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Research on the Development Strategy of China’s Engineering Science and Technology of the Next 20 Years

Guest Editorial Board

Editorial Board of the Research Album on the Development Strategy of China's Engineering Technology in the Next 20 Years

Director

Wang Liheng, China Aerospace Science and Technology Corporation Limited

Deputy Director

Hu Wenrui, China National Petroleum Corporation Limited

The committee

Yang Hong, China Academy of Space Technology

Yang Changfeng, China Satellite Navigation System Management Office

Guo Dongming, Dalian University of Technology

Zhang Jun, Beijing Institute of Technology Science and Technology Committee of the Central Military Commission of Luxi City

Liu Jiongtian, Zhengzhou University

Su Yinao China Petroleum Engineering Technology Research Institute Co., Ltd

Liu Jizhen, North China Electric Power University

Mao Jingwen, China University of Geosciences (Beijing)

Kang Shaozhong, China Agricultural University

Zhang Boli, Tianjin University of Traditional Chinese Medicine

Fu Xiaobing The Fourth Medical Center of the General Hospital of the Chinese People's Liberation Army

Fan Weicheng, Tsinghua University

Gu Dazhao National Energy Investment Group Co., Ltd

Zhou Shouwei for China National Offshore Oil Corporation Limited


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  • Xiaoji Zhou, Yongwei Zhang, Shoulei Ma, Li Sun, Tingfeng Huang, Shengkai Sun, Xinyi Chen, Wenjiang Zheng, Yufei Liu
    Strategic Study of Chinese Academy of Engineering, 2024, 26(5): 117-127. https://doi.org/10.15302/J-SSCAE-2024.05.012

    The Research on the Technology Foresight of China's Engineering Science and Technologies Toward 2040 is jointly organized by the Chinese Academy of Engineering and the National Natural Science Foundation of China. As an important component of the research on China's engineering science and technology development strategy to 2040, it aims to predict the general trend of scientific and technological development and clarifying the key engineering science and technologies and development directions that may yield major breakthroughs. To improve the forward-looking and scientific nature of the technology foresight, this study evaluates the effectiveness of the technology foresight from two aspects: application of the technology foresight methodology and impact of the foresight results. Following the idea of emphasizing demand traction and vision drive as well as combining expert judgment and multi-source big data intelligent analysis, this study designed a methodology system, developed the intelligent Support System (iSS) for strategic studies on engineering science and technology, and constructed a standardized process centered on experts, supported by data, and facilitated by interaction, thus to push forward the implementation of the technology foresight. The study has formed a list of alternative technologies containing over 900 items in 11 fields, conducted two rounds of Delphi expert surveys, and proposed 110 domain core technologies, 25 key common technologies, and 21 disruptive technologies, thereby providing an important support for the research on China's engineering science and technology development strategy to 2040.

  • Comprehensive Research Group of Research on China's Engineering Science and Technology Development Strategy to 2040
    Strategic Study of Chinese Academy of Engineering, 2024, 26(5): 1-14. https://doi.org/10.15302/J-SSCAE-2024.05.001

    Currently, global technological innovation is unprecedentedly intensive and active, and the forms of technology and industry are undergoing systematic changes. Disruptive and systemic innovations in engineering science and technology have become the focus of strategic competition. Based on the development demand for engineering science and technology in China and the world trends of engineering science and technology development, this study proposes a strategic research method system that consists of economic forecasting, demand analysis, technology foresight, vision analysis, strategic architecture, technology roadmap, and policy selection. The study also predicts the economic and social development trends in China by 2040 and depicts nine visions of Chinese society in 2040. Based on the strategic research on the development of engineering science and technology in major fields, an overall strategic concept of engineering science and technology development is proposed centering on the nine visions, which involves promoting information technologies, reshaping the energy system, innovating industrial science and technologies, constructing the future cities, developing the blue economy, revitalizing agriculture and the rural areas, safeguarding the health of all the people, building a beautiful China, and constructing a safe China. An overall two-stage roadmap for engineering science and technology development between now and 2040 is also proposed. At the first stage, it is necessary to strengthen the industrial foundation and chain, achieve international leadership in major fields of engineering science and technology, and develop new areas and technologies with core competitiveness. At the second stage, it is suggested to focus on security, resilience, and original innovation and build a new technological ecosystem.

