Energy Storage Solutions

Wending Battery Technology

Wending Battery Technology optimizes energy density and safety through a patented seamless top-cap design. Supporting both LFP and NCM chemistries, it delivers up to 10,000 cycles, 4C fast charging, and an EV range of up to 1200km, providing a high-ROI solution for global ESS and EV partners.

Wending Battery Technology

Wending battery technology revolutionizes lithium-ion batteries with a patented top-cap design and seamless welding, optimizing space utilization and structural stability. It is compatible with LFP and NCM chemistries and boosts energy density, facilitates fast charging, and offers superior safety for electric vehicles and energy storage systems.

Wending integrates innovative cell structure and cutting edge solid-liquid interface technology to provide extension of lifespan, cost efficiency and compact design in sustainable power solutions for global mobility and energy.

Traditional Battery Structure
Traditional Battery Structure

Improved Cost Efficiency

Enhanced design reduces system costs and boosts ROI, improving project economics.

Higher Safety

No U-shaped tab bending ensures a stable structure, minimizing short-circuit risks and enhancing lifecycle safety.

Extended Driving Range

Powers EVs with 700km (LFP) or 1200km+ (NCM) range, reducing range anxiety in all conditions.

Faster Charging

2-4C fast charging slashes charge times, driven by 60% shorter tabs and dual high solid-liquid interface technology.

Longer Lifespan

Optimized structure and electrochemistry enable up to 10,000 cycles, retaining capacity.

Dual-High Solid-Liquid Interface Technology

In product design, we adhere to the design philosophy of high areal density and high compaction (dual-high). Centered around this dual-high concept, our multi-dimensional solid-liquid interface design technology employs non-destructive detection and advanced simulation methodologies to thoroughly investigate and construct multi-dimensional pore structures. This approach has achieved breakthroughs in electrolyte infiltration technology, enabling precise control over the solid-liquid interface to attain an optimal, controllable state.

7%
Increased Space Utilization

Innovative top design maximizes internal volume for active materials.

30%
Faster Ion Migration

Shortened electrical pathways enable quicker energy transfer and charging.

16%
Lower DC Resistance

Reduced internal resistance improves efficiency and thermal performance.

10%
Higher Capacity

Same-size battery delivers more energy with revolutionary internal architecture.

Zheng, Jie
Zheng, Jie