(9 products available)
MXM heatsinks are available in various types, either alone or together with a cooling fan built into one unit. They all have diverse thermal management solutions for mobile PCIe modules, depending on factors like heat dissipation capacity, compatibility, and application requirements.
Passive Heatsink
Passive heatsinks have no moving parts and rely on natural convection for heat dissipation. The absence of fans makes them ideal for noise-sensitive environments.
Active Heatsink
Active heatsinks incorporate one or more fans to improve airflow and heat dissipation, so they're better in high-performance settings where heat buildup may be a problem.
Heat Pipes
Heat pipe heatsinks use heat pipes to transfer heat from the MXM module to the fins more quickly, helping the fins do more work by getting hotter faster. They can be passive or active and are famous for their excellent heat-dissipating abilities.
Vapor Chamber Heatsink
Vapor chamber heatsinks offer superior heat-dissipating efficiency compared to traditional heatsinks. Like heat pipes, they spread heat uniformly across the surface. This makes them good for high-performance applications where quick and even heat dissipation is crucial to maintaining product health and functionality.
Fin Design Heatsink
Fin design heatsinks only differ in the shape and arrangement of the fins. Increasing their number or changing their shape can significantly boost air's heat-capturing and dissipating ability. Talon and yolk fins are among the many other kinds of fin profiles that manufacturers can choose to make interesting MXM heatsinks. They help make the heatsink even more effective depending on the airflow requirements. This helps keep different processors cooler, so they perform optimally regardless of use.
Aluminium Heatsinks
Aluminium heatsinks are the most common for MXM applications since they're good at getting heat away, fairly cheap, and light. They can be shaped easily and won't rust. A hefty plus is that anodised ones boost corrosion resistance and cooling because they have a tough, slick surface.
Copper Heatsinks
The better copper conducts heat, the better. It's much denser than aluminium, so it can't be formed and is heavy, but it dissipates heat with unmatched efficiency. Copper heatsinks often accompany anodised copper finishes. Then they improve their already fantastic heat-dissipating abilities while increasing resistance to corrosion.
Hybrid Heatsinks
Hybrid heatsinks use copper and aluminium to get the best of both. A copper base provides quick heat dissipation at first, while aluminium fins help lighten and expand heat-dissipating surface area. This makes Hybrid heatsinks a practical and efficient solution for most high-performance applications requiring decent cooling capability.
Anodized and Black Nickel Plated Heatsinks
Coatings like anodisation and black nickel plating increase the heatsink's lifespan by providing extra corrosion protection and possibly improving thermal dissipation. These finishes are necessary in hostile environments where corrosion is a big problem, as they protect the heatsink and keep it working longer at an optimum heat level.
Consumer Electronics
MXM heatsinks take the heat out of graphics cards in gaming systems, workstations, and laptops, so they don't overheat. They keep the parts at lower temps, boosting performance and reliability, especially during heavy gaming or graphics work.
Industrial Computing
Heatsinks ensure industrial computers operate safely in tough environments by preventing overheating during extreme workloads. They help the systems handle their tasks longer by protecting the components from the heat generated in intense industrial uses.
Medical Devices
In medical devices, reliable cooling is crucial for safety and performance. MXM heatsinks maintain the optimal operating temperatures of vital components in medical imaging systems, patient monitoring, and diagnostic machines to ensure precise treatment and reliable performance.
Automotive Technology
Automotive systems depend on MXM heatsinks to cool advanced navigation, infotainment, and driver assistance systems. By preventing overheating, they ensure the electronics in today's cars perform reliably, even in extreme heat.
Data Centers
Heatsinks keep the modules cool in high-performance servers and data centre systems to ensure everything runs at top capacity without throttling. By maintaining optimal temperatures under heavy loads, they improve the reliability and longevity of these essential computing systems.
Several factors go into picking the right MXM heatsink to ensure it meets all thermal and mechanical requirements, whether passively or actively cooled. Consideration entails the following:
Thermal Performance
This assesses how much heat the heatsink can handle well, which links directly to the MXM module's TDP (thermal design power). The lower the TDP, the easier it is to cool. A good TDP-to-heatsink size ratio means better cooling performance.
Fin Design
How the fins work far from the heatsink base affects how well the heatsink cools. More, bigger, and better-finished fins boost airflow, dissipating heat more effectively. This helps keep the temperature lower under heavy use.
Material and Build Quality
Most heatsinks use light but tough aluminium to make the fins and base. Copper is better at conducting heat, but it's heavy. Mixing copper on the base with aluminium on fins gets the best cooling without adding too much weight. This balances performance and making a heatsink that's sturdy yet not excessively heavy.
Compatibility and Installation
The heatsink must fit snugly with the MXM module and other system components without any clashes. Make sure there is enough room around the heatsink for good airflow. Installation should be simple, so extra tools aren't needed, and it fits right in without too much hassle.
Cost and Budget
Finally, the heatsink's price matters. Get a heatsink that performs well for its cost, even if it means spending a little more for better cooling. Weigh the benefits of each heatsink carefully against how much they will cool the system down.
A1: An MXM heatsink cools the mobile PCIe module by dissipating heat so it doesn't overheat and cause system performance issues.
A2: Active heatsinks cool better than passive ones because they force air movement, which is better for cooling high-performance systems that generate lots of heat.
A3: The vapor chamber heatsink spreads heat better than a regular one, getting rid of it faster and keeping the system cooler for better performance.
A4: When selecting an MXM heatsink, consider its cooling power, how the fins look, what materials it's made of, whether it will fit correctly, and the price.
浙公网安备 33010002000092号
浙B2-20120091-4