Requirement Communication

Custom energy storage requirements involve tailoring battery capacity (KWH), power output (KW), chemistry, and thermal management to specific load profiles, safety codes (e.g., UL 9540, NEC 690/706), and operating environments. Key steps include analyzing consumption data, determining critical loads for backup, ensuring certification, and selecting components for longevity. 

Key Considerations for Custom Energy Storage Systems

Sizing & Load Profiling: Determine capacity (KWH) based on daily consumption and power needs (KW) for critical loads. Size systems for 4-12 hour durations for optimal renewable integration.

Safety & Regulatory Compliance: Systems must meet local codes, requiring specific safety features like fire detection and proper siting.

Technology Selection:

LiFePO4 (LFP): Preferred for safety and high cycle life.

Flow Batteries: Suitable for long-duration, non-flammable, and high-cycle applications (up to 20000+ cycles).

System Components: A custom system typically integrates battery modules, a Battery Management System (BMS), and a Power Conversion System (PCS).

Thermal & Environmental Design: Outdoor systems require robust cooling and heating for varied climates, whereas indoor units must adhere to strict fire suppression guidelines. 

How JINGYE Meets Your Custom Energy Storage Needs

Customer puts forward preliminary requirements (capacity, voltage level, application scenarios, size restrictions, communication protocols, etc.) The technical team preliminarily evaluates the feasibility and provides preliminary suggestions

As a new energy enterprise with large-scale production capacity and a full industrial chain layout, JINGYE New Energy has established a service system combining standardization and personalization during the demand communication phase. Customers can express their core needs through multiple channels such as offline docking meetings, online platforms, and special project team connections.

JINGYE New Energy has set up a professional team to provide consulting and construction services for green and low-carbon development planning. It initiates a rapid evaluation mechanism to conduct research and analysis on high-energy-consuming parks, gaining a grasp of the park's industrial layout, energy consumption characteristics, and carbon emission status. Initial feedback is provided within 24 hours, and a preliminary communication report including technical feasibility conclusions, optimization suggestions (such as combination schemes based on existing mature modules, customized improvement directions for extreme scenarios), and references to similar industry cases is delivered within 48 hours. This ensures efficient matching between customer needs and the enterprise's technical reserves and production capacity. Meanwhile, a detailed survey is conducted on the distribution and developable potential of renewable energy in the region. The team formulates scientific carbon emission reduction goals and zero-carbon construction plans, clarifying energy transition and supporting energy storage facility construction schemes.