The General Office of the Ministry of Human Resources and Social Security recently issued the "Announcement on Soliciting Public Opinions on the Proposed Release of Occupational Information for Ship Shore-Based Management Engineering Technical Personnel, etc." The announcement plans to release 12 new occupations and is soliciting opinions and suggestions from the public. The deadline for feedback is Jul 17, 2026 . Among the new occupations to be released, two green occupations have been added to the hydrogen energy sector: Hydrogen Fuel Cell Manufacturing Worker and Electrolytic Water Hydrogen Production Worker . This means that the positions of fuel cell manufacturing and electrolytic water hydrogen production in the hydrogen energy industry chain are expected to receive clearer occupational identities and skill standard support. According to the public information, a Hydrogen Fuel Cell Manufacturing Worker refers to a person who uses equipment and tools such as mixers, coating machines, hot presses, laser cutters, and testing platforms to process materials, prepare components, and complete the assembly, testing, and manufacturing of hydrogen fuel cell stacks and systems. An Electrolytic Water Hydrogen Production Worker mainly operates equipment such as rectifier cabinets, electrolyzers, gas drying and purification units, compressors, and hydrogen storage tanks, and performs tasks including fluctuating power supply adjustment, raw material preparation, hydrogen production, separation and purification, storage and transportation. This occupation corresponds to the green hydrogen production stage and is one of the key positions in the construction and operation of renewable energy hydrogen production projects. The newly released occupations in this announcement also include Ship Shore-Based Management Engineering Technical Personnel, Animal Experiment Engineering Technical Personnel, Digital Twin Engineering Technical Personnel, Embodied AI Robot Application Technician, Industrial Product Digital Modeler, Enterprise Sustainable Development Planner, Microgrid Administrator, Sports Data Analyst, Incense Artisan, Satellite Navigation Equipment Assembly and Adjustment Worker, etc. Among them, Digital Twin Engineering Technical Personnel, Embodied AI Robot Application Technician, Industrial Product Digital Modeler, and Sports Data Analyst are labeled as digital occupations, while Microgrid Administrator, Hydrogen Fuel Cell Manufacturing Worker, and Electrolytic Water Hydrogen Production Worker are labeled as green occupations. From the perspective of industrial development, hydrogen fuel cells and electrolytic water hydrogen production are key links in the hydrogen energy industry chain. As fuel cell vehicles, hydrogen-powered heavy trucks, green hydrogen projects, hydrogen storage and transportation, and industrial hydrogen use scenarios continue to expand, the industry's demand for skilled personnel in equipment manufacturing, system debugging, operation and maintenance, and safety management is rising. The inclusion of two hydrogen energy-related new occupations in the public notice list will help promote the standardization of hydrogen energy positions, the systematic development of personnel training, and the normalization of vocational skill evaluation. In the future, if these occupations are officially released, they will provide clearer bases for vocational education, enterprise training, skill certification, and industrial employment. According to the announcement, the public can submit opinions and suggestions via email or fax. Emails can be sent to , with the subject line clearly indicating "Feedback on the Public Notice of Occupational Information for Ship Shore-Based Management Engineering Technical Personnel, etc."; faxes can be sent to 010-84207467, including the name, organization, and contact information of the suggester.

