Li-ion Battery Raw Material/ Equipment Manufacturer

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Li-ion Battery Raw Material/ Equipment Manufacturer Gelon set up as a manufacturer and exporter in 2007. Dealing with lithium ion battery materials, eq

05/01/2026

A fully automated stacking machine is a high-precision, high-efficiency industrial automation device primarily used to precisely and alternately stack multiple layers of electrodes (positive and negative electrodes) with separators to form the core of a lithium-ion battery cell (bare cell). It is a core piece of equipment in the mid-stage process of lithium battery manufacturing (cell assembly), directly determining the cell's capacity, consistency, safety, and production efficiency.

Core Working Principle (Taking Z-shaped Stacking as an Example): The stacking process simulates manual stacking, with the mainstream method being Z-shaped stacking.

29/07/2025

Manual .

1. Place the and and separator of on the lower cutting platform, press the handle down, and the punching will form the product. This equipment is finely crafted, with minimal burrs and no press marks after punching. By matching different punching dies, it can achieve punching of various sizes and types of products.

2. Equipped with dies of different specifications, it can perform punching and blanking processes on thin sheet materials. The entire machine is designed to be compact, flexible, and convenient to use, making it very suitable for punching and blanking processes on materials such as lithium battery cathode and anode electrodes and separator . It can be easily and freely handled within a .

3. Available Dia. size: 8/ 10/ 12/ 13/ 14/ 15/ 16/ 17/ 18/ 19/ 20mm, etc.

29/05/2025

Video of semi-automatic for in .
Manual whole tray loading, tray 8*10, 4 liquid injection, vacuum station, automatic liquid injection, .

Email: [email protected]
WhatsApp/ Tel: 139 6996 4981

23/05/2025

Semi-uto battery cathode anode separator "Z" shape stacking machine for 18650 21700

Solid state battery test device
30/04/2025

Solid state battery test device

is the key component of the anode electrode of lithium-ion battery, which is mainly composed of graphite material, c...
05/03/2025

is the key component of the anode electrode of lithium-ion battery, which is mainly composed of graphite material, conductive agent, and . The following is an introduction to its main data:

1. material
Type: ,
: 5-20 microns
Specific surface area: 1-10 m²/g
Tapped density: 0.8-1.2 g/cm³
Electrochemical performance: specific capacity of about 330-370 mAh/g, first efficiency 90-95%

2.
Common materials: , ,
Addition amount: 1-5 wt%
Function: improve conductivity and reduce internal resistance

3.
Common materials: , ,
Addition amount: 2-10 wt%
Function: enhance the mechanical strength of the enectrode and ensure structural stability.

4. Current collector
Common materials:
Thickness: 8-15 microns
Function: collect and conduct electrons

5. Electrode parameters
Thickness: 100-200 microns (including current collector)
Surface density: 10-20 mg/cm²
Packed density: 1.4-1.8 g/cm³
Porosity: 20-40%

6. Electrochemical performance
Specific capacity: 330-370 mAh/g
First charge and discharge efficiency: 90-95%
Cycle life: 500-2000 times (80% capacity retention rate)

7. Manufacturing process
: Apply the slurry evenly on the current collector
Drying: Remove the solvent
Rolling: Increase the compacted density
Slitting: Cut according to size

8. Test standards
Electrochemical test: charge and discharge test, cyclic voltammetry
Physical property test: thickness, surface density, compacted density, porosity.

LIBs are mainly composed of electrochemically active , , , , etc. Binders are an important component of LIBs el...
13/02/2025

LIBs are mainly composed of electrochemically active , , , , etc. Binders are an important component of LIBs electrodes. Binders can tightly attach active substances and conductive agents to current collectors to form complete electrodes, prevent active substances from falling off and peeling off during charging and discharging, and can evenly disperse active substances and conductive agents, thereby forming a good electron and ion transmission network and realizing efficient transmission of electrons and .

Currently, the substances used as electrode binders include polyvinylidene fluoride ( ), carboxymethyl cellulose ( ), styrene-butadiene rubber ( ), polyvinyl pyrrolidone ( ), polymethyl methacrylate ( ), polyacrylonitrile ( ), polyacrylic acid ( ), polyvinyl alcohol (PVA), sodium alginate (Alg), β-cyclodextrin polymer (β-CDp), polypropylene emulsion ( ), polytetrafluoroethylene ( ), etc., as well as functional derivatives of the above polymers or copolymers between monomers.

In LIBs electrodes, the ideal binder properties should include:
(1) chemical and electrochemical stability in a given electrode/electrolyte system, resistance to electrolyte corrosion, and no redox reaction within the operating voltage;
(2) good solubility, fast dissolution speed in solvent, high solubility, and the required solvent is safe, environmentally friendly, and non-toxic, with water being the best solvent;
(3) moderate viscosity, easy to homogenize and maintain slurry stability, strong adhesion, and the prepared electrode has high peel strength, good mechanical properties, and low binder dosage;
(4) good flexibility, able to withstand bending during electrode operation and volume changes of active material particles during charge and ;
(5) able to form an ideal conductive network with the conductive agent, and the prepared electrode has good conductivity and lithium ion conductivity;
(6) wide source and low cost.

