Energy Node develops Heat Node, a thermally enhanced phase change material platform for passive thermal management. This material regulates heat across various applications without requiring pumps, fans, or electronics. The solution offers silent, self-regulating thermal control that extends component life and reduces operational energy use.
Funding
Funding not disclosed
Founders
Product
Problem
Traditional thermal management systems often rely on active components like pumps and fans, which consume energy, generate noise, and require maintenance. This leads to increased operational costs, reduced system efficiency, and potential points of failure, particularly in applications demanding passive and silent heat regulation.
Solution
Energy Node offers Heat Node, a passive thermal management platform utilizing phase change materials (PCMs) to regulate heat without active components. This technology leverages intrinsic material properties to absorb and release thermal energy, providing silent, self-regulating, and energy-independent thermal control. Heat Node is designed for scalability, allowing performance to increase with material volume, and its sustainable nature allows for reuse across different applications, reducing waste and total cost of ownership. By buffering heat during high-power events and improving temperature uniformity, Heat Node enables faster charging, extended operational life, and increased energy efficiency in various systems.
Target Audience
Energy Node targets manufacturers and integrators in the electric vehicle, aerospace, and power electronics sectors who require efficient, silent, and sustainable thermal management solutions for their battery systems and power converters.
Features
- Heat Node platform based on proprietary phase change material formulation for passive thermal regulation.
- Silent operation due to the absence of moving parts, pumps, or fans.
- Self-regulating thermal control requiring no external power input.
- Scalable thermal management performance directly proportional to the volume of Heat Node material integrated.
- Sustainable design allowing for material reuse across multiple product lifecycles and applications.
- Enhanced battery performance through heat buffering during high-power charging, reducing thermal throttling.
- Improved battery longevity via uniform temperature distribution and mitigation of hotspots.
- Cost-effective integration with a focus on reducing maintenance and replacement expenses.
- Compliance with aerospace standards including CS-25, ARP 4754B, and DO-160G for systems engineering and prototyping.
- Adherence to automotive standards such as ISO 26262 for functional safety and ISO 16750 for environmental testing.