  • Chang Liu, Shanshan Xian, Lianchao Yu, Zhengang Lu, Hao Zhang
    Strategic Study of Chinese Academy of Engineering, 2024, 26(5): 37-45. https://doi.org/10.15302/J-SSCAE-2024.05.004

    As one of the most important high-tech fields, the field of information and electronics has a significant impact on national competitiveness and has become a key area for all countries. Using literature analysis and investigation research, this study summarizes the advantages and problems of the information and electronics field in China and explores the key requirements for strengthening the information and electronics field. Facing the major demand of China for development strategies, this study devises development strategies for the information and electronics field and proposes development suggestions for the field from the aspects of strategic planning, systematic development, dual-carbon fusion, and talent development. Specifically, the suggestions include (1) implementing strategic planning to improve the systematic layout of the information and electronics field; (2) improving the fundamental support and frontier guiding capabilities of the information and electronics field; (3) accelerating the integration of industrial and innovation chains, focusing on boosting China's strength in cyber and digital sectors; and (4) strengthening the cultivation of professional personnel in basic research and technological engineering in the information and electronics field.

  • Yimin Wang, Xiaojuan Xue, Lijun Liang, Yanjun Zhang, Xiangmei Chen, Song Li, Jianguo Xu, Hongyang Wang, Xiaosong Gu, Luqi Huang, Xiaobing Fu, Boli Zhang
    Strategic Study of Chinese Academy of Engineering, 2024, 26(5): 46-54. https://doi.org/10.15302/J-SSCAE-2024.05.006

    Engineering science and technologies in the medicine and health care field in China have been developing rapidly in recent years, which has provided technological support for the disease prevention and health industry of the country and made outstanding achievements in many aspects. However, compared with the advanced international level, there remain various problems in this field in China, including the lack of basic research, a low level of precision medicine, lacking innovation in research on new drugs, insufficient capabilities to identify and respond to major epidemic outbreaks, gaps in research on key technologies of medical equipment, and imperfect methods for evaluating the effects of traditional Chinese medicine. This study analyzes the worldwide development trends of engineering science and technologies in the field of medicine and health care, explores the development trends and challenges of the field in China, and proposes the following countermeasures: (1) optimizing talent cultivation and interdisciplinary collaboration by innovating funding evaluation and incentive mechanisms; (2) improving medicine and health-care strategies and systems to create a full-lifecycle health service system; (3) accelerating drug innovation and achievement transformation while strengthening full-lifecycle management; (4) reforming the disease prevention and control system and enhancing public health security management; (5) promoting the innovation and standardization of medical technologies by building key technology platforms; and (6) strengthening the development strategy of traditional Chinese medicine by promoting technological innovation and improving grassroots services. This study aims to promote the engineering and technological level of China's medicine and health care field to a new height and better satisfy people's health needs in China.

  • Liyuan Chai, Haiying Wang, Xiaobo Min, Hui Liu, Qingwei Wang, Huangling Gu
    Strategic Study of Chinese Academy of Engineering, 2024, 26(5): 24-36. https://doi.org/10.15302/J-SSCAE-2024.05.003

    Promoting the low-carbon and intelligent development of the metallurgical industry and establishing a low-carbon metallurgical industry system are crucial for ensuring national metal resource and energy security, strengthening the manufacturing sector, and supporting carbon reduction and ecological construction in China. Based on a global perspective, the metallurgical industry of China is still at a stage of low-end manufacturing. Therefore, it is necessary to conduct the top-level design to boost China's strength in metallurgical development, integrating the independent control of metal resources, intelligent manufacturing, environmental protection, and national security maintenance as an organic whole. This study summarizes the frontiers and development trends of metallurgical engineering science and technology worldwide, analyzes the development vision of metallurgical engineering science and technology in China, and proposes medium- and long-term strategic measures for China's metallurgical engineering technology development toward 2040, involving general development ideas, key strategic tasks, and main technology development directions. Furthermore, the following countermeasures are proposed: (1) developing disruptive technologies in the metallurgical field in advance, (2) integrating the industrial and innovation chains of the metallurgical industry, (3) building a sophisticated talent system, (4) improving the policy and standards systems, and (5) constructing driving forces for core technology development.

