Firm power.
Circular by design.

Conversion, not mass burn.

GCORE is positioned as a syngas-based conversion platform. This changes both the feedstock requirement, the energy pathway and the options available downstream.

Hydrogen and carbon pathway.

An optional configuration applies water-gas shift chemistry to increase the hydrogen share of the fuel gas and concentrate CO₂ before the turbine.

Simplified chemistry: CO + H₂O ⇄ CO₂ + H₂. Carbon capture rates, energy penalties, storage routes and carbon accounting remain configuration- and jurisdiction-specific.

Outputs beyond electricity.

The conversion platform is designed to support multiple revenue and resource-recovery pathways rather than a single electricity output.

Which outputs are commercially viable depends on feedstock characterization, product specifications, local buyers, permits and final process design.

Simple reactor architecture.

The reactor concept is deliberately mechanically simple, while the surrounding balance of plant uses serviceable industrial equipment.

• Gravity-fed operation at atmospheric pressure.
• No internal moving parts within the core reactor vessel.
• No external heat or power source required.
• Acidity regulated — no HCl formation.
• Spinel-corundum refractory lining resistant to extreme temperature variation and chlorine.
• Feedstock loads managed to an average energy content of 20-24 MJ/kg.
• Gas quality maintained and optimized in real time.
• At temperatures above 1,650°C, dioxins are destroyed and cannot re-form on cooling; tar-forming particulates are gasified or captured in mineral slag.
• Recovered heat and steam are converted into additional electricity.

Industrial maintainability and scale.

The design philosophy combines a distinctive reactor with serviceable plant equipment, redundancy and planned access to critical components.

• Standard equipment categories include filters, blowers, coolers, compressors, turbines, heat exchangers and oxygen supply.
• Parallel trains, spares and isolation of wear components are intended to support maintenance without a full-plant shutdown where the design permits.
• Gas buffering can reduce short interruptions between the reactor and generation island.
• Larger reactor generations target lower operating cost per tonne through higher throughput without proportional staffing growth.

Availability, maintenance intervals, buffer duration and scale-up performance must be confirmed through detailed design, operating evidence and contractual guarantees.