Different electrolysis technologies impose distinct requirements on operating conditions and system configuration:

1. PEM systems operate with high-purity water, emphasizing fast dynamic response and precise control.

2. AEM systems offer greater flexibility in cost and water quality, but require more advanced system integration for water management and gas separation.

3. ALK systems are mature and suitable for large-scale continuous operation, with higher demands on electrolyte circulation and system stability.

EPC Energy leverages the characteristics of PEM, AEM, and ALK technologies to design and integrate gas–liquid separation, water treatment, power supply, and control systems accordingly. Through coordinated optimization of fluid dynamics, thermal management, and electrical control, we ensure stable operation and reliable engineering delivery across diverse operating conditions and applications.

Enables the electrochemical water splitting process and serves as the core unit for hydrogen production;

2.Gas–Liquid Separation System

Ensures effective separation of hydrogen from water/electrolyte;

3. Hydrogen Purification System

Improves hydrogen purity to meet various application requirements;

4. Water Management System

Provides a stable water supply and maintains system circulation;

5. Power Supply / Rectifier

Delivers stable DC power input matched to electrolyzer operation;

6.Thermal Management System

Regulates system temperature to ensure stability and efficiency;

7.Control System (PLC / EMS)

Enables system monitoring, regulation, and safety control.

Through coordinated optimization of fluid distribution, thermal management, and control systems, we ensure proper integration and stable operation across subsystems, delivering overall performance and reliability.

2. Multi-Technology Compatibility (PEM / AEM / ALK)

Based on the characteristics of different electrolysis technologies, we provide tailored BOP designs to achieve optimal balance across efficiency, cost, and operating conditions.

3. Dynamic Operating Capability

Designed to handle renewable energy fluctuations and load variations, with optimized control strategies ensuring stable operation during start-up, shutdown, and variable load conditions.

4. Modularization and Engineering Delivery

Standardized modules combined with skid-mounted and containerized design enable rapid deployment, flexible scalability, and efficient project delivery.