  • Dazhao Gu, Yang Li, Gensheng Li, Guangfu Tang, Qi Zhang, Lei Cui, Haili Liu, Yi Yang, Xianzhi Song, Mingyuan Ma, Boyu Liu, Fei Teng, Shuman Zhang, Xiao Wang, Zhengdai Li
    Strategic Study of Chinese Academy of Engineering, 2024, 26(5): 80-90. https://doi.org/10.15302/J-SSCAE-2024.05.009

    The proposal of carbon neutrality has accelerated the process of energy revolution and plays a significant role in promoting the development of emerging energy and building a modern energy system. This study focuses on three key fields: energy saving and carbon emission reduction; construction of a new power system; and carbon capture, storage and utilization. It sorts out nine trends in carbon neutrality worldwide and proposes the development vision and strategic goals for carbon neutrality toward 2040. Moreover, this study analyzes the challenges faced by carbon neutrality and proposes a development path for engineering science and technology in the key fields of carbon neutrality, which involves ten key technologies, nine key tasks, four major engineering projects, and three major science and technology projects. Furthermore, this study proposes four supporting measures: (1) strengthening the implementation and management of an energy-saving priority strategy, (2) promoting the development of advanced scientific instruments and the establishment of scientific platforms, (3) leveraging the role of central enterprises as the main force of innovation, and (3) reinforcing financial and tax support for the technique of carbon capture, utilization and storage, thereby providing references for the scientific research in the key fields of carbon neutrality in China.

  • Comprehensive Group of the Project Research on the Development Strategy of Engineering Science and Technology in the Agricultural Field of China in the Next 20 Years
    Strategic Study of Chinese Academy of Engineering, 2024, 26(5): 15-23. https://doi.org/10.15302/J-SSCAE-2024.05.002

    The period before 2040 is crucial for boosting China's strength in agriculture. Agriculture is the foundation of a country, and the engineering science and technologies in agriculture provide a core support for guaranteeing national food security, revitalizing rural areas in an all-round way, and boosting China's strength in agriculture. Considering the prospect of economic and social development in 2040 and the development trend of engineering science and technologies in agriculture, this study focuses on analyzing the developmental demand for a solid foundation of food security, green agricultural development, and new quality productive forces in agriculture in the next 20 years, and proposes the strategic orientation, general principles, development paths, development goals, and key tasks of engineering science and technology development in agriculture. Furthermore, it proposes the following suggestions: (1) increasing the intensity of investment in agricultural scientific and technological innovation, (2) increasing support for agricultural basic research, (3) enhancing the innovation ability of agricultural enterprises, (4) strengthening the construction of talent teams regarding agricultural science and technologies, (5) accelerating the transformation and application of agricultural scientific and technological achievements, (6) increasing the deployment and construction of agricultural scientific and technological forces at the national level, (7) building a national scientific and technological innovation system, and (8) deepening international agricultural scientific and technological cooperation, so as to comprehensively enhance the independent innovation, international competitiveness, and sustainable development capabilities of agricultural science and technologies and promote high-quality agricultural development.

  • Cong Sun, Qunli Zhao, Xiasheng Sun
    Strategic Study of Chinese Academy of Engineering, 2024, 26(5): 55-64. https://doi.org/10.15302/J-SSCAE-2024.05.007

    Aeronautical engineering science and technologies involve multiple disciplines, high technical risks, large capital investment, and long development cycles; therefore, a long-term, stable development strategy is needed to achieve breakthroughs regarding the key core technologies of aeronautical engineering science and technologies and to realize the sustainable development of the aeronautical industry. This study summarizes the global development trend and China's development status of aeronautical engineering science and technologies from four aspects: civil aircraft, aero engine, airborne system, and air traffic control system. It also identifies the development deficiencies in terms of basic research and technical reserves; system integration and product system research; aero engine technology; airborne system research, development, and testing; aeronautical maintenance capabilities; and industrial software and basic components. On this basis, a 20-year development vision for aeronautical engineering science and technologies in China is proposed, as well as key directions for future project deployment: supersonic passenger aircraft, high-speed rotorcraft, new energy aircraft, hybrid electric propulsion systems, next-generation air traffic control technologies, intelligent passenger aircraft, all-composite aero engines, and intelligent repair technologies for composite materials. Furthermore, the study suggests incorporating aeronautical power construction into national medium- and long-term strategic planning, strengthening the construction of a scientific and technological innovation system, enhancing interdisciplinary cooperation, and emphasizing international collaboration, thereby precisely supporting the development of aeronautical engineering science and technologies in the next 20 years..

