3D Vapor Chamber (3DVC) is a three-dimensional structure that combines the advantages of a vapor chamber and a heat pipe, capable of transferring heat to any corner. The internal cavities of the heat pipe and the heat plate are interconnected, along with the capillary wick, expanding the steam space and facilitating the rapid return of liquid to the evaporation end. This design enables heat conduction in three dimensions. In comparison to heat pipes and flat vapor chambers, 3D Vapor Chamber (3DVC) offers higher power and lower thermal resistance.
High Thermal Conductivity: The Vapor Chamber uses phase change through liquid evaporation and condensation to rapidly and evenly spread heat, offering excellent thermal conductivity.
Uniform Heat Distribution: The design allows heat to quickly diffuse across the entire surface, reducing hotspots and ensuring stable device operation.
Thin Profile: The compact structure of the Vapor Chamber, usually with a small thickness, makes it suitable for space-constrained applications.
Noise-Free Operation: With no moving parts, it operates completely silently, ideal for applications requiring a quiet environment, like consumer electronics.
High Reliability: The sealed structure ensures durability and long-term reliability, allowing stable performance in various harsh environments.
Versatile Applications: Vapor Chambers can be combined with other cooling solutions, such as heat sinks and fans, to further enhance cooling performance.
Electronics and Computing Applications: Used in high-performance computing systems, graphics cards, and other electronic devices to manage heat and prevent overheating.
Telecommunications Applications: Applied in telecom equipment and infrastructure to ensure reliable operation by efficiently dissipating heat.
Automotive Industry Applications: Integrated into electric and hybrid vehicles to cool power electronics, batteries, and other high-heat components.
Aerospace Applications: Employed in spacecraft and satellite systems for thermal management of sensitive electronics and components in extreme space environments.
3D Vapor Chamber (3DVC) is a three-dimensional structure that combines the advantages of a vapor chamber and a heat pipe, capable of transferring heat to any corner. The internal cavities of the heat pipe and the heat plate are interconnected, along with the capillary wick, expanding the steam space and facilitating the rapid return of liquid to the evaporation end. This design enables heat conduction in three dimensions. In comparison to heat pipes and flat vapor chambers, 3D Vapor Chamber (3DVC) offers higher power and lower thermal resistance.
- High Thermal Conductivity: The Vapor Chamber uses phase change through liquid evaporation and condensation to rapidly and evenly spread heat, offering excellent thermal conductivity.
- Uniform Heat Distribution: The design allows heat to quickly diffuse across the entire surface, reducing hotspots and ensuring stable device operation.
- Thin Profile: The compact structure of the Vapor Chamber, usually with a small thickness, makes it suitable for space-constrained applications.
- Noise-Free Operation: With no moving parts, it operates completely silently, ideal for applications requiring a quiet environment, like consumer electronics.
- High Reliability: The sealed structure ensures durability and long-term reliability, allowing stable performance in various harsh environments.
- Versatile Applications: Vapor Chambers can be combined with other cooling solutions, such as heat sinks and fans, to further enhance cooling performance.
- Electronics and Computing Applications: Used in high-performance computing systems, graphics cards, and other electronic devices to manage heat and prevent overheating.
- Telecommunications Applications: Applied in telecom equipment and infrastructure to ensure reliable operation by efficiently dissipating heat.
- Automotive Industry Applications: Integrated into electric and hybrid vehicles to cool power electronics, batteries, and other high-heat components.
- Aerospace Applications: Employed in spacecraft and satellite systems for thermal management of sensitive electronics and components in extreme space environments.
