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With an annual production capacity of 2 GW, Xingran Technology leads the industry! Its 500 Nm³/h PEM electrolyzer has achieved large-scale mass production.

2026-08-26 09:28

Recently, Xingran Technology has achieved a major breakthrough in industrialization. The company’s independently developed… 500 Nm³/h high-power PEM hydrogen production equipment Successfully completed process finalization and full‑process engineering validation, and has officially entered… During the mass-production phase, annual capacity will reach 2 GW, a 50% increase compared to 2025. , the industrialization scale has achieved a leap‑forward upgrade.

Recently, Xingran Technology has achieved a major breakthrough in industrialization. The company’s independently developed… 500 Nm³/h high-power PEM hydrogen production equipment Successfully completed process finalization and full‑process engineering validation, and has officially entered… During the mass-production phase, annual capacity will reach 2 GW, a 50% increase compared to 2025. , the industrialization scale has achieved a leap‑forward upgrade.

This mass‑production model is highly aligned with the “China Hydrogen Energy Development Report (2026).” The development directions of scale, domestic production, and affordability , it addresses key industry challenges such as limited production capacity, poor operational adaptability, and high maintenance costs associated with conventional hydrogen‑production equipment, and can be widely deployed in Wind–solar coupled hydrogen production, industrial green hydrogen, and energy storage for peak-shaving and other scenarios, providing high-performance, domestically produced equipment to support the large-scale deployment of the green hydrogen industry.

Leading in core performance, setting an industry benchmark.

This mass‑produced model has undergone multiple rounds of batch validation, with its core performance metrics consistently ranking among the industry’s top tier and its overall competitiveness firmly in the lead.

① A substantial increase in production capacity:

The single‑cell unit delivers a rated hydrogen production rate of 500 Nm³/h, enabling megawatt‑scale hydrogen generation and efficiently meeting the requirements of large‑scale green hydrogen projects.

② Industry-leading energy efficiency:

Leveraging an optimized electrolysis architecture, the system achieves a comprehensive hydrogen production energy consumption as low as ≤4.3 kWh/m³, solidifying its competitive edge in low-cost green hydrogen production through exceptional energy efficiency.

③ High-density, compact, and intensive:

It supports stable operation at a high current density of 2 A/cm², delivers higher hydrogen production rates, and features a highly integrated design that effectively reduces the equipment’s footprint, making it suitable for a wide range of site conditions.

④ Flexible and easy to install and scale:

The equipment’s overall dimensions are just 1,104 × 936 × 1,600 mm (excluding inlet and outlet pipes), and it features a modular design that ensures easy installation and flexible scalability, significantly boosting project deployment efficiency.

⑤ In-house R&D for cost reduction and efficiency improvement:

By leveraging end-to-end, in-house R&D in intelligent manufacturing, we have achieved technological self-reliance and controllability, reduced overall hydrogen production costs by approximately 50%, significantly improved the investment‑to‑value ratio of projects, and helped accelerate the cost‑competitiveness of hydrogen energy applications.

Architectural innovation addresses the industry’s core challenges.

This mass‑production model has undergone a groundbreaking upgrade to its underlying architecture, leveraging four proprietary core technologies, from… Operational logic, fault prevention and control, new energy compatibility, and service-life management Breaking through the traditional limitations of equipment across four key dimensions, it has created… A next-generation hydrogen production system featuring high compatibility, exceptional stability, extended service life, and reduced operational maintenance.

① Common-source segmented control, with flexible adaptation to operating conditions.

Breaking away from the conventional unified control paradigm of PEM electrolyzers, and under the premise of a single centralized water supply system with no redundant water‑supply equipment, a segmented, independent electrical control architecture is employed to achieve… Common-source water supply, with independently adjustable operating conditions for each segment. , balancing system integration and operational flexibility.

② Modules are independently controllable, enabling precise fault isolation.

Each electrolysis module is electrically fully independent, supporting individual start-up and shutdown as well as self‑diagnosis of faults. It can precisely isolate single-point failures, ensuring the continued operation of the remaining modules. Completely resolves the issue of traditional equipment—“a single fault causes the entire machine to shut down.” , significantly enhancing system operational stability.

③ Dynamic load allocation, adapting to the volatility of new energy sources

Addressing the significant variability and intermittent nature of wind and solar power, the equipment incorporates dynamic load‑sharing technology to intelligently adjust the load on each module, maintaining optimal energy‑efficiency at all times. This effectively boosts the integration rate of renewable energy and is highly suited to large‑scale wind‑and‑solar‑to‑hydrogen projects.

④ Attenuation-based intelligent balancing, reducing operational and maintenance costs.

The system can dynamically adjust operating conditions based on the varying degrees of aging in electrolysis modules, thereby balancing the overall degradation rate and addressing the issue of uneven localized aging that plagues conventional equipment. Effectively extends the overall machine lifespan. , significantly reducing the project’s full‑cycle operational maintenance costs and downtime losses.

Smart manufacturing empowers and strengthens core capabilities for mass production.

The industrialization and practical application of cutting-edge technologies cannot be achieved without the robust support of a world-class intelligent manufacturing system. Xingran Technology boasts… 26,000㎡ modern smart factory , is Asia’s leading specialized production base for PEM hydrogen-generation equipment , it has achieved full-stack in-house development and end-to-end automated production for core processes such as machining, dispensing, painting, and assembly. Leveraging its cutting-edge smart manufacturing capabilities and stringent quality management system, the production base has been successfully recognized as “ Advanced-Level Smart Factory in Jiangsu Province ”, laying a solid core foundation for the high-quality mass production of equipment.

The base seamlessly integrates digital technologies with lean manufacturing principles, ensuring consistent product quality and performance across all dimensions, thereby supporting the 500 Nm³/h high‑power PEM electrolyzer. Large-scale, high-quality batch delivery Providing robust assurance, we can fully meet the equipment procurement needs of large-scale green hydrogen projects both domestically and internationally.

From in-house development of core technologies and innovation in underlying architectures, to the mass production and deployment of smart factories, and finally to the delivery of equipment to major green‑hydrogen project sites, Xingran Technology has leveraged its end‑to‑end, self‑developed, intelligent manufacturing capabilities to successfully overcome the key barriers to scaling up and achieving cost‑competitiveness in green hydrogen.