In June 2026, the hydrogen energy transportation equipment sector in the Xixian New Area saw new progress. A Skyworth-brand hydrogen fuel cell low-floor city bus, with its hydrogen core power system independently developed by resident enterprise Shengshi Yingchuang Hydrogen Energy Technology (Shaanxi) Co., Ltd. and equipped with its hydrogen fuel cell system, recently rolled off the production line. This model has been included in the 389th batch of the "Announcement of Road Motor Vehicle Manufacturers and Their Products" by the Ministry of Industry and Information Technology, laying a foundation for commercial operation. With the roll-off, Xixian New Area has added new support for the demonstration application of hydrogen fuel cell buses and the green transformation of urban transportation. It is understood that the hydrogen core power system of this city bus was entirely led and developed by Shengshi Yingchuang. The vehicle is equipped with the company's independently developed 90 kW hydrogen fuel cell system , and a Type IV high-end on-board hydrogen supply system jointly created with Beijing Tianhai. Compared with traditional battery electric buses, hydrogen fuel cell buses offer differentiated advantages in refueling efficiency, low-temperature adaptability, and long driving range operation, making them more suitable for the high-frequency, long-duration operational demands of bus routes. A relevant person in charge of Shengshi Yingchuang stated that the vehicle's power system features independent controllability, strong adaptability, and stable operation, which can improve vehicle operational efficiency while ensuring safety. The vehicle's combined driving range reaches 550 km , and with its fast hydrogen refueling capability, it can alleviate issues such as driving range decay and long refueling times that battery electric buses face in low winter temperatures, offering strong adaptability to the climatic conditions of north-west China and urban public transportation scenarios. Hydrogen energy is regarded as an important direction for green and low-carbon transition. The "Medium and Long-Term Plan for the Development of the Hydrogen Energy Industry (2021–2035)" issued by the National Development and Reform Commission and the National Energy Administration proposes to orderly promote demonstration applications in the transportation sector, focus on promoting the application of medium and heavy-duty hydrogen fuel cell vehicles, and gradually form a complementary development pattern of fuel cell electric vehicles and lithium battery electric vehicles. In the Xixian New Area, the hydrogen energy industry chain is accelerating its agglomeration. At present, the new area has attracted over a hundred hydrogen energy upstream and downstream enterprises such as Xushun Times and Shengshi Yingchuang, covering fields including PV electrolysis hydrogen production, liquid and solid-state hydrogen storage, fuel cell manufacturing, hydrogen refueling station construction, and the R&D and production of hydrogen commercial vehicles. The number of related enterprises has accounted for more than one-third of the total number of hydrogen energy enterprises in Shaanxi Province and nearly 70% of similar enterprises in Xi'an, preliminarily forming an **integrated industry ecosystem of "R&D breakthroughs, equipment manufacturing, and demonstration applications."** Going forward, Xixian New Area will continue to expand the integrated application of hydrogen energy in transportation, energy, industry, and other fields, deepen industry-university-research collaborative innovation, improve industrial supporting facilities and enterprise service systems, and attract more high-growth enterprises for cluster development. As demonstration scenarios continue to expand, the hydrogen energy industry is expected to become a significant growth point for the new area's green and low-carbon transition and high-quality development.

[SMM Magnesium Express]On June 17, according to industry media reports, Xinyuan Manufacturing explicitly stated in its 2026 annual board report that it will accelerate the commissioning of large-tonnage die-casting and semi-solid injection molding production lines, focusing on core magnesium alloy components such as CCB brackets for new energy vehicles, rear shells for central control screens, and seat skeletons. It will also expand the application of magnesium alloy structural components in emerging fields like intelligent robots, computing cabinets, smart lawn mowing robots, and general-purpose power units. As application scenarios continue to broaden, the market potential for magnesium alloy lightweight components is expected to further expand.

In 2026, China's central air conditioning industry entered a new phase of development. According to ChinaIOL data, overall industry sales in Q1 reached 36.73 billion yuan, edging up 1.5% YoY, of which domestic sales amounted to 29.63 billion yuan, a YoY decline of 2.1%. Among the sub-segments, traditional real estate and public construction scenarios continued to cool, while professional temperature control and emerging computing power tracks rose rapidly. The competitive logic of the industry is shifting from scale expansion to value deepening.

During SNEC 2026, Jinko Solar held 10 consecutive strategic partnership signing ceremonies, reaching Tiger Neo 3.0 supply agreements with C&D Emerging Energy, Jiangsu Yude New Energy, Xcel Renewable Energy Corp. of the Philippines, UCC Group of Bangladesh, and six core partners in Pakistan. The partnerships span multiple key markets, with application scenarios covering utility-scale ground-mounted plants, commercial and industrial distributed projects, and other diverse application areas, fully promoting the large-scale deployment and widespread application of Tiger Neo 3.0 high-efficiency modules in the global market.

