Innovative Technology

Intelligent Management

A closed-loop lifecycle model detects issues in advance and delivers reliable residual-capacity estimates. High-precision State-of-X estimation, continuously self-corrected, for smoother, more confident driving. Smart SOC-window management minimizes range anxiety while maximizing performance. Control-driven safeguards keep cells operating in their ideal comfort zone for longer life.

Reliable Operation

ASPICE-certified development system guarantees process excellence and quality assurance. Comprehensive multi-level testing secures reliability across every stage. Certified to the highest functional safety standards for uncompromising protection. Compliant with stringent cybersecurity requirements to ensure system integrity and data security.

Innovation Technology

High pack efficiency delivers greater energy density and optimized performance. Comprehensive safety design ensures all-around protection for every cell. Space-efficient architecture maximizes endurance and driving range. Advanced liquid-cooling integration enables superior heat transfer and thermal stability.
  • Intelligent Management Intelligent Management
  • Reliable Operation Reliable Operation
  • Innovative Technology Innovative Technology
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High-Power

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Long-Life

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Ultra-fast Charging

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High-Energy

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High-Security

UltraPhosphate™

UltraPhosphate™

Our spherical LFP cathode features ultra-nano primary particles for super power and is protected by global patents covering the entire process
3D high porosity separator

3D high porosity separator

The 3D high porosity separator can effectively increase Li+ transportation speed, so that Li+ can move freely between cathode and anode
Ultra-thin electrode

Ultra-thin electrode

Ultra-thin electrode design promote extreme low resistence of Li+ transportation
Non equidistant multiple tab technology

Non equidistant multiple tab technology

Precise tab design to increase electron transmission channel and reduce the electron conduction path and the rise of impedance and temperature
Low lithium consumption and high toughness graphite

Low lithium consumption and high toughness graphite

Combined surface shaping and low-temperature graphitization enhance graphite's resilience, curbing lithium loss and expansion to extend cycle life
Highly stable self-regulating electrolyte

Highly stable self-regulating electrolyte

The electrolyte forms a heat-stable interface film that adapts to enhance battery cycle life across temperatures
Lithium release control technology

Lithium release control technology

The high-capacity lithium compensation material mitigates irreversible capacity loss to significantly prolong battery cycle life
Uniform expansion force

Uniform expansion force

Control uniform force apply on the entire surface of the battery and ensure long-term cycling performance
Battery temperature control

Battery temperature control

Uniform system temperature control ensures balanced heating of the batteries, improving cycling and storage life
Multi-channel graphite

Multi-channel graphite

Combined isotropic coke and coating technology enable 360-degree lithium embedding in graphite for dramatically faster charging
Multi-dimensional conductive network

Multi-dimensional conductive network

A multi-dimensional conductive network is constructed to improve the charge transfer speed and improve the charging capacity of the cell
Multi-Tab, All-Tab

Multi-Tab, All-Tab

Shortened electron paths enable ultra-fast conduction, boosting cell capacity, energy density, and rate performance
Adaptive fast charging strategy

Adaptive fast charging strategy

Real-time potential monitoring dynamically adjusts charging for maximum speed within safe limits
The ladder type electrode

The ladder type electrode

The ladder-style electrode enables rapid ion transport and high capacity simultaneously, delivering both high power and energy density
High-nickel single crystal technology

High-nickel single crystal technology

High nickelation, single crystallization and high voltage utilization technology of NMC cathode material for upgrading energy density
High-capacity and low expansion silicon carbon

High-capacity and low expansion silicon carbon

The new silicon-carbon fusion technology with coating technology inhibits volume expansion and extend cycle life
High-safety and light-weight technology

High-safety and light-weight technology

Sandwich structural foil can remarkably improve the cost, safety and energy density of the battery to achieve the most cost-efficient performance
First-principles DFT calculations

First-principles DFT calculations

Computing lithium ion migration and electronic structures enables rapid prediction of electrolyte and electrode performance
High reliability cathode

High reliability cathode

Combined doping, gradient Ni, and protective layer tech enable a high-capacity NCM cathode with outstanding stability and safety
Safety coating technology

Safety coating technology

An organic-inorganic coating creates a heat-resistant layer that interrupts the thermal runaway process, drastically improving battery safety
Wide temperature range and high safety gel electrolyte

Wide temperature range and high safety gel electrolyte

By binding liquid electrolyte and raising its flash point, the gel electrolyte significantly increases the thermal runaway threshold
Battery self destruction

Battery self destruction

By controlling a single battery self destruction to avoid thermal propagation and improve system safety
Multi-Failure Model Monitoring

Multi-Failure Model Monitoring

Establish a failure model library through big data to monitor battery aging, safety, and other characteristics in real-time