Research on intelligent design in hydrogen energy systems engineering addresses the various challenges faced by the hydrogen industry amidst the global transition to green energy. It integrates the theoretical framework and practical strategies of systems engineering
providing both an initial and in-depth analysis of hydrogen energy systems. The work comprehensively reviews the core theories and technical methods in the field of intelligent design
which encompass a wide range of cutting-edge areas such as parametric geometric modeling
intelligent optimization algorithms
knowledge engineering
multidisciplinary design optimization
digital twin technology
and generative design. By meticulously examining the practical applications of these advanced theories in hydrogen energy systems engineering
the research demonstrates the crucial role of intelligent design in driving technological advancements and accelerating industrial upgrades in the hydrogen sector. Additionally
it explores the extensive application prospects of artificial intelligence technologies in the future hydrogen economy and society
highlighting how intelligent design can enhance the operational efficiency of various stages in hydrogen energy systems
thereby promoting the intelligent upgrading and sustainable development of the hydrogen industry.
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