Turning Roads into Power Plants.

Every vehicle that brakes or decelerates carries kinetic energy that would otherwise be lost as heat. REPS captures that energy at the source turning unavoidable traffic flow into a continuous stream of usable electricity.

From 60-tonne freight trucks to light passenger cars, the Trigger Units are engineered to respond proportionally to axle load. Heavier vehicles naturally generate more energy, making high-traffic freight corridors the most powerful deployment sites.

Each Trigger Unit is a self-contained module that can be installed, replaced, or expanded independently. This means deployments can start small and scale lane by lane with no need to overhaul the full system to add capacity or service individual units.

The REPS street plate measures 12 meters in length and 3 meters in width. Within these dimensions, 9 road slabs are arranged in sequence each containing 3 trigger pairs positioned left and right to align with vehicle tire tracks across the axle. The system is embedded into a 15 cm civil foundation of steel or concrete, ensuring structural stability under the continuous load of heavy freight traffic.

Hydraulic lines transmit force with minimal energy loss over distance, making them ideal for separating the road-level capture point from the converter module. The system maintains high transmission efficiency even under the variable loading patterns of mixed traffic.

Sensitive components are positioned safely outside the roadway, reducing exposure to vibration, weather, and mechanical stress. This separation simplifies routine maintenance and significantly extends the operational lifespan of the core system.

The hydraulic circuit operates as a sealed, closed-loop system, meaning no fluid is lost or replenished during normal operation. This makes it self-sustaining, resistant to contamination, and reliable across a wide range of operating temperatures and conditions.

Every component is rated for continuous industrial use under heavy load cycles. The system is designed to meet the demands of high-throughput logistics environments like ports, terminals, and freight corridors, where uptime is non-negotiable.

Traditional generators rely on mechanical bearings that create friction, heat, and wear under continuous load. REPS uses Permanent Magnetic Bearings to levitate the shaft entirely - eliminating contact, energy loss, and the primary cause of mechanical failure.

With no metal-on-metal contact in the generator core, the system experiences almost no wear over time. This drastically extends the operational lifespan of the converter module, reducing replacement cycles and total cost of ownership over the infrastructure's lifetime.

By removing frictional losses from the conversion process, more of the captured hydraulic energy makes it through to electricity output. Even marginal efficiency gains compound significantly across millions of vehicle passes per year. This makes REPS 250 times more efficient than exisiting energy converters.

Fewer moving parts in contact means fewer components that need servicing. Routine maintenance is limited to hydraulic fluid checks and surface-level inspections, keeping operational costs low and system downtime to a minimum.

Traffic is never constant: peak hours, shift changes, and idle periods create natural surges and lulls in energy generation. On-site battery storage absorbs these fluctuations, decoupling generation from consumption and ensuring a smooth, uninterrupted power supply at all times.

Storage modules are sized to match the specific energy profile of each deployment site. From a single-lane access road to a multi-lane freight terminal, the system scales to buffer exactly as much energy as the site requires.

The stored energy is conditioned and stabilized before distribution, meeting the power quality standards required for direct grid feed-in or local infrastructure use. No additional conversion hardware is needed.

REPS output can be directed to wherever energy is needed most: EV charging stations, lighting systems, on-site machinery, or facility operations. Each installation is configured to match the specific energy demands and infrastructure of the site.

The system is designed to feed directly into the local grid when on-site demand is low, turning excess harvested energy into a revenue stream or offsetting grid consumption costs for port operators and logistics facilities.

By generating electricity from existing traffic flow, REPS reduces a site's dependence on external power supply. Lowering energy costs, cutting emissions, and contributing to sustainability targets without disrupting daily operations.

From a single entry lane to a full terminal network, REPS is modular by design. Additional Trigger Units and storage capacity can be added incrementally as energy needs grow. Making it a long-term infrastructure investment that scales with the site