Like mgh, but different.

Beyond mgh: Continuous Parallel Force Extraction (Fp) Managed Through an Active Multi-Loop Control Stack.

Our revolutionary Active Parallel Force Extractor® harvests gravitational kinetic force across a custom-engineered slanted track. By executing timed Track Arc Rotations (TARs), the system dynamically shifts gradients to eliminate mechanical dead-zones and maintain continuous, uninterrupted motion.

Continuous generation requires more than a single moving track. Our platform integrates a 5-in-1 time-sequenced, multi-loop architecture - combining kinetic energy transfer, dynamic load lifting, supercapacitor electrical scavenging, and spring-bank inertial recovery to maintain a positive net kinetic balance across every phase of operation.

In an energy grid struggling with the volatility of intermittent renewables, OGPEG delivers the next generation of zero-emission baseload power. We complete the clean energy circle by adding Gravity to Sun, Wind, and Water - delivering affordable, continuous electricity and physical grid stability to communities worldwide.

Our aim is to deliver affordable, clean power to combat climate change and empower communities worldwide. We are disrupting the energy landscape and building a sustainable future, one gravity pull at a time.

Traditional gravity systems all suffer from the same basic flaw: they rely on a simple stop-and-start drop. You lift a heavy weight, drop it straight down for a quick burst of energy, and then the machine hits a dead end. It stops completely, forcing you to burn massive energy just to haul that weight back to the top to reset the cycle. It is inefficient, jerky, and discontinuous.

GMEG-Zero completely rewrites this approach. We don't view gravity as a one-time drop-weight. Instead, we treat it as a continuous, rolling landscape.

By organising a perfectly synchronised, interconnected train of masses inside a custom, high-rigidity track, our platform smoothly guides weights along an active, continuous circuit. As the masses traverse this dynamically re-angled path, the system continuously converts gravitational acceleration into smooth, uninterrupted rotational power - without ever allowing the machine to grind to a halt.

The GMEG-Zero doesn’t change the fundamental laws of physics; it simply changes the geometry of how we use them.

Everyone knows what happens when you drop an object straight down. It accelerates, hits the floor, stops completely, and needs to be picked back up to do it again. That is how traditional gravity systems try to work, and it's a massive mechanical dead end.

But we all know another basic rule of physics: when you roll a ball down an ordinary hill or an incline, it picks up speed exactly the same way. That is standard, textbook physics.

The big difference with OGPEG is how we lay the track. Instead of working along a rigid, up-and-down vertical line, we stretch that identical acceleration path out sideways into a continuous, looping circuit - like a race track. By using automated mechanics to dynamically alternate the track's slant, our system catches that natural rolling acceleration and funnels the velocity into a steady, non-reversing loop.

This is not magic, and it's not a parlor trick. This is industrial-scale mechanical engineering that turns a standard natural gradient into a reliable, continuous stream of power.

The GMEG-Zero doesn't just let forces run wild; it operates as a perfectly timed, automated loop. Instead of letting energy escape, our platform balances five distinct internal recovery operations simultaneously:

Our system continuously harvests natural rolling acceleration as internal weights travel along custom gradients. It takes that heavy mechanical movement and evens it out into a flat, steady, predictable stream of grid-ready power.

Real-time control logic monitors and regulates the speed of our interconnected weights. This keeps the entire system inside an optimal safety zone, maintaining steady rotational momentum while slashing friction and mechanical drag.

This is our core mechanical reset. The platform automatically rotates the track housing (executing Track Arc Rotations) between precise angles. By actively shifting the track slant at exact trigger points, we prevent the weights from stalling and eliminate the heavy uphill drag that stops traditional systems.

Legacy energy systems lose excess momentum as parasitic heat and friction. We don't waste a drop. Our recovery loops intercept back-EMF and leftover motion, recycling that energy directly into internal auxiliary circuits to help power the next cycle.

When the track completes a reset cycle, it carries massive physical momentum. We use built-in inertial absorption zones to compress spring banks and gently catch peak forces. This protects the frame from flex or strain while releasing that captured energy as a physical kick-start for the next rotation.

Standard, off-the-shelf industrial software simply isn't built to calculate how a machine like ours moves and tracks. Because standard tools couldn't handle our unique moving track paths or our method of parallel force extraction, we built our own custom Operational Performance Simulator (OPS) from scratch.

This high-fidelity, dynamic digital twin models and validates the live, microsecond interactions of our entire machine - proving the underlying math and physics work flawlessly before a single component is fabricated. By feeding real-world operational parameters directly into our simulation engine, the OPS generates exact, validated specs for manufacturing - removing guesswork and de-risking production from day one.