Recently, the full series of AEM hydrogen production products under Hydrogen-Powered Energy has entered a new phase of large-scale deployment and delivery, with six benchmark projects being advanced simultaneously. The business scenarios comprehensively cover core fields including scientific research and innovation, hydrogen production under special operating conditions, energy storage-electrolysis coupling, and industrial distributed hydrogen production. The product power spectrum is complete, extending from low-power scientific research equipment to 250kW large-scale industrial-grade equipment, comprehensively verifying the enterprise's outstanding capabilities in universal adaptability, technological innovation, scenario implementation, and personalized customization services for AEM hydrogen production products. Targeting the hydrogen energy research needs of universities and scientific research institutions, the enterprise has developed dedicated equipment for the 2.5kW AEM Electrolysis Hydrogen Production Scientific Research Platform . This standardized hydrogen production equipment is tailor-made for laboratory scenarios and can fully satisfy various scientific research experimental needs such as fundamental hydrogen energy theoretical research, core material performance testing, and electrolysis reaction mechanism exploration. The equipment adopts a lightweight integrated architecture, with a compact overall size and flexible installation and deployment. It supports dynamic power regulation across a wide range, precisely aligning with the refined and diversified operating condition standards of scientific research experiments. Meanwhile, it is equipped with a full-dimensional real-time data acquisition system, enabling traceable operating conditions and customizable experimental parameters, providing highly reliable and adaptive hardware support for industry-academia-research innovation in the hydrogen energy field. In the innovative field of energy coupling and co-production, the enterprise has implemented the 2.5kW AEM Hydrogen Production Coupled with Organic Liquid Electrolysis Project , breaking through the limitations of single functionality in traditional hydrogen production models. This project serves as a supporting facility for China Southern Power Grid's research on key technologies for organic liquid electrochemical hydrogen storage. It innovatively adopts an integrated linkage technology of AEM water electrolysis for hydrogen production and organic liquid electrolysis for hydrogen storage. While completing electrolytic hydrogen production, it achieves organic liquid electrochemical hydrogenation and dehydrogenation linkage operations through the cathode and anode reactions, constructing a new integrated hydrogen production and storage system. This technology can effectively adapt to scenarios such as power grid energy storage peak shaving and new energy consumption, solving the industry challenges of single profit models and low comprehensive returns of traditional hydrogen production projects, and providing a brand-new technical implementation path for the efficient utilization of comprehensive grid energy and the coupled co-production of hydrogen energy and chemical industries. Targeting special operating scenarios such as marine and specialized water environments, Hydrogen-Powered Energy has successfully delivered the 5kW AEM Direct Seawater Electrolysis Hydrogen Production Testing Platform , supporting a scientific research project at a national key laboratory. This equipment can achieve direct electrolysis of seawater for hydrogen production without complex pretreatment processes. Its rated hydrogen production capacity reaches 1Nm³/h, with a unit hydrogen production energy consumption as low as 4.3kwh/Nm³. The system features excellent chlorine corrosion resistance and can adapt to complex seawater conditions. The successful delivery of this equipment marks a critical breakthrough by the enterprise in the core technology of direct seawater electrolysis for hydrogen production. It can provide mature and feasible technical solutions for special scenarios such as resource recovery hydrogen production from industrial wastewater, supporting energy supply for offshore new energy, and island off-grid independent hydrogen production, demonstrating extremely high technological innovation value and scenario application scarcity. Focusing on the construction of new-type power systems and the demands for new energy consumption, the enterprise has launched the 25kW AEM Small-Scale Hydrogen Energy Storage System , primarily targeting distributed energy storage supporting applications. This system is custom-developed for distributed grid energy storage and wind power, PV and NEV sectors consumption scenarios. It possesses second-level rapid power response capabilities, can adapt to wide-range power fluctuations, and precisely matches the intermittent and fluctuating power generation characteristics of PV and wind power. The equipment adopts a highly integrated modular design, with simple operation and maintenance and strong scenario adaptability. It can quickly accomplish the efficient conversion and storage of green electricity into hydrogen energy, building a small-scale closed-loop hydrogen energy storage system. This effectively assists the grid in peak shaving and valley filling, promotes local and nearby consumption of new energy, and represents premium implementation equipment for distributed hydrogen energy storage in current new-type power systems.

As the sodium-ion battery scaling and commercialization process continues to accelerate, industry dividends are being released at a faster pace in 2026. April, as a key period at the start of Q2, saw a notable recovery in the sodium-ion battery cathode and anode materials market. Demand-side stockpiling willingness increased, capacity expansion pace accelerated, product mix differentiation became more prominent, and the industry as a whole moved toward a positive supply-demand synergy.

[Magnesium Alloy Demand Accelerating Release, Lightweight Applications Entering Full-Scale Boom] In 2026, the magnesium alloy market demand entered a high-speed growth cycle. Applications in NEV lightweighting, high-end equipment, and high performance transportation equipment continued to expand. The industry ushered in a golden window period of improved supply-demand structure and accelerated technology commercialization, with coordinated deployment across the upstream and downstream of the industry chain picking up pace.

As production order fully resumed after the Chinese New Year, the sodium-ion battery industry chain saw a strong recovery in March. Production across the four major segments—cathode, anode, electrolyte, and battery cell—posted substantial growth both YoY and MoM, with industry prosperity rebounding markedly.

February 2026 coincided with the Chinese New Year holiday. Affected by holiday factors, production pace across core segments of China’s sodium-ion battery industry generally slowed, showing an “off-season reset” trend. From cathodes, anodes, and electrolyte to battery cells and end-users, production across all segments declined MoM to varying degrees, while YoY still maintained a certain degree of growth resilience.