High Quality Vapor Chamber Heatsinks China Manufacturer & Supplier
Our vapor chambers are manufactured using our patented technology, ensuring exceptional thermal performance for a variety of applications. Ideal for electronics, LED lighting, and communication devices, they effectively manage heat to prevent overheating and extend the lifespan of your products.
- Efficient Heat Distribution: Advanced thermal conduction evenly spreads heat, eliminating hot spots for consistent temperature.
- Compact & Lightweight: Our vapor chambers have thinner, lighter designs while efficiently managing heat.
- Reliability in Extreme Conditions: Ensures consistent thermal management across a wide temperature range.
- Low-Noise Operation: Operates passively, producing no noise, ideal for noise-sensitive applications.
- Optimized Battery Performance: Regulates battery temperature, extending life and enhancing efficiency.

Tone Cooling Vapour Chamber Series
Tone Cooling offer a wide range of vapor cooling chambers, including 3D vapor chambers and ultra-thin vapor chambers, providing advanced thermal management through the gas-liquid phase change process.
Each chamber features a conductive base plate (typically made of copper or aluminum) and includes a fluid housing and a wicking mechanism for liquid return.
Engineered for reliability, our compact vapor chambers are designed to integrate seamlessly into various devices, from smartphones to electric vehicles (EVs) and medical equipment, enhancing both performance and lifespan.
We also provide customized vapor chamber heatsink solutions to meet specific needs.
Tone Cooling provides tailored vapor chamber designs to meet specific requirements, ensuring optimal performance for your devices.
The technology is developed by a team of highly educated professionals and experienced experts, utilizing multiple patented innovations.
As a direct manufacturer, we offer cost-effective solutions without compromising on quality, ensuring great value for your investment.
Our dedicated customer service team is always available to provide timely support and expert guidance, ensuring successful communication.
Get a free quote for your reliable vapor chamber needs!
Vapor chambers are advanced thermal management devices that utilize phase change principles to efficiently transfer heat. Their unique design allows for effective heat dissipation in various industrial applications, including servers, military equipment, CPUs, and GPUs.
For your vapor chamber heatsink needs, trust our reliable and high-performance solutions. Request a free quote today and discover how our advanced vapor chamber heatsinks can elevate your product’s performance. We look forward to working with you to provide the best thermal solutions on the market!
Applications of Vapor Chamber Cooling Systems

Consumer Electronics
Vapor chambers manage heat in devices like smartphones, laptops, tablets, and gaming consoles, preventing overheating of processors, CPUs, GPUs, and batteries to ensure stable performance under heavy loads.

Electric Vehicles (EV) and Automotive Electronics
Vapor chambers provide heat management for EV batteries, power electronics, autonomous driving sensors, and infotainment systems, maintaining optimal temperature during charging and discharging to extend battery life and enhance vehicle performance.

Medical Devices
Vapor chambers ensure stable thermal management in devices like MRI machines, CT scanners, portable monitors, and patient monitors, preventing overheating during prolonged use and enhancing the reliability and safety of critical medical equipment.

High-Performance Computing and Data Centers
Vapor chambers help dissipate heat in devices such as servers, GPUs, CPUs, and networking equipment, preventing CPUs and GPUs from thermal throttling and ensuring stable operation even under heavy workloads.
FAQs
1. What Does a Vapor Chamber Do?
A vapor chamber is a heat management solution used in electronic devices, designed to efficiently dissipate heat from high-performance devices. It helps prevent overheating, ensuring stable operation and improved device longevity by maintaining optimal temperatures.
2. Do iPhones Have a Vapor Chamber?
Yes, some iPhones, especially higher-end models like the iPhone 12 Pro Max and newer, use a vapor chamber to improve thermal management. The vapor chamber helps cool the device during heavy usage, such as gaming or video recording, preventing overheating and ensuring smoother performance. This feature is typically found in devices that require efficient cooling solutions to handle high-performance tasks.
3. What Are the Materials in a Vapor Chamber?
The materials used in a vapor chamber are selected for their excellent thermal conductivity. Typically, the outer shell of the chamber is made of copper or aluminum, both of which are great at transferring heat. Inside, there’s a wicking material that helps to move the condensed liquid back to the heat source. The liquid inside the chamber is usually a distilled liquid like water or ethanol, which evaporates and condenses during the cooling process.
4. What Is Wick in a Vapor Chamber?
The wick in a vapor chamber is a porous material that plays a key role in the cooling process. When the vapor inside the chamber condenses into liquid, the wick absorbs the liquid and moves it back to the heat source. The wick ensures that the cycle of heat absorption and dissipation continues smoothly by constantly returning the condensed liquid to the evaporation zone, where it can absorb more heat.
5. What Liquid Is Used in a Vapor Chamber?
The liquid used in a vapor chamber is typically a low-boiling-point fluid like water. It is chosen for their ability to vaporize and condense at relatively low temperatures, making them ideal for cooling electronics. As the device heats up, the liquid inside the chamber evaporates, and the vapor spreads the heat. When the vapor cools down, it turns back into liquid and travels back to the heat source.
6. What Are the Different Types of Vapor Chambers?
There are two main types of vapor chambers used in electronic cooling:
- Flat Vapor Chambers: These are thin, flat chambers that spread heat evenly across a large surface area. They are commonly used in laptops, smartphones, and GPUs.
- 3D Vapor Chambers: These chambers are designed with multiple layers and are more complex. They are often used in high-performance applications like data centers or in 3D processors, where efficient heat management is crucial.
7. How Thick Is a Vapor Chamber?
The thickness of a vapor chamber can vary depending on its application. Typically, vapor chambers are quite thin, ranging from 0.5mm to 2mm. Thin chambers are ideal for compact devices like smartphones and laptops, where space is limited but efficient cooling is still needed. In contrast, thicker vapor chambers are used in larger devices, such as gaming laptops or high-performance GPUs, where more heat needs to be dissipated.
8. What is the application of vapor chamber?
Vapor chambers are widely used in electronic devices like smartphones, laptops, and gaming consoles to efficiently dissipate heat from high-performance components, preventing overheating and ensuring stable operation. They are also used in power electronics, electric vehicles, and medical devices to maintain optimal temperature management and improve the reliability and longevity of sensitive systems.
9. How Do Vapor Chambers Work?
The operation of a vapor chamber involves several key steps:
- Heat Absorption: Heat generated by electronic components is transferred to the base of the vapor chamber.
- Evaporation: The working fluid near the heat source evaporates, absorbing thermal energy.
- Vapor Distribution: The vapor spreads throughout the chamber due to pressure differences.
- Condensation: As the vapor reaches cooler areas, it condenses back into liquid, releasing heat.
- Return Flow: The wick structure within the chamber uses capillary action to return the condensed liquid to the heat source, completing the cycle.
10. What is the internal structure of a vapor chamber?
A vapor chamber is a two-phase heat transfer device that spreads heat across a surface area using the evaporation and condensation of a working fluid. The internal structure typically consists of:
- Copper Plates: Forming the outer shell, these plates provide excellent thermal conductivity.
- Wick Structure: Usually made from copper mesh or sintered powder, this structure facilitates the movement of the working fluid through capillary action.
- Sealed Chamber: The chamber is sealed to create a vacuum environment that enhances thermal performance.