Congzi Quantum Radiation Dual Equations Make Global Debut, Pioneering New Direction in Electromagnetic and Nuclear Power Technologies

Share this news:

-- Recently, Shandong Congzi SuperSCI Quantum Co., Ltd. held the "Nuclear Electromagnetism·Unified Equations" technology launch event in Jinan Shandong, where it officially released the congzi electromagnetic unification and nuclear power unification quantum radiation equations. Specializing in congzi theory, the company has established a unified technical framework integrating electromagnetism, nuclear power, and microscopic particles. This development not only addresses critical gaps in traditional models but also unlocks new avenues for practical quantum technology, marking a significant step in China's independent innovation in the quantum field.

Innovation at the Core: Breaking Conventions to Overcome Industry Challenges

The development of the congzi quantum radiation dual equations stems from the company’s commitment to challenging conventions and pursuing fundamental innovation, backed by extensive efforts. While quantum technology shows potential in specific areas, traditional models often rely on empirical parameters, failing to provide a fundamental microscopic-level explanation of interactions. This limitation results in persistent application challenges such as signal interference and design inaccuracies, hindering industry progress toward high-precision innovation.

To address these issues, the team moved away from the conventional "moving mass" concept in physics. Instead, they adopted a novel approach based on the principle that "mass remains constant while force varies with speed," leading to the creation of the congzi force-velocity relativity framework. This model underwent numerous optimizations and validations to ensure theoretical robustness.

During critical stages of equation derivation, the team repeatedly refined their models to resolve challenges related to interaction patterns between congzi and charges. By proposing a new hypothesis based on the quantized nature of charge and validating it through multi-scenario testing, the team clarified the interaction mechanisms among key components. This clarification ensures the equations' applicability across scenarios ranging from microscopic particles to macroscopic devices, laying a solid foundation for practical implementation and industrial advancement.

According to Chairman Xiao Ping, the company’s philosophy of "daring to break through, avoiding blind conformity, and emphasizing empirical evidence" was instrumental in developing a theoretical system that meets practical needs. This approach has accelerated China’s transition from following to leading in quantum radiation theory.

​​

Technological Breakthrough: Unified Framework Unlocks New Opportunities​​

The congzi quantum radiation dual equations represent a significant technical advance, characterized by unification, precision, efficiency, and practical applicability. Lead researcher Cong Yongping identified three core breakthroughs: First, the congzi force-velocity relativity establishes a bridge between macroscopic forces and microscopic particles. Second, the "Small Moon Constant N₀" serves as a key parameter for quantifying microscopic radiation and macroscopic energy transformation, addressing the previous lack of a standard for measuring particle interaction intensity. Third, the gongying field phase transition mechanism describes the conversion process between electromagnetic and nuclear energy fields, supporting cross-domain energy interactions.

Simultaneously, the equations also provide extensive coverage from micro to macro scales and across multiple disciplines, offering full-chain support for technological innovation. For example, the congzi electrostatic field quantum radiation equation can directly derive de broglie waves in chemistry, while the congzi Dynamic Electric Field Quantum Radiation Equation can deduce multiple core formulas in physics—from the Biot-Savart Law and Ampere’s Law to Lorentz transformations, thermodynamic temperature equations, and Maxwell's equations. The framework also enhances the unified nuclear power equation system, serving as a comprehensive "theoretical toolbox" for innovations in electromagnetic and nuclear power technologies.

As theoretical achievements mature, technological transformation advances in parallel. The company has filed multiple patent applications for technologies related to the congzi theory, covering equation application methods and device design solutions. These applications mark a crucial step toward translating theoretical achievements into industrial use, strengthening the company’s competitive position in this emerging field.

​​

Application Value: Boosting Academic Research and Industrial Development​​

In academia, the equations offer new perspectives and tools for advanced research. In quantum physics, they can support the development of gravity-electromagnetism coupling technology and studies on Higgs particle nuclear medium effects, providing a foundation for quantum gravity detection equipment and enabling precise particle physics experiment design. In astrophysics, the equations could facilitate exploration of black hole gravitational and electromagnetic field interactions, help explain the quantum properties of black hole radiation, and aid in the discovery and positioning of celestial bodies such as nebulae and asteroids by analyzing cosmic electromagnetic radiation and gravitational correlations. They may also allow precise calculation of celestial motion and energy changes in particle interactions, contributing to deep-space exploration and particle physics research. For industry applications, the equations address challenges across multiple sectors.

In biomedicine, they could improve the accuracy and efficiency of protein folding calculations, reduce target screening cycles by over 30%, lower computational costs, and accelerate drug development. In new materials and energy, they can support catalyst design, performance optimization, and the development of high-performance conductive materials and heat-resistant ceramics, while also enhancing the light absorption and energy conversion mechanisms of photovoltaic cells to improve efficiency and advance the new energy industry. The equations help minimize experimental trial-and-error, reduce costs, and are compatible with existing technical standards and experimental data across different scales, allowing enterprises to achieve technological upgrades through algorithm or parameter optimization without large-scale equipment changes. Applications span communications anti-interference, quantum key distribution terminal technology, semiconductor device design, nanorobot electromagnetic drive law optimization, nuclear power reactor design, operational maintenance, nuclear fuel utilization improvement, nuclear waste reduction, and advanced reactor.

Notably, the congzi equations' precise description of microscopic interactions helps bridge the gap between theoretical advances and practical implementation, offering a viable path toward large-scale technological deployment. This not only offers a viable direction for bridging the gap between theory and application but also creates essential conditions for subsequent large-scale technological deployment.

Future Plans: Accelerating Commercialization Through Strategic Steps​​

Looking ahead, Congzi SuperSCI will promote the market-oriented application of the Quantum Radiation Dual Equations through several initiatives. The company plans to deepen industry-university-research collaboration, integrate resources from universities, research institutions, and enterprises, and validate theoretical results and patented technologies in relevant equipment to ensure they meet industrial requirements. It will also develop customized tools and solutions for specific industry challenges, transforming theoretical equations into directly applicable technology products to lower the barrier for enterprise adoption. The company also intends to build a cloud service platform integrating simulation calculations and data analysis functions, allowing enterprises to access core technologies conveniently online, thus overcoming geographical and equipment limitations. Additionally, Congzi SuperSCI plans to collaborate with investment institutions to establish a quantum technology transformation fund supporting projects in innovative drugs, high-end specialty materials, and other high-value fields.

Through a closed-loop system encompassing theoretical iteration, patent layout, product verification, scenario promotion, and ecosystem development, the company aims to achieve efficient technology transfer, allowing the value of the congzi quantum radiation dual equations to permeate industrial chains and accelerate the commercialization of quantum technology.

The release of the equations marks a milestone in China's quantum technology development, representing a shift from theoretical exploration to practical application. By fostering underlying innovation and promoting technology landing, Congzi SuperSCI is poised to contribute to China's competitiveness in the global high-tech sector. The company welcomes partnerships with global research institutions, enterprises, and investors to explore cross-disciplinary innovation scenarios and create a tech-driven future.

Contact Info:
Name: Cong Yongping
Email: Send Email
Organization: Shandong Congzi SuperSCI Quantum Co., Ltd
Website: https://congzisupersci.com.cn

Release ID: 89174252

CONTACT ISSUER
Name: Cong Yongping
Email: Send Email
Organization: Shandong Congzi SuperSCI Quantum Co., Ltd
REVIEWED BY
Editor Profile Picture
This content is reviewed by our News Editor, Hui Wong.

If you need any help with this piece of content, please contact us through our contact form
SUBSCRIBE FOR MORE