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How Does Liquid Coolant Work?

Published in Liquid Cooling 2 mins read

Liquid coolant works by absorbing heat and then dissipating it away from the source. In the context of computer cooling, it cycles through a system to maintain optimal temperatures.

The Liquid Cooling Process

The process can be broken down into several key stages:

  1. Heat Absorption: The coolant moves through a waterblock which sits atop the component needing cooling (usually the CPU or GPU). As stated in the reference, the coolant absorbs heat from the baseplate as it moves through the waterblock.

  2. Coolant Transport: After absorbing heat, the warmed coolant travels through tubes to a radiator. The reference mentions that the coolant moves upward through one of two tubes to a radiator.

  3. Heat Dissipation: The radiator exposes the heated liquid to the air. The reference indicates that the radiator exposes the liquid to air, which helps it cool.

  4. Forced Air Cooling: Fans attached to the radiator further enhance the cooling process by moving air across the radiator's surface. As the reference details, fans attached to the radiator then move the heat away from the cooler.

  5. Cycle Repeat: The cooled liquid then returns to the waterblock to repeat the cycle, continuously absorbing and dissipating heat.

Components and Their Roles

Here's a breakdown of the key components involved in liquid cooling:

Component Role
Waterblock Absorbs heat from the CPU or GPU.
Tubes Transport the coolant between components.
Radiator Dissipates heat from the coolant into the surrounding air.
Fans Increase airflow across the radiator for better cooling.
Coolant The liquid that absorbs and transports heat.
Pump Circulates the coolant through the system.

Benefits of Liquid Cooling

While more complex than air cooling, liquid cooling offers several advantages:

  • Improved Heat Dissipation: Liquid can absorb more heat than air, leading to better cooling performance.
  • Quieter Operation: Often, liquid cooling systems can operate more quietly than air coolers, especially under heavy loads.
  • Overclocking Potential: Better cooling allows for higher, more stable overclocks of CPUs and GPUs.

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