In July 2023, GCL's annual production of 360,000 tons of lithium iron phosphate (LiFePO4) energy storage materials project officially commenced. This project relies on the innovative, proprietary technology called PHY Physical Dry Process, known for its iterative effects. With GCL-PHY LiFePO4 production, the cost, investment, and energy consumption indicators have been reduced by approximately 50%. Moreover, the entire process is free from wastewater, exhaust gases, and waste residues. The compaction, energy density, and cycle life indicators have surpassed those of traditional processes in a comprehensive manner.

The silicon-carbon anode material developed by GCL can replace graphite and exhibits high energy density, significantly enhancing the capacity and electrochemical performance of battery anode materials. As an extension project of GCL's silicon industry chain, the raw materials for silicon-carbon anode (silicon powder, silane) are sourced from the FBR granular silicon unit.The silicon-carbon anode material produced through GCL's nanoscale silicon technology exhibits a single-cell specific capacity exceeding 1500, with a first charge-discharge efficiency reaching 91%.

Supramolecular technology enables the reengineering of materials, effectively addressing safety concerns such as thermal runaway and flammability associated with conventional electrolyte materials.

The GCL cell products possess elevated levels of safety and exceptional cycle reliability, making them suitable for applications in power storage, communication storage, new energy vehicles, and engineering machinery, among other scenarios.
GCL Energy Storage specializes in long-lasting lithium iron phosphate batteries for energy storage, offering a remarkable combination of high energy density, efficiency, rate capability, and thermal stability. With an impressive lifespan of 12,000 cycles, these batteries achieve a harmonious balance between light storage and durability.

The standard battery pack for passenger vehicles, also known as the Super P Pack, offers cross-brand and cross-model compatibility, adaptable to vehicles with an axle spacing of ≥2700mm. This enables comprehensive coverage in scenarios such as ride-hailing, online ride-sharing, and passenger transportation.
For heavy-duty trucks, the standard battery pack, referred to as the Super H Pack, finds applications in various scenarios like mining, long-haul transportation, logistics, and urban construction. It allows for battery interchangeability between different brands and models, facilitating multi-vehicle operations at a single charging station.

GCL's energy storage packs are characterized by their high energy density, excellent cycling performance, and exceptional safety features. These packs find wide applications in areas such as commercial and industrial energy storage, power auxiliary services, and integrated energy systems.
The energy storage system incorporates high-efficiency liquid cooling technology, advanced thermal isolation techniques, and safeguards against thermal propagation and thermal runaway incidents. With these features, the system ensures optimal energy efficiency and utilizes CTS (Cell Temperature Stabilization) technology to effectively manage cell temperatures.

The intelligent string-type energy storage system integrates grid monitoring, smart distribution, energy storage, and inverter equipment into a standard-sized container, enhancing the system's available capacity. It features advanced battery unit expansion and bidirectional inverter units, as well as a fault-level pre-processing mechanism. Furthermore, the system enables human-machine interaction by collecting various signals from the DC and AC sides of the energy storage system for monitoring and control purposes.
The GCL intelligent string-type energy storage system adheres to a design philosophy that emphasizes modularity and integration. It effectively integrates grid monitoring, smart distribution, energy storage, and inverter equipment into a standard-sized container.