In mid-July, the Ministry of Education unveiled the results of its 2026 additions to the "Vocational Education Specialty Catalog," introducing 27 new undergraduate and associate degree programs that will begin enrolling students in 2027. These new specialties are closely tied to high-demand sectors including the digital economy, low-altitude economy, artificial intelligence, high-end equipment manufacturing, and urban renewal. With the specialty catalog getting a refresh, a critical question emerges: can vocational college classrooms truly keep pace with these emerging fields?

At Jining Vocational and Technical College in Shandong, the industry-education integration training base is bustling this summer. Not only are students staying on campus to study, but engineers from Contemporary Amperex Technology Co., Limited (CATL) are also receiving training there. "Power grids in many countries are still quite outdated. I returned to China for this training specifically to learn the operation methods of new equipment," said Chai Xing, a CATL engineer stationed in Australia. Just a few months ago, the nation's first industrial-level energy storage operations and maintenance training base was inaugurated at this college. Co-built by the college and CATL, the facility features equipment donated by the company's ecosystem partners, providing a fully authentic replication of power station operations and maintenance scenarios.

This base serves as CATL's first employee training center for energy storage operations and is also the first Sino-foreign cooperative energy storage education project of its kind. The energy storage materials technology major is a new field closely aligned with national "dual carbon" goals and the development needs of the new energy industry, with projections indicating a nationwide shortage of 78,000 technical positions in energy storage by 2026. Li Zhongguo, president of Jining Vocational and Technical College, explained that in 2024, the school seized the opportunity presented by CATL's factory establishment in Jining to launch deep industry-academia collaboration. The company donated its latest equipment models, deployed industry mentors, and co-trained faculty, effectively clearing the path for translating industrial technology into classroom curriculum. In 2025, the college officially launched its energy storage materials technology program.

The school reports that it worked with CATL technical experts to develop joint textbooks that incorporate real-world cases, operational standards, and the latest technical specifications directly from the enterprise frontlines. "We've opened up over 1,700 pages of our technical training materials to the school, so graduates can transition straight to the job," said Xu Kecheng, senior technical manager at CATL's aftermarket business division. "The partnership aligns perfectly with our business development needs." Li Zhongguo added, "The first cohort of students we enrolled in 2025 has already been reserved by CATL before graduation. Senior energy storage operations and maintenance engineers can earn annual salaries exceeding one million yuan in some countries."

Vocational schools are also shifting their focus toward anticipating industry evolution. "In the past, specialty development was often a matter of 'what faculty we have, we teach.' Now it's about first asking where the industry is headed and how job roles are changing," said Hu Hao, president of the Yellow River Conservancy Technical Institute. "For us, that translates to figuring out how to adjust our specialties and how teachers should teach." The institute is currently responding to the national push for digital and intelligent transformation of traditional infrastructure. During the "15th Five-Year Plan" period, the country aims to construct or renovate over 700,000 kilometers of underground pipelines. Projections suggest the smart water management sector alone requires 7,000 to 9,000 undergraduate-level technical professionals annually. Previously, this talent pipeline suffered from a dual shortage: higher vocational graduates could handle on-site operations but struggled with complex tasks like system integration and data analysis, while traditional university graduates understood theory but lacked practical operational logic.

To bridge this gap for water resources professionals who need both process knowledge and data literacy, the Yellow River Conservancy Technical Institute proactively reorganized and upgraded its programs, successfully applying to establish a new vocational undergraduate major in intelligent water engineering, with enrollment slated for 2027. "We hope students will become 'field engineers' and 'technical stewards' in smart water operations management positions, growing within three to five years into core personnel capable of independently managing a water plant or regional operations," Hu Hao stated. This move represents support for the industry's transition from the "engineering era" to the "intelligent era."

Ji Guangpeng, general manager of Beijing Enterprises Water Group's BEWG Education division, noted that the major's creation was not impromptu; extensive preliminary research on talent demand and job role alignment was conducted. As early as 2023, the school and Beijing Enterprises Water Group jointly established the first smart water modern industry college, where corporate task orders directly become classroom projects. The school also launched a "smart water field engineer" order-based class, enrolling three cohorts and achieving a seamless student-to-employee pipeline where students can effectively take on responsibilities immediately upon entering the workforce. To ensure students genuinely benefit, the Yellow River Conservancy Technical Institute is reforming its teacher evaluation system to compel instructors to update their knowledge and immerse themselves in front-line industrial practice, effectively ending the era of teachers relying on a single, outdated lecture for a decade. "We score the teacher evaluation system based on national and local development plans, employment rates, teaching quality, and practical training activities," said Hu Hao. "Simultaneously, we boost teacher capability and motivation through retraining, enterprise sabbaticals, pairing with corporate technical experts, and adjusting workload benefits." The institute requires full-time faculty to have at least three years of corporate work experience or a minimum of six months of company practice within the past five years, with regular secondments to partner enterprises to participate in real-world projects.

To build a core competitive edge for vocational education in the new era, the strategic direction is clear: programs must align with national strategies, specialties must follow industrial chains, and courses must adapt to job requirements. This year's 27 new majors demonstrate that vocational education is embedding itself into the rhythm of industrial evolution, precisely converting front-line needs and corporate demands into new curricula. Firstly, specialty settings are moving from "passive response" to "proactive layout." Previously, vocational specialty adjustments were often criticized for lagging behind industry cycles. These new additions clearly carry "15th Five-Year Plan" orientation, focusing on modernizing the industrial system and expanding service sector quality and capacity – with examples including technical brokerage services and low-altitude transport engineering in producer services, and parenting guidance and residential healthcare management in consumer services. Secondly, industry-education integration is deepening from mere "agreement signing" to "deep fusion of key elements." Whether it's CATL basing its employee training center directly at Jining Vocational and Technical College, or Beijing Enterprises Water Group transforming task orders into classroom challenges at the Yellow River Conservancy Technical Institute, the common thread is embedding corporate standards, engineers, real projects, and training equipment as core teaching elements. This exploration of bringing industry into the classroom and factories onto campus is evolving from isolated cases into a broader trend.

Thirdly, the talent cultivation system is shifting from a "single-level" approach to an "interconnected, multi-path" model. Of the new majors added this round, 18 are vocational undergraduate programs. This expansion aims to open clear advancement channels through the "secondary vocational – higher vocational – vocational undergraduate" pathway, addressing the shortage of highly skilled technicians while providing skilled talent with more complete growth trajectories. Ultimately, these new specialty catalogs must deliver tangible results in classrooms, workshops, and through student capabilities. As vocational education introduces these new programs, several key issues warrant careful observation: can these new specialties avoid becoming "new bottles for old wine"? Can teaching faculties update their knowledge base within three to five years? And can training conditions keep pace with the speed of technological iteration? The next phase will test the genuine, concrete actions of vocational institutions and their fundamental ability to transform industrial demands into educational capacity.