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Thermal Conductivity / Phonon / Heat Transport Simulations

Understand Heat Transport at the Material Level

The thermal performance of engineering materials depends on how efficiently heat is transferred through their internal structure. Thermal conductivity, phonon transport, and heat transfer mechanisms influence the performance of batteries, semiconductors, electronic devices, aerospace components, thermal barrier coatings, and advanced materials. Understanding these phenomena enables engineers to optimize thermal management and improve product reliability before manufacturing or experimental validation.

At Experiqs, we perform thermal conductivity, phonon, and heat transport simulations to investigate heat transfer mechanisms across engineering materials at both the microscopic and macroscopic scales. These analyses support material development, electronics cooling, energy storage technologies, semiconductor research, and thermal engineering applications where accurate prediction of heat transport is essential.

EV Battery Thermal Flow Simulation
Thermal Flow Through EV Battery Pack

Why Thermal Conductivity & Heat Transport Simulations Matter

Heat does not move through every material in the same way. Material composition, crystal structure, defects, interfaces, and operating temperature all influence thermal conductivity and energy transport. In high-performance engineering applications, inefficient heat dissipation can reduce efficiency, accelerate material degradation, and shorten product lifespan.

Thermal transport simulations enable engineers to evaluate these mechanisms before physical testing, helping them compare material alternatives, optimize thermal performance, and support the development of products that operate reliably under demanding thermal conditions.

Our Capabilities

Our thermal transport simulation capabilities support the evaluation of heat transfer mechanisms within engineering materials using advanced computational modelling techniques. These analyses help engineers investigate thermal conductivity, phonon behaviour, energy transport, and temperature-dependent thermal properties across a wide range of materials and applications.

Simulation capabilities include:

Thermal Conductivity Analysis

Phonon Transport Simulation

Heat Transport Modelling

Temperature-Dependent Thermal Property Evaluation

Thermal Interface Analysis

Energy Transport Studies

Applications

Thermal conductivity, phonon, and heat transport simulations are widely applied across semiconductor devices, power electronics, battery technologies, aerospace systems, advanced materials, thermal barrier coatings, microelectronics, renewable energy systems, and research organizations where efficient thermal management is critical to product performance and reliability.

Talk to Our Engineering Team

Whether you’re evaluating thermal conductivity, investigating heat transport mechanisms, or optimizing thermal performance for advanced materials and engineering systems, our engineers can help identify the appropriate simulation approach for your application.

EV Battery Thermal Management Visualization

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Let’s Start an R&D Discussion

Whether you’re exploring a new R&D initiative, seeking advanced simulations, planning experimental validation, or evaluating product feasibility—our experts are ready to assist you.

Let’s Start an R&D Discussion

Whether you’re exploring a new R&D initiative, seeking advanced simulations, planning experimental validation, or evaluating product feasibility—our experts are ready to assist you.