Phasic Energy 3D‑prints custom heat exchangers with lattice geometries that boost thermal performance up to threefold while keeping pressure drop low. The compact, lightweight units are tailored to specific fluids and operating conditions, letting data centers, defense, geothermal and industrial users reduce pump power and system footprint.
Funding
Funding not disclosed
Founders
Product
Problem
Conventional heat exchangers are bulky, have limited heat transfer efficiency, and create high pressure drops, leading to larger system footprints, higher pumping power, and increased operating costs for high‑density thermal applications.
Solution
Phasic Energy uses additive manufacturing to produce 3D‑printed heat exchangers with optimized internal geometries that deliver up to three times the thermal performance of traditional designs while maintaining lower pressure drop. The compact, lightweight form factor enables higher cooling density and reduces the size of cooling infrastructure. Each unit is engineered for the specific fluid, temperature range, pressure, and space constraints of the target application, allowing customers to lower pumping power and overall energy consumption. By integrating these exchangers into data center cooling loops, defense thermal management, geothermal extraction, or industrial waste‑heat recovery, users achieve higher heat removal capacity in smaller footprints with reduced operating expenses.
Target Audience
Primary customers are data center operators, defense and aerospace thermal engineers, geothermal energy developers, and industrial facilities seeking high‑efficiency heat recovery or process cooling solutions.
Features
- Additive‑manufactured lattice structures that maximize surface‑area density for superior heat transfer
- Optimized flow paths that minimize pressure loss, decreasing pump energy requirements
- Customizable designs tailored to fluid type, temperature range, pressure, and mechanical constraints
- Lightweight, compact packages suitable for space‑constrained installations such as rear‑door or in‑row cooling modules
- Compatibility with liquid‑to‑liquid, air‑to‑liquid, and two‑phase cooling configurations
- Material selections resistant to aggressive chemistries for geothermal and industrial environments