水利水电水运学科综合性试验平台构建历史、理论、现实逻辑与未来展望

Building a comprehensive experimental platform for water resources, hydropower, and water transport disciplines: historical, theoretical, and practical foundations and future prospects

  • 摘要: 综合性科研试验平台是驱动科技创新的核心基础设施,其构成与效能直接关系到国家水安全保障水平。本文旨在系统阐述构建由原型观测、物理模型试验、数学模型模拟(以下简称“三型平台”)深度融合的水利水电水运学科综合性试验平台的逻辑必然性与战略路径。历史逻辑表明,“三型平台”的协同演进是推动中国水利水电水运工程技术从跟跑、并跑到部分领跑的决定性力量,以国家级科研机构九十载实践脉络为例,论证了“三型平台”的协同演进,不仅是支撑重大工程成功建设的基石,更是引领水利水电水运工程技术实现跨越式发展的根本动力。理论逻辑揭示,“三型平台”构成了复杂水工系统“认识-再现-预测-优化”的完整闭环,是探索水工系统内在复杂规律、保障工程安全的方法论基础,其联动性、协同性、参证性研究确保了“国之重器”等重大工程建设与运维的科学性、安全性与经济性。现实逻辑指出,面对新老水问题交织的挑战与国家水安全战略需求,“三型平台”是发展水利新质生产力,实现高水平科技自立自强,保障防洪安全、供水安全、粮食安全、生态安全、航运安全的内在要求和战略支点。本文结合前沿实践,提出强化全链条创新、深化“产学研用”融合、创新科研机制等构建路径,以期为中国水利水电水运科技创新与高质量发展提供参考。

     

    Abstract: A comprehensive scientific research and testing platform serves as the core infrastructure driving technological innovation, with its composition and effectiveness directly affecting the level of national water security. This article seeks to systematically elucidate the logical inevitability and strategic pathways for building a comprehensive testing platform for water conservancy, hydropower, and water transport disciplines. This platform is characterized by deep integration of prototype observation, physical model testing, and mathematical model simulation (hereinafter referred to as the “three-type platform”). Historical logic demonstrates that the synergistic evolution of the “three-type platform” has been a decisive force in advancing China’s water conservancy, hydropower, and water transport engineering technologies from a phase of catching up, to running abreast, and now taking the lead in certain areas. Drawing on the 90-year practical trajectory of a national-level research institution as an example, this article argues that the synergistic evolution of the “three-type platform” is not only the cornerstone supporting the successful construction of major projects but also the fundamental driver behind the leapfrogging advancement of water conservancy engineering technologies. Theoretical logic indicates that the “three-type platform” forms a closed loop of “understanding–reproducing–predicting–optimizing” for complex hydraulic engineering systems. It serves as the methodological foundation for exploring the inherent complex laws of hydraulic systems and ensuring engineering safety. The interconnected, synergistic, and referential research within this framework ensures the scientific rigor, safety, and economic efficiency of the construction, operation, and maintenance of major projects, including “national strategic projects.” Practical logic indicates that, in the face of intertwined challenges posed by both traditional and emerging water-related issues, as well as the strategic demands for national water security, the “three-type platform” is an inherent requirement and strategic fulcrum for developing new quality productive forces in water conservancy, achieving high-level self-reliance and strength in science and technology, and safeguarding flood control security, water supply security, food security, ecological security, and navigation security. Drawing on cutting-edge practices, this article proposes construction pathways such as strengthening whole-chain innovation, deepening the integration of “industry, academia, research, and application,” and innovating scientific research mechanisms. It aims to provide insights for scientific and technological innovation and high-quality development in China’s water conservancy, hydropower, and water transport sectors.

     

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