Thermal management
An approach to transferring and distributing heat through application-specific component geometries, with results measured by testing.
AN INDUSTRIAL MATERIALS PLATFORM
Coolflow organizes its industrial work into five divisions: semiconductors, energy storage, materials, motion and thermal management, including heat sinks and dielectric parts. All of them build on the same platform of graphene formulations, industrial processing and test validation.
Each division has its own scope. Thermal, electrical and mechanical performance must be verified under each component’s operating conditions; the areas presented here are not certified commercial products.
01 / COOLFLOW DIVISIONS
Each division has its own technical scope, applications and development stage. Select a division to see what is being studied.
DIVISION 01
Thermal management and electrical insulation
The front that started Coolflow: parts that conduct heat and insulate electrically. The division covers heat sinks, components for LED lighting and designs where part geometry solves the thermal requirement.
02 / THE TECHNOLOGY
The divisions share the same materials research: graphene compounds, electrical insulation and industrial processing. Performance depends on formulation, geometry and operating conditions.
An approach to transferring and distributing heat through application-specific component geometries, with results measured by testing.
A key property for components near circuits and power systems, to be verified in each application.
Injection molding and extrusion are processing routes under consideration; feasibility and process settings must be verified for each formulation and part.
THERMAL APPLICATION TERMS
People designing thermal management search using different names. Coolflow develops parts that conduct heat and insulate electricity; knowing each term helps frame the right request.
A part that draws heat away from a source and releases it to the environment. This is Coolflow’s starting point, in applications such as LED lighting and industrial electronics.
CURRENT SCOPEEquipment that transfers heat between two fluids, such as water and air. Coolflow does not supply assembled exchangers: it develops thermal materials and components used in that kind of system.
RELATED TERMA layer between two surfaces that lowers resistance to heat flow. Studied in the semiconductor division, validated per application.
UNDER RESEARCHConducting heat without conducting current. It is the core of Coolflow’s dielectric line and must be proven by testing on each part.
DIFFERENTIATORTHE COOLFLOW STORY
Coolflow brings together research, testing and applied development. Early work on LED thermal solutions opened the door to new fronts, now organized into five divisions.
Development guided by thermal, electrical, mechanical and manufacturability requirements.
Coolflow contains graphene. Its formulation and processing are proprietary; the contribution of an ingredient should not be confused with measured performance of the final product.
Design, prototypes and testing guide new parts, manufacturing processes and applications.
Graphene research accelerated after its isolation and characterization in 2004. Andre Geim and Konstantin Novoselov received the 2010 Nobel Prize in Physics.
In composites, graphene is investigated for possible contributions to thermal and mechanical properties, depending on the formulation and dispersion. The properties of isolated graphene do not automatically describe Coolflow.
Selecting a Coolflow material should be based on documented test results for both the material and finished component, including test conditions, standards and limits.
Scientific reference: 2010 Nobel Prize in Physics ↗03 / APPLICATION OPPORTUNITIES
From LED lighting to electronics and energy systems, each opportunity requires clear requirements, prototypes and independent validation.
Heat sinks and components for luminaires; one of Coolflow’s initial areas of development.
Discuss a projectEnclosures, supports and structures designed around both thermal and electrical requirements.
Discuss a projectPotential parts for modules, battery packs and energy storage; safety and long-term reliability need application-specific testing.
Discuss a projectTechnical parts with friction, wear and dimensional-stability requirements in moving assemblies.
Discuss a projectMATERIAL SELECTION
Coolflow materials, boron nitride, technical ceramics and encapsulants have different roles. Selection calls for requirements, testing and total component cost.
Each grade needs documented properties and manufacturing options. Review geometry, processing and finished-part test results.
Evaluate injection molding, extrusion, tooling and repeatability for the target design.
Used in different matrices and thermal-management formulations. Properties depend on composition and processing.
Compare finished compounds, not just filler powder.
Alumina, aluminum nitride and silicon nitride offer distinct specifications for electronics and industrial use.
Check insulation, temperature, strength and production cost.
Epoxies and silicones are chosen for adhesion, humidity, thermal expansion and reliability. They are not necessarily structural alternatives.
Coolflow semiconductor encapsulation remains a hypothesis requiring testing.
Total cost includes raw material, density, geometry, tooling, production, scrap and assembly. Without equivalent requirements and tests, direct substitution or universal superiority cannot be claimed.
Semiconductor-related applications require process-compatibility, dielectric, thermal-expansion, moisture-absorption and aging tests.
References for other material families: 3M — BN · CeramTec — AlN · Sumitomo Bakelite
04 / FROM MATERIAL TO APPLICATION
The technology platform and assessment of industrial applications.
Material manufacturing and production-capacity development.
Partners for research, product development and new opportunities.
Critical applications require prior validation. This site does not replace specifications, testing or engineering assessment.
05 / FREQUENTLY ASKED QUESTIONS
An industrial materials platform organized into five divisions: semiconductors, energy storage, materials, motion and thermal management. Performance must be specified and validated per application.
All of them build on the same formulation and processing research. The chosen division defines the technical scope, the testing requirements and the development stage of the project.
The phrase “insulating aluminum alloy” has been used as a commercial positioning statement; it is not, by itself, a sufficient technical classification. Any grade must be described in validated technical documentation.
Injection molding and extrusion are industrial processing routes of interest. Grade, processing parameters, tooling and properties of each final geometry must be confirmed.
Universal replacement cannot be claimed. Comparison depends on thermal, electrical, mechanical, weight, processing and total-cost requirements.
These remain research opportunities. Battery-pack, power-electronics and encapsulation concepts need prototypes, safety tests and qualification.
Coolflow develops thermal parts from each project’s requirements: geometry, heat load, operating conditions and manufacturing process. Results depend on prototypes and testing of the finished part.
No. Assembled heat exchangers are not part of the current scope. The company works on thermal materials and components that can integrate heat-exchange systems, always with application-specific validation.
It is a part that conducts heat while keeping electrical insulation between the heat source and the rest of the assembly. The dielectric property must be measured by testing, for each geometry and operating condition.
THE NEXT STEP STARTS WITH YOUR PROJECT
Tell us which division is closest to your project and share your requirements to explore the feasibility of a Coolflow component.
Contact the team ↗