Develops solid-state refrigeration technologies that use novel solid refrigerants with zero global warming potential, eliminating the need for traditional refrigerant gases. This approach improves energy efficiency by 2-3 times and reduces emissions by up to 75%, addressing the high energy consumption and environmental impact of conventional cooling and heating systems.
Funding
Funding not disclosed
Founders
Product
Problem
Conventional cooling and heating systems rely on refrigerant gases that contribute significantly to global warming and exhibit low energy efficiency, resulting in high energy consumption and environmental impact. The increasing global demand for cooling further exacerbates these issues, overwhelming electricity grids and accelerating emissions growth.
Solution
Barocal is developing solid-state cooling and heating technology based on novel solid refrigerants with zero global warming potential, eliminating the need for traditional refrigerant gases. This innovative approach significantly improves energy efficiency, achieving 2-3 times greater efficiency than conventional systems, and reduces emissions by up to 75%. Barocal's modular and scalable solution addresses a substantial portion of global energy use, offering a sustainable alternative for various applications. The technology is designed for seamless integration with existing systems, promoting trust and cost-effectiveness in an industry reliant on traditional vapor compression systems.
Target Audience
The primary target audience includes manufacturers of HVAC and refrigeration equipment seeking to improve energy efficiency and reduce the environmental impact of their products.
Features
- Utilizes novel barocaloric materials as solid refrigerants, eliminating harmful refrigerant gases.
- Achieves 2-3X higher energy efficiency compared to conventional AC units.
- Reduces emissions by up to 75%.
- Designed for modularity and scalability across various applications.
- Prototype Gen2 matches the performance and efficiency of comparable vapor compression systems.