Introduction
Materials and component testing is used to evaluate the performance of key materials and structural units in electrochemical systems. It is essential to system efficiency and stability. We conduct systematic tests on catalysts, membranes, electrodes, and key components under conditions close to real operation, ensuring that the resulting data are relevant for engineering applications. Rather than focusing solely on material properties, we emphasize performance under realistic conditions and compatibility with the overall system. Through integrated analysis of material performance, structural design, and operating conditions, we provide a reliable foundation for stack design and system integration.
Key Functions
Catalyst performance evaluationCatalyst Performance Evaluation
Introduction
Catalyst performance evaluation is used to systematically analyze the activity, selectivity, and stability of catalysts in electrochemical reactions under controlled and engineering-relevant conditions. It is a critical step in material screening and technology pathway validation.
Key Functions
Activity and performance evaluationMembrane & MEA Testing
Introduction
Membranes and membrane electrode assemblies (MEAs) are critical components that influence ion conduction, reaction efficiency, and overall stability in electrochemical systems. Their performance directly determines system efficiency and operational lifetime.
Key Functions
Ionic conductivity and resistance evaluationOperating Condition Simulation
Introduction
Gas diffusion layers (GDL), bipolar plates, and sealing structures are key components in electrochemical systems that enable gas distribution, current conduction, and system sealing. Their design and performance directly affect system efficiency, uniformity, and operational reliability.
Key Functions
Gas distribution and transport evaluationFlow Field & Bipolar Plate Validation
Introduction
Flow field design and bipolar plate structure directly affect reactant distribution, current conduction, and system pressure drop. They are key factors in electrochemical system performance and uniformity control. A well-designed flow channel structure determines the distribution efficiency of gases and liquids at the reaction interface, while also influencing overall energy consumption and operational stability.
Key Functions
Flow distribution and uniformity evaluationMaterial-System Compatibility Analysis
Introduction
Material-system compatibility analysis is used to evaluate how key materials perform under actual system operating conditions. It is an important step in bridging material performance and system design. Material properties alone do not directly predict system-level behavior, as operating conditions, structural design, and integration methods all significantly affect performance.
Key Functions
Material-operating condition compatibility|
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