The limitations of conventional thermal management solutions can put a tight bottleneck on devices and components. This forces system designers in the semiconductor, aerospace, telecommunications, and defence industries to compromise between size, performance and reliability.
Chemical Vapour Deposition (CVD) diamond heat spreaders can help you reduce thermal management bottlenecks and achieve lower operating temperatures, improved performance and extended system life in a range of electronics applications.
Element Six has the in-house expertise, end-to-end development capabilities, and scalable resources to create CVD diamond solutions that meet your exact thermal requirements.
When you collaborate with us, you gain access to a CS Industry award-winning thermal solution manufacturer that can go beyond single components to understand and solve thermal management challenges across your entire system.
Find out the specific details of the performance of our supermaterials and how they apply to your industry:
Buy samples of our thermal material grades on our CVD webstore.
When electronic devices overheat, system performance and service life can quickly degrade.
CVD diamond heat spreaders can more than double overall system productivity in GaN solid state RF X-band PAs, advanced Si processors and ASICs, and laser diodes alike.
CVD diamond enables you to run at higher power levels without increasing junction-operating temperature. For multifinger power devices and diode arrays, efficient heat sinking reduces thermal cross talk which is fundamental for stable performance and device life.
Do you want to learn more about how our diamond heat spreaders cool hot spots in silicon chips? Read our new case study or contact us at e6marketing@e6.com today
Copper, silicon carbide, and aluminium nitride offer a certain level of thermal management, but often struggle to deliver the performance required by high-power RF and optoelectronics systems.
Our TM200 offers 5x more room temperature thermal conductivity than copper, and 8 to 10x more than other commonly used ceramic heat spreaders such as beryllia and aluminium nitride.
