Core Viewpoint - The recent pilot program in Jiangsu allows 28 engineering master's graduates to obtain intermediate engineer titles based on "course grades + practical achievements," signaling a shift in China's engineering education evaluation system [1][2][3] Group 1: Evaluation System Reform - The traditional evaluation system emphasized "work experience," creating barriers for young professionals; the new approach uses a standard of "80% course grades + two practical achievements" to assess capabilities [1] - The evaluation criteria include quantifiable indicators such as "projects over 200,000 yuan" and "patent standards," which provide actionable guidelines but also raise concerns about potential formalism [2][3] Group 2: Industry Participation - The involvement of industry experts in the evaluation committee aligns assessment standards with market needs, reflecting a strong demand for talent from enterprises [2] - The "school-enterprise co-assessment" model breaks the closed-loop nature of traditional evaluations, making professional titles a true testament to job competency [2] Group 3: Long-term Implications - The pilot program's success depends on the robustness of practical achievement evaluation standards, the alignment of corporate hiring practices, and ensuring equitable opportunities for non-participating students [2][3] - The initiative aims to shift the focus from "papers and degrees" to practical problem-solving abilities, paving the way for young engineers to contribute to major national projects and technological advancements [3]

Core Viewpoint - The article announces the passing of Yu Shouwen, a prominent figure in solid mechanics and engineering education, highlighting his significant contributions to the field and his role in advancing engineering education in China [1][5]. Group 1: Personal Background - Yu Shouwen was born on May 4, 1939, in Xianyou County, Fujian Province, and began his academic journey at Tongji University in 1955, later transferring to Tsinghua University in 1958 [2]. - He joined the Communist Party of China in 1956 and started teaching at Tsinghua University after graduating in 1960, eventually becoming a professor and doctoral advisor [2]. Group 2: Academic Contributions - Yu Shouwen made significant advancements in solid mechanics, particularly in fracture and damage mechanics, smart materials, and microscale mechanics, producing internationally influential and original research [3][4]. - His work included the development of new fracture criteria considering plasticity and damage dissipation, and he established a three-dimensional mesoscopic damage mechanics theory for quasi-brittle materials [4]. Group 3: Awards and Recognition - He published seven monographs and over 400 academic papers, receiving multiple awards including two National Natural Science Awards and the National Science and Technology Progress Special Award [4]. - Yu served as the first Chinese president of the International Society of Fracture from 2013 to 2017 and was awarded the YOKOBORI Gold Medal in 2023 for his contributions [4]. Group 4: Educational Impact - Yu Shouwen was dedicated to nurturing talent, with many of his students becoming leading academic figures, and he received two National Teaching Achievement Second Prizes [5]. - As Vice President of Tsinghua University, he implemented significant reforms in engineering education, including the credit system and curriculum development, and played a key role in China's engineering education accreditation [5].

Core Viewpoint - The article commemorates the life and contributions of Yu Shouwen, a prominent solid mechanics expert and educator, who passed away on December 5, 2025, at the age of 86, highlighting his significant impact on engineering education and solid mechanics research in China [2][6]. Group 1: Academic Contributions - Yu Shouwen made substantial contributions to solid mechanics, particularly in fracture and damage mechanics, smart materials, and microscale mechanics, achieving internationally influential and original results [4]. - He provided a complete continuous solution for the crack tip field of plane stress type I ideal plastic materials and established new fracture criteria considering both plasticity and damage dissipation [4]. - His research has been incorporated into national standards for safety assessment of defect-containing pressure vessels, providing critical theoretical support for major engineering structures [4]. Group 2: Publications and Awards - Yu published seven monographs and over 400 academic papers, receiving multiple awards including two third prizes of the National Natural Science Award and a special prize for National Science and Technology Progress [5]. - He served as the first Chinese president of the International Society of Fracture from 2013 to 2017 and was awarded the "YOKOBORI Gold Medal" in 2023 for his significant contributions [5]. Group 3: Educational Impact - As a vice president of Tsinghua University, Yu implemented significant reforms in engineering education, including the credit system and curriculum development, and contributed to the establishment of a robust engineering education certification system in China [5]. - He was a key advocate for China's engineering education to join the Washington Accord, receiving the "Global Engineering Education Outstanding Contribution Award" in 2012 [5].

Core Insights - China has established the world's largest and high-quality higher engineering education system, with over 9 million students enrolled [2][4] - The first cohort of over 2,100 master's graduates from the engineering talent training reform pilot program has completed their studies this year, with the first doctoral graduates expected next year [2][4] - The second International Conference on the Cultivation of Outstanding Engineers was recently held in Beijing, marking a significant step in international cooperation and recognition in engineering education [2][4][8] Group 1: Engineering Education Reform - The Chinese government emphasizes the need to cultivate a large number of outstanding engineers in response to global technological revolutions and industrial transformations [4][5] - A new path for cultivating outstanding engineers has been explored, integrating education with industry, and establishing 40 national outstanding engineer colleges [4][5] - Over 5,100 research topics from industry have been provided to national outstanding engineer colleges, leading to the development of over 200 core courses [5][7] Group 2: International Collaboration - China is establishing a unified standard system for outstanding engineer training, which includes guidelines covering various aspects of the educational process [7][8] - A joint declaration was signed to initiate the establishment of international mutual recognition agreements for graduate-level engineering education, filling a critical gap in the global engineering talent recognition system [7][8] - The collaboration with international organizations aims to enhance the quality of engineering education and facilitate the international recognition of Chinese engineering degrees [7][8] Group 3: Global Talent Development - The establishment of overseas outstanding engineer colleges is part of China's strategy to share its engineering education experience globally [9][10] - Partnerships with universities in countries such as Brazil, Indonesia, and Kenya have been formed to create a more flexible and efficient cross-border educational framework [9][10] - The focus on practical skills and real-world problem-solving is emphasized in the curriculum design, ensuring students engage with actual industry challenges [10]

Group 1 - The core theme of the seminar is to explore new pathways for cultivating international engineering talents in response to global technological competition and industrial transformation [1][2] - UNESCO is promoting a global initiative to enhance engineering education systems that are closely linked to industry, aiming to foster innovation for a sustainable future [1][2] - The current education system is undergoing fundamental changes due to shifts in population structure, student characteristics, and knowledge environments, necessitating a transition from "incremental adjustments" to "model reconstruction" [1][2] Group 2 - The disconnect between education and industry needs is identified as a core issue in talent cultivation, emphasizing the necessity for education to focus on real-world problem-solving abilities [2][3] - The Yangtze River Delta National Technology Innovation Center has developed a closed-loop model of "demand transformation - joint training - results landing," which has linked over 300 research entities and companies with more than 80 domestic and international universities, training over 7,000 graduate students [3] - Several cooperation agreements were signed during the seminar, including partnerships with the University of Birmingham and Siemens (China), aimed at creating a deep integration of industry and academia [3][5] Group 3 - The establishment of a new engineering university, Suzhou Surrey University, is underway, focusing on advanced manufacturing, future energy, and smart health, aiming to become a benchmark for higher engineering education reform and Sino-foreign cooperative education [5]