Pilot & Scale-up Engineering - Electro Power Cell Energy Technology (Shanghai) Co

Pilot & Scale-up Engineering

Pilot testing and scale-up mark the transition of electrochemical technology from lab to practical application, which focuses on translating single-cell and material-level results into stable stack- and system-level designs. This stage addresses system engineering challenges, including heat and water management, fluid distribution, current uniformity, and structural reliability. Using prior validation data, we optimize stack design and multi-channel integration, moving technology from “experimentally feasible” to “engineerably operable” and enabling modular deployment and commercial use.

🟩Stack Design & Scaling

🟦Multi-Channel & System Integration

🔶Thermal & Water Management Optimization

🟪Flow & Current Distribution Control

⚙️Engineering Stability Validation

Stack Design & Scaling

Stack-level design and scale-up represent a critical stage for taking electrochemical technology from single-cell validation to an engineering system, which focuses on translating experimental data into stable stack structures and system parameters. During scale-up, the system is influenced not only by performance but also by coupled factors such as fluid distribution, current uniformity, heat management, and structural reliability. Based on prior test data, we perform integrated design and optimization of stack structures, operating parameters, and system integration, achieving scale-up from cm² to m² levels while ensuring consistent performance and stability.

Key Functions:

🟩Stack Structural Design

🟦Scaling & Parameter Development

🔶Flow & Current Distribution Control

🟪Thermal Management & Stability

⚙️Engineering Operation Validation

Multi-Channel & System Integration

Multi-channel operation and system integration represent a further engineering step beyond stack-level design, focusing on enabling coordinated operation of multiple electrolyzer units and full system-level integration. At this stage, the system shifts from single-stack operation to coupled multi-unit operation, placing higher demands on fluid distribution, current load management, control strategies, and overall system stability.

Key Functions:

🟩Multi-Channel Structural Design

🟦Flow & Load Distribution Control

🔶System-Level Operation Coordination

🟪Dynamic Response & Control

⚙️Integrated System Validation

Flow & Current Distribution Control

Fluid and current uniformity control ensures consistent reactant distribution and current flow during system scale-up and multi-channel operation, serving as a key factor affecting electrochemical system performance and reliability. Under engineering conditions, uneven fluid distribution or current concentration can lead to local overload, reaction imbalance, and performance degradation.

Key Functions:

🟩Flow Distribution & Path Optimization

🟦Current Distribution & Load Balancing

🔶Flow Field & Structural Optimization

🟪Scaling Consistency Validation

⚙️Engineering Optimization & Validation

Engineering Stability Validation

Engineering stability and operational validation involve systematically assessing the overall performance and long-term stability of electrochemical systems under conditions close to real-world applications, serving as a key verification step during pilot-scale testing. After system scale-up and integration, operational stability depends not only on individual performance metrics but also on the combined effects of fluid distribution, heat management, structural reliability, and control strategies.

Key Functions:

🟩Long-term Operation Testing

🟦Multi-Condition Stability Evaluation

🔶Dynamic Operation & Response Testing

🟪Failure Mode Identification

⚙️Operating Envelope & Engineering Validation

📍 Address: Room 702, Building 6, No. 1158 Zhongxin Road, Songjiang District, Shanghai, China

📧 Email: epc@electropowercell.com

📞 Phone: +86-021-8018-3580

📱 WhatsApp: +86-13681671402

Electro Power Cell Energy Technology