key core issues such as resin systems and infiltration behavior; The aim is to establish a high reliability technology system and standards that support the independent research and development of ultra large wind turbine blades, realize the demonstration application of 150 meter offshore wind turbine blades, greatly enhance the core competitiveness of China's offshore wind power equipment, connect the application chain of carbon fiber in the field of sea wind equipment, consolidate the foundation of the "carbon fiber+wind power energy" industry, and help achieve the "dual carbon" goal.

Breakthrough in Deep Sea Equipment Autonomy through Material Technology

In the field of deep-sea equipment, the "Key Materials and Manufacturing Technology for Deep Sea Lightweight Pressure resistant Shells" project faces extreme environmental challenges such as ultra-high hydrostatic pressure at 6000 meters, long-term corrosion, and alternating loads. In response to the core requirements of "lightweight, high reliability, and engineering" for pressure resistant structures, it overcomes the design, manufacturing, and evaluation bottlenecks of lightweight composite pressure resistant materials and structures throughout the entire deep-sea area. It will achieve independent controllability and performance breakthroughs of high-end pressure resistant structural materials in the deep sea, promote the industrial application and cost control of carbon fiber composite materials in core components of deep-sea equipment, and improve the application map of "carbon fiber+deep-sea equipment".

Building a solid foundation for localization through breakthroughs in core technologies

In the field of high-end motors, the "Key Technologies, Equipment Research and Application Demonstration of High Performance Permanent Magnet Motor Composite Sheath Laser In Situ Manufacturing" project, led by Jinggong (Shaoxing) Composite Materials under Jinggong Technology and participated by Zhejiang University of Technology, focuses on the urgent needs of high-speed motor high power density and high speed development, aiming to break through the core technologies of "light heat force" multi field coupling control and collaborative optimization of laser assisted in-situ forming. The project is expected to achieve the trial production and demonstration application of composite material protective sleeves for permanent magnet motor rotors with speeds above 20000rpm, laying a solid technical foundation for the localization of high-end permanent magnet motors and expanding the application scenarios of "carbon fiber+high-end motors".

The simultaneous inclusion of the three major projects this time is not only a landmark breakthrough in the collaboration between schools, enterprises, industry, academia, and research, as well as the deep integration of technological innovation and industrial innovation, but also a milestone in the industrial innovation of Jinggong Technology to accelerate the full chain layout of carbon fiber, expand innovative application scenarios, and plan the development blueprint of "carbon fiber+".

Looking ahead to the future, Jinggong Technology will accelerate the construction of an "equipment materials application" industrial ecosystem, using the "carbon fiber+" new model to promote the extension of carbon fiber composite new materials to multiple fields and high value-added scenarios, building a virtuous cycle of mutual promotion between technological innovation and industrial transformation, and helping strategic emerging industries and future industries achieve large-scale, high-quality, and controllable development.