EV Charging

Maximise revenue, optimise space, and future-proof infrastructure with our technology

POWERING ELECTRIC MOBILITY

Solutions built
for your challenges.

In the high-margin EV charging business, are you limited by power constraints, space, or reliability? We deliver the technology to optimise them all.

Ultra-Power

[3000kW]

For heavy-duty EVs (mining, ports, aviation) losing millions per hour of downtime.

Space-Optimised

[16cm Thin]

For sites where tight layouts make EV charging impossible.

High-Power

[600kW to 1500kW]

For charging site owners racing to capture the 240kW+ market.

ULTRA-POWER - 3000kW

Single-Gun DC Mega Watt EV Charger

This next-generation single-gun 3000kW charger serves heavy-duty EVs in mining, ports, and aviation, turning costly downtime into revenue-generating uptime.

8 MINS

Charge from 20% to 80%

For a heavy-duty EV with a 580kWh battery capacity

Challenge

Standard chargers take hours to charge mega-battery vehicles.
Every hour offline is capital not earning. For high-value assets, downtime is unaffordable.

Where 3000kW Meets Reality

Currently powering mining operations in Shanxi.​

Deployed.
Validated.
Delivering.

SPACE-OPTIMISED - 16cm Thin

Slimmest Series DC Super Fast EV Charger

This ultra-slim 16cm DC charger fits space-constrained locations where floor-standing units cannot. Its wall-mountable body maximises revenue per square foot. Dynamic power allocation across multiple ports ensures optimal uptime and energy utilisation, all without compromising DC fast-charging performance.

Maximise Revenue per Square Footage

Wall-mounted design frees up valuable parking space. Install where floor-standing units simply cannot fit.

Optimise Site ROI​

Dynamic power allocation across multiple ports ensures maximum station uptime and energy utilisation.

HIGH POWER - 600kW to 1500kW

High-Margin Public Network Charging

The >240kW segment is growing fast, but capturing it typically means costly dual-gun infrastructure. Hardware expense and complexity eat into margin.

Single-gun design delivers full power where competitors need two.

Capture High-Growth Margins​

Position ahead of the curve in the segment projected to grow from 6% to 44% of public chargers by 2030.​

Lower Cost, Higher Efficiency​​

One gun. Full power. Reduced hardware cost. Simplified user experience. No complex dual-cable handling.​

Infrastructure-Ready​​

Built to align with national mandates for 100,000+ new high-power chargers. Your network, future-proofed.​

CORE TECHNOLOGY

The Engineering Behind the Speed

In EV Charging, heat limits speed, adds weight, forces throttling, and accelerates component wear.
At ultra-power levels, from 600kW to 3000kW, it becomes the central engineering challenge.

add_box Power Module Design add_box AI Thermal Management add_box Nano-materials System Architecture add_box Coolant Chemistry add_box Phase-Change Materials Enables ultra-high power flow in a compact form factor. Optimised pipe and connector design reduces resistance and heat generation at every junction. AI Thermal Management Full-stack AI battery management system predicts and pre-empts heat generation across the entire charging cycle. Performance is sustained at peak levels. add_box Power Module Design add_box Nano-materials add_box Coolant Chemistry add_box Phase-Change Materials add_box System Architecture add_box AI Thermal Management add_box System Architecture add_box Nano-materials Power Module Design add_box Coolant Chemistry add_box Phase-Change Materials Patented high-power module architecture minimises energy loss as heat. Higher conversion efficiency. Lower operational cost. Longer component life. add_box AI Thermal Management add_box Nano-materials add_box Power Module Design add_box Phase-Change Materials add_box System Architecture Coolant Chemistry Proprietary advanced coolant delivers superior heat absorption and transfer efficiency. Developed specifically for extreme-power EV charging. Phase-Change Materials Absorb and buffer temperature spikes passively. Acts as a thermal reservoir during peak load, delaying heat rise and reducing cooling system strain. add_box Power Module Design add_box Nano-materials add_box Coolant Chemistry add_box AI Thermal Management add_box System Architecture add_box AI Thermal Management add_box Coolant Chemistry add_box Power Module Design add_box Phase-Change Materials add_box System Architecture Nano-materials Carbon nanotube and graphene applications enhance thermal conductivity and structural strength without adding weight. Materials science applied at the molecular level.
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