Introduction
Demonstration and integration projects are used to validate the operational performance and engineering feasibility of electrochemical systems in near-real-world application scenarios. They represent a critical step in transitioning technology from pilot scale to practical deployment. Through system integration and on-site deployment, we bring together electrolysis units, BoP, and control systems to form complete engineered solutions. At this stage, systems must not only meet performance targets but also adapt to diverse operating conditions, including energy input variability, load fluctuations, and environmental factors. Through the design and validation of demonstration systems, we assess stability, reliability, and adaptability under real-world conditions, providing a foundation for scaled deployment and commercial application.
Demonstration Project Scope
Distributed hydrogen production and microgrid systemsBuilding electricity-hydrogen-carbon coupled systems that convert renewable electricity into hydrogen and carbon-based fuels, suitable for zero-carbon parks and industrial decarbonization demonstrations.
Distributed Hydrogen Production & Microgrid Systems
Introduction
Distributed hydrogen production and microgrid systems use electrolysis technology combined with renewable energy and storage to enable hydrogen production, storage, and utilization in distributed energy frameworks. Through system integration and coordinated control, electrical energy is converted into hydrogen, which can then be used for power generation or energy regulation, creating a multi-energy complementary solution.
Key Functions
Electrolysis system integrationRenewable-Coupled DAC & CO₂ Conversion Systems
Introduction
Renewable-coupled DAC and CO₂ conversion systems integrate direct air capture (DAC) with electrochemical conversion to establish an engineering pathway from low-concentration CO₂ capture to high-value product formation. Driven by renewable energy, the system builds an "electricity-carbon" coupling chain that converts distributed carbon sources into usable chemical resources.
Key Functions
DAC system integration and CO₂ captureThe system validates stability, energy efficiency, and overall matching under engineering conditions, providing a basis for demonstration and scale-up.
CO₂ Electroreduction & Syngas Systems
Introduction
CO₂ electroreduction and syngas systems use electrochemical methods to convert CO₂ into CO or syngas (CO + H₂), which can then be coupled with downstream thermocatalytic processes to transform carbon resources into fuels or chemicals. This engineering-oriented pathway is one of the most promising routes for CO₂ utilization with near-term practical potential.
Key Functions
CO₂ electroreduction system integrationThe system validates conversion efficiency, stability, and operational reliability under engineering conditions.
Green Fuel Synthesis Systems – e-Fuels: Methanol, Methane, SAF
Introduction
Green fuel synthesis systems integrate green hydrogen with CO₂ conversion pathways to build a complete Power-to-X engineering framework from renewable electricity to liquid or gaseous fuels. Through the integration of electrolysis and carbon conversion units, we enable synthesis pathways for green methanol, methane, and sustainable aviation fuel (SAF).
Key Functions
Hydrogen and carbon couplingThe system validates fuel yield, quality, and operational stability, supporting real-world application scenarios.
Integrated Power-to-X Systems
Introduction
Integrated Power-to-X systems couple renewable electricity with hydrogen, carbon conversion, and fuel synthesis pathways to build an "electricity-hydrogen-carbon" multi-energy conversion framework. This enables the transformation of energy from electrical to molecular forms. Based on a modular design, the system integrates electrolysis, CO₂ capture and conversion, fuel synthesis, and energy storage units at the system level, with unified control and energy dispatch for coordinated operation. Across various application scenarios, it enables integrated operation of energy conversion, storage, and utilization, providing engineering solutions for zero-carbon parks and industrial decarbonization.
Key Functions
Multi-pathway integrationSuitable for zero-carbon parks, industrial decarbonization, and integrated energy utilization, enabling practical engineering deployment.
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