RevoDUR® Documentation
This section provides technical documentation and engineering reference information for the RevoDUR® trimetal heat plate architecture.
RevoDUR® plates combine stainless steel surfaces with a copper Thermal Spine and a structural carbon steel layer, forming a high conductivity multilayer platform for industrial heating systems.
Technical Reference
RevoDUR® heat plates are engineered as trimetal multilayer structures consisting of stainless steel, copper and carbon steel. The combination of these materials enables high thermal conductivity together with structural stability.
Within the Revolit Thermal Architecture Framework, RevoDUR® corresponds to Class IV – Trimetal Architecture.
Material Standards
Typical material standards used in the RevoDUR® architecture include:
- Stainless Steel – AISI 304 / EN 1.4301
- Stainless Steel – AISI 316L / EN 1.4404
- Copper – High conductivity copper ≥ 99.9 % Cu
- Kohlenstoffstahl – S235 / S355
These materials provide a balance between corrosion resistance, thermal conductivity and structural strength.
Thermal Properties
Typical thermal conductivity values of the involved materials are:
- Stainless Steel: λ ≈ 15–16 W/m·K
- Copper: λ ≈ 380–400 W/m·K
- Kohlenstoffstahl: λ ≈ 45–60 W/m·K
The copper Thermal Spine dominates the thermal behaviour of the multilayer plate and enables rapid lateral heat spreading.
Engineering Documentation
RevoDUR® technical documentation typically includes:
- material specifications
- plate geometry definitions
- thermal performance calculations
- engineering drawings
- manufacturing references
These documents allow engineers to evaluate the suitability of the architecture for specific industrial heating systems.
Relation to Other Platforms
Within the Revolit platform architecture, RevoDUR® represents the highest thermal performance class.
- RevoTHERM® – Class II Bimetal Architecture
- RevoCORE® – Class III Trimetal Architecture
- RevoDUR® – Class IV High Conductivity Architecture
The use of copper as the Thermal Spine significantly increases heat spreading compared with aluminium or steel based architectures.