It simply makes sense to use the waste and garbage our society generates and convert it into a responsible, reliable, and clean source of renewable energy.

This represents one of the most effective renewable energy solutions available today. GW2E’s Waste-to-Energy power plants are engineered to convert multiple waste streams into stable, continuous electricity for homes, businesses, and communities. At the same time, the system is designed to meet or exceed all applicable environmental requirements without relying on extensive or costly end-of-pipe pollution control equipment.

Whether addressing Municipal Solid Waste, Industrial Waste, or Medical Waste, GW2E delivers solutions tailored to specific site, regulatory, and operational requirements, supported by proven engineering principles and real-world deployment experience.

Each GW2E facility utilizes a proven, proprietary pyrolytic gasification process operating at temperatures approaching 2,000°F. These conditions enable the efficient destruction of waste, pathogens, and contaminants while converting even high-moisture waste streams into usable energy. Typical configurations generate up to 6 MW per 150 tons per day of waste, with higher-BTU feedstocks capable of producing up to 10 MW per unit.

The system requires virtually no external fossil fuel input, produces no discernible pollution, and is designed for operational simplicity, reliability, and ease of maintenance. This streamlined approach reduces total cost of ownership while supporting long-term, profitable plant operations.

GW2E’s scalable plant architecture allows waste throughput to increase to as much as 800 tons per day by co-locating multiple gasification and combustion units within a single facility. This multi-unit configuration enables rotational preventative maintenance without full operational shutdowns. Strategically distributed Waste-to-Energy facilities around larger communities further enhance collection efficiency, allowing the processing of thousands of tons of waste per day.

The modular, bolt-together design minimizes on-site fabrication, improves construction quality, and accelerates installation timelines. Full facility operations can typically commence within approximately 12 months from the time of equipment procurement.