Key Takeaways
- Clean Energy Technologies executed a non-binding Letter of Intent with Hoppy Power Ltd. to evaluate deployment of CETY's proprietary High Temperature Ablative Pyrolysis (HTAP™) technology for waste-to-energy applications.
- Westlock, Alberta has been identified as the initial site under evaluation for potential first deployment, with technical validation and engineering design activities targeting execution beginning in late 2026.
- The proposed modular system is expected to generate up to 2 MW of power per unit while processing up to 12,000 tons per year of biomass and waste-derived feedstock.
- Key 2026 milestones include engineering validation, permitting progression, and advancement toward definitive agreements for initial commercialization of the technology.
- Both companies will engage with industry participants at the International Biomass Conference & Expo in Nashville, Tennessee from March 31 through April 2, 2026.
Clean Energy Technologies Advances Commercialization Strategy
Clean Energy Technologies, Inc. (Nasdaq: CETY) announced the execution of a non-binding Letter of Intent with Hoppy Power Ltd. to evaluate and advance deployment of CETY's proprietary High Temperature Ablative Pyrolysis (HTAP™) technology. The initiative represents a step toward near-term deployment and initial commercialization, with defined milestones expected in 2026.
Westlock, Alberta has been identified as the initial site under evaluation for potential first deployment. The site is being evaluated based on favorable access to feedstock, existing infrastructure, and a supportive development environment. Deployment is expected to support the local community by addressing waste management challenges while generating clean, distributed energy.
Technology Specifications and Revenue Model
The proposed modular system is expected to generate up to 2 MW of power per unit, with the ability to process up to 12,000 tons per year of biomass and waste-derived feedstock. The platform is designed to convert municipal solid waste, agricultural residues, and forestry byproducts into high-quality syngas for power generation.