🔋 As the content of liquid electrolyte gradually decreases, the development path of batteries can be roug...
09/01/2025

🔋

As the content of liquid electrolyte gradually decreases, the development path of batteries can be roughly divided into the following stages:
1️⃣Semi-solid-state (5-10wt% liquid electrolyte)
2️⃣Quasi-solid-state (0-5wt% liquid electrolyte)
3️⃣All-solid-state (0wt% liquid electrolyte)

The semi-solid-state and quasi-solid-state batteries use a hybrid liquid-solid electrolyte. Currently, all-solid-state batteries are mainly in the research and prototype stage globally.

The main limitations hindering the commercialization of all-solid-state batteries are the immaturity of materials and manufacturing technologies, as well as the high production costs. The industry generally believes that it will take at least 5 more years for all-solid-state batteries to reach large-scale commercialization.

Before all-solid-state batteries formally enter the commercial stage, semi-solid-state batteries may be a good transitional technology solution. Semi-solid-state batteries use a 5-10% liquid mixed with solid . Their electrochemical principle is the same as traditional -ion batteries, so the existing mature battery manufacturing processes can be largely utilized, making them easier to produce than all-solid-state batteries.

Compared to traditional liquid lithium-ion batteries, semi-solid-state batteries have significantly improved performance, including better safety, higher energy density, more flexibility, longer cycle life, wider operating temperature range, and better resistance to compression and vibration.

25/12/2024

Wishing you and your family health, happiness, peace and prosperity this Christmas and in the coming New Year.

is a new type of material for power batteries, with a sandwich structure like a sandwich , the middle layer is a con...
18/12/2024

is a new type of material for power batteries, with a sandwich structure like a sandwich , the middle layer is a conductive plastic film of polymer insulating resin PET/PP materials, both sides of the conductive film by magnetron sputtering/vacuum evaporation, respectively, a layer of about 20-80nm thickness of metal aluminum/copper, made of composite current collector. The feedback on the market is also very good.

Product Advantage:
1.More efficient,If the normal and are replaced by the composite fluid collector MC/MA, The energy density of the cell can be increased by 17.9%, the can be increased by 13.8%.

2.Wide compatibility,Can be used for all battery type.Such as lithium ion battery,Sodium ion battery, Solide state battery,Condensed matter battery and so on.

3.High safety performance--Greatly improve the safety of battery mechanical abuse, improve the battery cell interface, and completely solve the reliability problem of long-term aging of pure metal fluid collector from the material side.

Higher energy density--Lighter weight, 77% less surface density than normal copper foil, energy density increased by more than 5%.

If you need more details pls feel free contact with me.

In addition to the size and coating roller size, the main parameters that need to be considered when designing electro...
13/12/2024

In addition to the size and coating roller size, the main parameters that need to be considered when designing electrode include the theoretical capacity of the electrode material, the battery design capacity, the surface density, the compaction density, the porosity, the coating thickness, the N/P ratio, etc. These parameters directly affect the performance and cost of the battery.

‌1. Theoretical capacity of electrode materials: The theoretical capacity of electrode materials refers to the capacity that can be provided assuming that all in the material participate in the reaction. For example, the theoretical capacity of can be calculated by its molar mass.

2. Battery design capacity: The battery design capacity can be calculated by the coating surface density, the active material ratio and the active material gram capacity. The surface density of the coating is a key design parameter because it affects the electron transmission distance and resistance.

‌3. Pole sheet surface density and compaction density: The compaction density and surface density of the pole sheet directly affect the energy density and power density of the battery. Electrode with high compaction density can provide higher energy density, but may affect the pe*******on of the electrolyte and the transmission of lithium ions.

‌4. Porosity and ‌: Porosity is the ratio of the pore volume to the total volume in the electrode. Good pore distribution helps ion transport, but too many pores will reduce electronic conductivity. Coating thickness affects the electron transmission distance and resistance. Increased thickness will lead to increased electronic resistance‌.

‌5. N/P ratio (ratio of negative electrode capacity to positive electrode capacity): The N/P ratio is usually between 1.04 and 1.20. Excessive N/P ratio will cause irreversible capacity loss of the battery, affecting the battery energy density and high temperature performance‌.

‌6. Other parameters‌: Including the size and distribution of active material particles, the type and proportion of conductive agents and binders, etc. These parameters affect the overall performance of the electrode and the electrochemical performance of the battery‌.

10/12/2024

Gelon automatic for making.

Address

临沂市兰山区
Linyi
276000

Opening Hours

Monday 08:30 - 17:00
Tuesday 08:30 - 17:00
Wednesday 08:30 - 17:00
Thursday 08:30 - 17:00
Friday 08:30 - 17:00

Telephone

+8613969964981

Website

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