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In the era of the Internet, from the industrial end to the consumer end, new technologies, new models, and new business formats are emerging to meet various market needs. GCL is striving to push its industrial upgrading, seeking competitions and win-win cooperation, focusing on technologies and digitalizing its operations, determined to create kinetic energy for "carbon neutrality".
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Advanced Materials Technology System

Advanced Materials Technology System

Advanced Materials Technology System

Silicon Material Technology

FBR Granular Silicon Silane Gas Anode Materials

FBR Granular Silicon

Since 2011, GCL has independently developed FBR granular silicon technology, successfully creating an innovative product with independent intellectual property rights—FBR granular silicon—and entering the replicable production era characterized by "systematization, standardization, digitization, integration, intelligence, and modularization." Currently, GCL has established granular silicon production bases in Jiangsu, Sichuan, Inner Mongolia, and other locations, achieving an annual production capacity of 480,000 tons of FBR granular silicon. Compared to traditional rod silicon, granular silicon demonstrates significant energy consumption advantages, with substantial reductions in comprehensive power consumption, labor costs, water consumption, and hydrogen consumption. Simultaneously, granular silicon has gained high recognition in the industry for its superior fluidity, lower costs, more stable quality, and superior carbon footprint. It has received dual carbon footprint certification in the photovoltaic raw material sector in both China and France, initiating a new era of photovoltaic material revolution and low-carbon applications with the lowest carbon footprint in the global industry.

    75%

    Reduction in comprehensive power consumption compared to rod silicon

    30%

    Reduction in water consumption compared to rod silicon

    61%

    Reduction in labor costs compared to rod silicon

    66%

    Reduction in hydrogen consumption compared to rod silicon

Silane Gas

As the global leader in granular silicon production capacity, GCL's production bases possess an annual silane gas production capacity exceeding 600,000 tons to support FBR granular silicon production. This includes over 150,000 tons in Xuzhou, Jiangsu; over 150,000 tons in Leshan, Sichuan; over 150,000 tons in Baotou, Inner Mongolia; and over 150,000 tons in Hohhot, Inner Mongolia. To ensure granular silicon production, most of the silane gas capacity is currently used in-house, with filling capacity exceeding 10,000 tons within the year, and it has the ability to adjust and expand.
Currently, the company's silane gas quality reaches electronic grade, with significant advantages in large output, high purity, and stable supply. The portion sold externally accounts for approximately 25% of the domestic market share. Due to its unique advantage of adjustable and expandable capacity, the company will flexibly adjust the proportion of silane gas for internal use and external sales based on market conditions in the future, becoming a crucial growth driver for the company's development.

Anode Materials (Silicon-Carbon Anode Materials)

GCL's silicon-carbon anode materials can replace graphite, featuring high energy density and significantly improving 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 anodes (silicon powder, silane) are sourced from FBR granular silicon equipment. The silicon-carbon anode materials produced by GCL's nanoscale silicon material technology have a single product specific capacity greater than 1500 and an initial charge/discharge efficiency reaching 91%.

    1500

    Single product specific capacity greater than

    91%

    Initial charge/discharge efficiency reaching

Lithium Material Technology

GCL-PHY Physical Method Cathode Materials

GCL's lithium iron phosphate (LFP) energy storage materials rely on the iterative effects of its proprietary innovative process—the PHY physical dry method technology. This process reduces production costs, investment costs, and energy consumption indicators by approximately 50% each, with the additional benefits of generating no wastewater, exhaust gas, or solid waste throughout the entire process. Indicators such as compaction density, energy density, and cycle count comprehensively surpass those of traditional processes.

    GCL's ExclusivePhysical Production Technology

    Low Energy ConsumptionEnergy consumption reduced by 42%

    Green ManufacturingNo wastewater, exhaust gas, or solid waste generated during the entire production process; no need for chemical industrial park location

    Fewer Process StepsReduced from 11 steps in traditional chemical methods to 4 steps

    Low CostProduction costs reduced by 46%

    120,000-ton ScaleProduction base has reached full capacity

Carbon Material Technology

Building a Carbon-Carbon Cycle Innovation Ecosystem
Transforming Carbon Neutrality from a Cost Center to a Profit Engine

Meeting the Needs of Cutting-Edge Technologies such as Solid-State Batteries and Black Phosphorus Batteries

By combining with cathode/anode materials through three core mechanisms—conductive network construction, structural support, and ion transport optimization—it significantly enhances the energy density, cycle life, and rate performance of batteries. A ten-thousand-ton carbon nanotube production capacity supports the production of a million-ton scale of conductive slurry, and the unit energy consumption for CO2 conversion to carbon nanotubes is reduced by 30%.

Perovskite

Perovskite is referred to as the third-generation or a truly disruptive new-concept solar cell, which utilizes the principle of the photovoltaic effect by using perovskite-type organic metal halide semiconductors as light-absorbing materials to create solar cells.

Leader in Perovskite Photovoltaic Technology

Independently developed large-size perovskite photovoltaic cell modules, established the 100 MW perovskite module mass production line with the highest certified efficiency, and became the world's first enterprise to obtain commercial certification for practical perovskite module products. Module size has broken through from "square centimeter scale" to "square meter scale," with large-size module mass production efficiency steadily leading globally. In June 2025, the world's first GW-scale tandem module production base was put into operation in Kunshan. In October 2025, the first full-size 2400mm x 1150mm perovskite module rolled off the GW-scale perovskite production line.

    Large Size

    2000mm

    X

    1000mm

    2400mm

    X

    1150mm

    High Efficiency

    19.04%

    Large-area single-junction module efficiency

    29.51%

    Perovskite-crystalline silicon tandem module efficiency (2048cm2)

    Low Carbon Emissions

    90% or more

    Reduction in carbon emissions from the perovskite layer

    Low Cost

    50% approx.

    Manufacturing cost is expected to be as low as this percentage of crystalline silicon modules

    High Stability

    TUV

    Passed TüV Rheinland certification
    Perovskite module safety and reliability certification

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