Vapor Chamber 2.0
Ushering in a Future-Proof Era of Cooling Innovation
WHY VAPOR CHAMBERS?
Modern CPUs generate highly concentrated hotspots that traditional copper bases cannot distribute evenly. A vapor chamber uses liquid phase-change technology to spread heat rapidly across its surface, ensuring every heat pipe is utilized more efficiently.
Heat is then transferred from the coldplate through the vapor chamber into the heatpipes and fin stacks, delivering faster, more uniform cooling for today's high-performance Intel and AMD processors.
Vapor Chamber vs Traditional Copper Base
Traditional Copper Base
Heat concentrated at center
Higher thermal resistance
Lower heat transfer efficiency
Localized hotspots
Slower transient cooling
Vapor Chamber
Even heat distribution
Lower thermal resistance
Superior heat transfer
Excellent temperature uniformity
Faster transient cooling
Thermal Resistance
Intel® Core™ Ultra 9 285K @300 W
*Tested on the Same Heatsink with Different Base Designs
Base TypeThermal
Resistance
Thermal
Conductivity
Copper Base0.238 °C/W401W/(m·K)
Vapor Chamber Base0.225 °C/W20000 W/(m·K)
VC 1.0 VC 2.0
VC 2.0 increases the CPU contact area, enhances overall structural strength, improves surface flatness of the VC. An enhanced capillary structure increases heat dissipation efficiency, while an optimized copper pillar layout strengthens the internal structure and improves heat transfer. Compared to the first-generation, VC 2.0 delivers up to a 15% improvement in cooling performance.
VC 1.0
Thermal Conductivity
17,000W/(m·K)
CPU Contact Surface Area
961mm²
CPU Temperature @ 300 W
(Same Heatsink)
96.5°C
VC 2.0
Thermal Conductivity
20,000 WW/(m·K)
CPU Contact Surface Area
1,292mm²
CPU Temperature @ 300 W
(Same Heatsink)
94.2°C
Cooling Performance
VC 1.0VC 2.0
Dimensions60 × 60 mm61 × 60 mm
CPU Contact Area31 × 31 mm38 × 34 mm
Copper Thickness1 mm1.2 mm
CPU Temperature @ 300 W (Same Heatsink)Copper meshCopper sintered sheet