RevoDUR® Dimensions
RevoDUR® trimetal heat plates are manufactured in defined industrial plate geometries optimized for high thermal conductivity and mechanical stability.
Typical thickness configurations are designed to balance thermal response, structural rigidity and manufacturability for high-performance thermal systems.
Typical Plate Thickness
RevoDUR® heat plates are typically produced in industrial thickness ranges optimized for high heat transfer performance.
- 5 mm total plate thickness
- 7 mm total plate thickness
- 9 mm total plate thickness
These configurations provide a balance between rapid thermal response and mechanical rigidity.
Layer Thickness Distribution
Within the trimetal architecture the total plate thickness is distributed across three functional layers:
- Active Skin – stainless steel surface layer
- Thermal Spine – high conductivity copper core
- Passive Skin – structural carbon steel support layer
The copper Thermal Spine typically represents the largest portion of the total thickness because it is responsible for lateral heat distribution.
Plate Geometry
RevoDUR® plates can be manufactured in a wide range of rectangular or square geometries depending on the industrial application.
Typical plate sizes range from compact thermal distribution plates to large industrial heating surfaces.
The multilayer architecture allows stable plate geometries while maintaining high thermal performance.
Manufacturing Considerations
The trimetal plates are produced using metallurgical bonding processes which ensure a stable interface between stainless steel, copper and carbon steel.
The resulting plates provide consistent flatness, reproducible thickness and reliable mechanical behaviour under repeated thermal cycling.
Relation to Other Architectures
Within the Revolit Thermal Architecture Framework, RevoDUR® corresponds to Class IV – Trimetal Architecture.
Compared with RevoCORE®, which uses an aluminium Thermal Spine, RevoDUR® introduces a copper Thermal Spine to significantly increase thermal conductivity.
The result is an architecture optimized for maximum heat spreading and extremely uniform temperature distribution.