  • Shengqing Xiong, Jingwen Mao, Min Liu, Xihua Zhou, Xueyi Xu, Xuwen Qin, Liangquan Ge, Linfei Wang, Bin Chen, Tonglin Li, Yao Luo
    Strategic Study of Chinese Academy of Engineering, 2024, 26(5): 104-116. https://doi.org/10.15302/J-SSCAE-2024.05.011

    Airborne geophysical exploration is an important and rapid method for mineral prospecting. China's airborne geophysical exploration technology has made great progress in the 21st century. However, existing technologies and equipment can hardly satisfy the new demand for key prospecting technologies and equipment for deep-Earth and deep-sea exploration in the new round of mineral prospecting breakthroughs in China. Focusing on the high-quality development of airborne geophysical exploration technologies in China, this study summarizes the development status of these technologies in China and abroad, evaluates the technological competition and development trends, and analyzes the major challenges faced by China in this field. Considering the new changes, characteristics, and trends of scientific and technological development, this study proposes a development roadmap of China's airborne geophysics exploration technologies, aiming at frontier technologies, such as superconducting sensors, full-tensor airborne-gravity gradient, full-tensor aeromagnetic gradient, multi-field-source full-depth airborne electromagnetism, and airborne seismic survey, as well as practical technologies urgently needed for the new round of mineral prospecting breakthroughs. Given the weaknesses in frontier research capability, technical adaptability, and innovation foundation, it is proposed to establish a national innovation center for airborne geophysical technologies, conduct the research and development of the fourth-generation airborne geophysical exploration technology, and build an integrated development system for airborne geophysical technical equipment.

  • Peng Cai, Cungen Liu, Zhongqin Lin, Mingjian Lu, Qiang Fu, Sheng Dong, Xuguang Zhang, Shuguang Liu, Ni Feng, Shuhan Yang, Haixia Zhang
    Strategic Study of Chinese Academy of Engineering, 2024, 26(5): 91-103. https://doi.org/10.15302/J-SSCAE-2024.05.010

    China's marine equipment application technologies have developed rapidly in recent years; however, basic technologies remain weak. Accelerating the breakthroughs of key basic technologies for marine equipment is crucial for enhancing the marine strength of China. This study analyzes the development demand of China for marine equipment, summarizes the essence of key basic technologies of marine equipment, and clarifies the global frontiers and development trends of marine equipment technologies from three aspects: marine transportation equipment, marine resource development equipment, and marine scientific research equipment. Moreover, it reviews the development status and major problems of China's marine equipment technologies, identifies ten key basic technologies that have a significant impact on the marine equipment industry, and outlines the development goals, roadmap, and key tasks of these key basic technologies. Safeguard measures are further proposed, including (1) emphasizing basic technology research for marine equipment to strengthen the top-level design for innovation, (2) advancing the construction of a multi-dimensional collaborative innovation system for the key basic technologies, and (3) promoting the globalization of China-led marine technologies and equipment.

  • Tao Chen, Lida Huang, Yang Chen, Hongyong Yuan, Weicheng Fan
    Strategic Study of Chinese Academy of Engineering, 2024, 26(5): 65-79. https://doi.org/10.15302/J-SSCAE-2024.05.008

    Safety is the basis of human survival and development. Building a higher level of Peaceful China is crucial for achieving high-quality development in the new stage. This study aims to look forward to the long-term goals by 2040, thus to support the conception of development strategies as well as the deployment of engineering science and technology projects for the construction of public safety. Considering the new situations and technologies, this study analyzes the development status and the state-of-the-art level of public security science and technologies worldwide. Focusing on the aspects of natural disaster prevention, accident disaster prevention, safe and resilient cities, and comprehensive emergency management, this study analyzes the development needs of public safety science and technologies in China. Based on this, it proposes the idea, strategic objectives, and an overall framework for the development of public safety science and technologies in China and summarizes the development directions, covering key engineering tasks, basic research directions, and major engineering projects. With regard to the path of scientific and technological development in the field of public safety in China, development proposals are made in terms of policy and research systems.