PLASMOIDS and the Thunderstorm Generator

Plasmoid Power exists to make the engines already running the world's diesel, petrol, and natural gas generation cleaner and more efficient — without asking operators to replace equipment that still has years of working life left in it. Proven and validated, backed by global testing: we're reorganising energy, one engine at a time.

• CO-CO2-VOC Reduction: 98% — independently verified
• Fuel Savings: 20%+ on diesel and petrol gensets (conservative, in-house tested)

Plasmoid Power is the manufacturer of the Thunderstorm Generator (TSG) — a plasmoid-based retrofit technology that improves combustion efficiency and reduces emissions in diesel, petrol, and natural gas engines and generator sets. The TSG is manufactured to a single tested specification, ensuring consistent quality and performance across every unit deployed, wherever in the world it ends up running.

Beyond the fuel savings, it extends the working life of the engines it's fitted to — making them cleaner without taking them offline.

You've probably never heard the word — but you may have seen a description of one without knowing it. Ball lightning, the rare glowing orbs some people report seeing during storms, is one of nature's best-known examples. In plain terms, a plasmoid is a self-contained pocket of electrically charged gas that holds its own shape, generating its own magnetic field as it forms — a bit like a smoke ring that doesn't dissolve, because the ring itself is what holds it together. First characterised by physicist Winston Bostick in 1956, a plasmoid's defining property is that it implodes: the structure collapses inward, concentrating energy at the point of collapse — a dynamic the TSG applies directly to combustion.

A plasmoid holds together because two opposing forces are in balance: the outward push of the hot, ionised gas (plasma pressure) and the inward pull of its own magnetic field (magnetic pressure). This branch of physics — the study of how magnetic fields and electrically conducting fluids interact — is called magnetohydrodynamics, or MHD for short.

Take away the confining field and a plasmoid disperses almost immediately — in a field-free vacuum, it expands and dissipates in a fraction of a second. Inside a confining magnetic geometry, however, it remains coherent, and can store and release large amounts of energy through a process called magnetic reconnection — field lines breaking and reconnecting into a new configuration. This is the same basic mechanism behind solar flares and the aurora.

The TSG is engineered to generate plasmoid-like structures on demand, using a controlled, repeatable process, putting them to work as exhaust gases pass through the device — in three stages:

• Ionisation — incoming air is electrically conditioned, energising electrons ahead of the next stage.
• Cavitation — air and water interact through microbubble cavitation; as the bubbles collapse, they create the conditions for small-scale plasmoid formation.
• Vortex / reactor stage — the mixture enters a counter-rotating vortex, where the plasmoids interact with hot exhaust gases and are brought into direct contact with pollutant molecules.