SynRoad H240
Product Overview
The SynRoad H240 module represents a cutting-edge high-power solution that has been developed entirely in-house by Sinosynergy. This advanced module features the SynStack GⅢ fuel cell stack, which has also been designed and engineered by Sinosynergy’s expert team. The SynStack GⅢ is notable for its high efficiency and robust performance, positioning it at the forefront of fuel cell technology. Together, these components offer a powerful and reliable energy solution suitable for various applications, emphasizing Sinosynergy’s commitment to innovation and excellence in the field of clean energy technology.

High Efficiency

The module has an impressive rated efficiency of over 48%. Its peak efficiency reaches an outstanding 61%. For heavy-duty trucks operating within the typical power range, the efficiency consistently averages about 50%, demonstrating their reliability and performance capabilities.

Long Lifetime

The module offers comprehensive life cycle utilization, with an impressive lifespan that surpasses 30,000 hours—making it comparable to diesel engines. Additionally, it boasts an industry-leading attenuation rate of less than 4μV/h, setting a new standard for performance and reliability.

High Power and Powerful Output

Our technology delivers exceptional high peak power per module, setting a new standard in the industry and showcasing our leadership in performance and efficiency.

Strong Compatibility

The module utilizes an innovative multi-power development platform, a pioneering approach in the industry. This advancement encompasses an extensive power range, making it highly versatile across various applications. Following its expansion, the platform now achieves an impressive output of 400kW, making it exceptionally well-suited for a diverse array of specialized heavy-duty vehicles. Its adaptability positions it as a leader in meeting the demands of specialized transportation solutions.

Six-in-one Integration

It incorporates an advanced boost DC-DC converter, an air compressor controller, a high-voltage distribution unit, and electrochemical impedance spectroscopy technology for precise system diagnostics. Additionally, it features a step-down DC-DC converter and an integrated insulation tester to ensure safety and reliability. The design simplifies the wiring harness and structural layout, reducing complexity and potential failure points. Furthermore, it significantly enhances electromagnetic compatibility (EMC) and mitigates electromagnetic interference (EMI), ensuring stable operation even in demanding environments.

High Insulation Level

By modifying the coolant circuit to float its auxiliary components and integrating the deionized water exchange column in a parallel configuration with the inlet and outlet of the stack cooling system, the electrical insulation resistance of the engine in its operational (hot) state is significantly enhanced. This optimization increases the insulation value to over 6MΩ, ensuring improved electrical isolation and system reliability during high-temperature operation.

Intelligent Water Management

Using electrochemical impedance spectroscopy (EIS) detection combined with advanced intelligent algorithms, precise water management is achieved for both the cathode and anode in fuel cell stacks. This method continuously monitors and analyzes key electrochemical parameters to optimize water distribution, ensuring stable operation. Maintaining ideal hydration effectively minimizes the risk of critical failures such as cathode flooding, which can obstruct gas flow and reduce performance, and membrane drying, which leads to decreased ionic conductivity and potential damage. This approach significantly enhances the reliability, efficiency, and longevity of the fuel cell system.

Quick Cold Start

By applying the thermodynamic principle of compressed gas, the module can be quickly started at low temperatures using an air compressor heating solution.

Anti-decay Shutdown

The cathode inlet and outlet feature a double throttle design, which effectively slows down performance degradation of the fuel cell stack through oxygen consumption shutdown and a cathode hydrogen reduction strategy.

Efficient Energy Recovery

The implementation of turbine expansion technology significantly reduces the loss of module accessories, achieving an impressive loss ratio of 13%. This advancement not only improves efficiency but also ensures more effective resource utilization, resulting in enhanced overall performance.

Multi-stage Hydrogen Cycle Injection

The system adopts advanced multi-stage hydrogen cycle injection technology, designed to optimize hydrogen utilization across various operating conditions. By incorporating a graded injection approach and a self-learning control algorithm, the control strategy intelligently adjusts hydrogen injection rates in real-time. This ensures precise delivery of hydrogen under all operating scenarios, achieving comprehensive coverage for diverse performance requirements. Additionally, this innovative approach significantly reduces anode-side auxiliary hydrogen consumption, enhancing overall efficiency and minimizing waste.
Parameters
Rated Power
240 kW
Peak Power
270 kW
Voltage
500 V - 720 V
Current
0 A - 540 A
Mass Power Density
571 W/kg
Cold Start Temperature
-40 ℃
Maximum Efficiency
61%
Lifetime
30,000H
IP Grade
IP67
Dimensions
Length
1166 mm
Width
780 mm
Height
907 mm
Weight
420 kg
*Parameters are subject to the final product.