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Industrial

High-performance heat exchange solutions for data centers, advanced machinery, energy systems, and electronics. Overcome thermal management challenges with precision engineering and efficiency, ensuring premium performance and reliability.

Industrial Thermal Applications

Optimise heat exchange for consistent, reliable performance in demanding environments.

Data Centers

For data centers and edge infrastructure, additively manufactured liquid cold plates provide efficient direct‑to‑chip cooling for high‑power CPUs, GPUs and accelerators. These high‑performance thermal solutions support higher rack densities, lower pumping power and improved system reliability in mission‑critical environments.

Advanced Machines

In advanced industrial machinery, metal additive manufacturing enables precise, custom heat exchangers and liquid cold plates that tightly control operating temperatures, boosting efficiency and throughput in high‑temperature, high‑duty cycles. This design flexibility allows thermal management to be integrated directly into complex housings and moving assemblies, reducing weight, leak paths and assembly steps.

Energy

In industrial energy systems, additive‑manufactured heat exchangers and cold plates deliver compact, highly optimised thermal management for power conversion, process heating and cooling loops. Enhanced surface area and tailored flow paths improve heat transfer and energy efficiency while helping lower operating costs and footprint.

Electronics

For industrial electronics and power systems, compact, high‑performance liquid cold plates and heat exchangers ensure effective thermal management in high‑density cabinets and harsh environments. Additively manufactured internal geometries improve cooling uniformity, extend component life and support higher power densities without sacrificing reliability.

Features

Experience unparalleled performance with Conflux heat exchangers and liquid cold plates. Our additive‑manufactured thermal solutions combine high heat‑transfer efficiency, corrosion resistance and robust construction to keep industrial, data center and power‑electronics systems running reliably under extreme conditions.

High Heat Transfer Rates

Advanced microchannel and lattice geometries maximise internal surface area, delivering very high heat‑transfer coefficients at demanding heat flux levels. This enables higher power densities, tighter temperature control and improved energy efficiency in industrial machinery, CPU/GPU cooling and power electronics.

Corrosion Resistance

Engineered materials and wall thicknesses provide excellent corrosion resistance for chemically harsh industrial and liquid‑cooling environments. This durability extends service life, reduces unplanned downtime and preserves long‑term thermal performance.

Customisable Configurations

Each heat exchanger or cold plate is tailored for your flow rates, pressure‑drop targets, fluids, mounting interfaces and space constraints. Additive manufacturing enables application‑specific internal flow paths and manifolds that integrate seamlessly into existing piping and system architectures.

Durable Construction

Monolithic additive designs eliminate many welds and braze joints, reducing leak paths and mechanical weak points. This robust construction supports continuous, high‑duty operation in mission‑critical industrial, energy and data‑center environments with long maintenance intervals.

Gallery

See how advanced heat exchangers solve real industrial cooling problems

Discover how Conflux used metal additive manufacturing to engineer a compact, high‑performance argon gas cooler for AMCM, improving heat transfer, reliability and integration in a demanding production environment. Learn the design insights and validation steps behind this project and how similar approaches can accelerate your next thermal‑management upgrade—simply complete the form to access the full case study.

We at AMCM are impressed with the performance of the heat exchanger. It keeps the temperature of the argon gas at a very constant level, which not only increases the quality of the components, but also benefits the overall thermal management and performance of the M4K. The pressure drop was even lower than we expected, which is impressive considering the compact design.

Ulrich Schmid System Developer, AMCM