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Spherical Porous Carbon 非Spherical Porous Carbon Hard carbon Supercapacitor

Spherical Porous Carbon

Using phenolic resin as the raw material and employing various activation‑based pore‑forming processes, the resulting product exhibits a high specific surface area that can be precisely controlled. It is widely applicable in advanced energy‑storage fields, such as silicon‑carbon anode supports, meeting the stringent requirements for material structure and purity in high‑performance applications.

Non-spherical porous carbon

Using coal and block‑type phenolic resin as raw materials, and employing various activation‑induced pore‑forming processes, this approach offers a wide range of feedstock options, low production costs, and minimal impurity levels. The resulting product exhibits a high specific surface area that can be precisely controlled, making it well suited for advanced energy‑storage applications such as silicon‑carbon anode supports and supercapacitor electrode materials.

Hard carbon

Coal- and asphalt-based hard carbon, derived from coal and pitch, has achieved kiloton-scale production through precise control of precursor composition and carbonization processes. It finds broad applications in sodium-ion battery anode materials, start–stop power systems, low-speed electric vehicles, and energy storage, thereby providing a domestically controlled, core material supply to support the industrialization of sodium‑ion batteries.

Supercapacitor

They are typically fabricated from porous carbon materials with high specific surface areas, such as activated carbon, carbon nanotubes, or graphene, which provide an exceptionally large electrode surface area for charge storage.

MK-1.0 Coal-Based Porous Carbon RK2-1.1 resin-based porous carbon MH-0.6 Coal-Based Porous Carbon
GHC-C300 Standard Model

Activation process

Alkali activation

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Specific surface area

2300±200

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Pore volume

1.00±0.05

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Percentage (%) ≤0.7 nm

1.80±0.05

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Percentage of ≤2 nm (%)

0.7 ≤30

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Average pore size

2 ≥95

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GHC-C300A Power Type

Activation process

Alkali activation

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Specific surface area

2400±200

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Pore volume

1.10±0.05

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Percentage (%) ≤0.7 nm

1.80±0.05

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Percentage of ≤2 nm (%)

0.7 ≤30

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Average pore size

2 ≥95

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GHC-B280 Low-Cost Model

Activation process

Physical Activation

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Specific surface area

1400±100

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Pore volume

0.70±0.05

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Percentage (%) ≤0.7 nm

1.90±0.05

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Percentage of ≤2 nm (%)

0.7 ≤25

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Average pore size

2 ≥85

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Charge–discharge curve Particle size distribution
Charge–discharge curve
Particle size distribution

Application scenarios

低空经济
消费电子
电动汽车
新型电力系统
人工智能
航空航天

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