Maintenance & Cleaning                                          

CPU Cooler Mounting Pressure: How to Spot and Fix Poor Contact

You have installed a new CPU cooler, applied thermal paste, and connected every fan. The system boots normally, but your CPU temperatures are still higher than expected.

Does this mean you need a larger radiator or a more powerful cooler?

Even a high-performance air cooler or liquid cooling system can struggle if its base does not make consistent contact with the processor.

The good news is that some mounting problems can be identified and corrected without replacing the entire cooling system.

This guide explains how mounting pressure affects CPU temperatures, what poor cooler contact looks like, and how to check and reinstall a CPU cooler safely.

Why Does CPU Cooler Mounting Pressure Matter?

CPU cooler mounting pressure is the mechanical force that holds the cooler's contact surface against the processor's integrated heat spreader (IHS).

This contact is essential because heat must travel from the CPU into the cooler before it can be dissipated into the surrounding air.

CPU → Heat Spreader → Thermal Interface Material → Cooler Base → Heatsink or Radiator → Air

Although the CPU heat spreader and cooler base may appear perfectly smooth, both contain microscopic surface imperfections.

These imperfections create small gaps that can reduce the efficiency of heat transfer.

Thermal paste, also known as thermal interface material (TIM), helps fill those gaps.

Mounting pressure then helps keep the surfaces properly aligned and maintains the intended contact between them.

What Happens When Mounting Pressure Is Too Low?

When the cooler is not secured correctly, its base may not sit firmly against the CPU.

Can Excessive Mounting Pressure Also Cause Problems?

Tightening mounting screws beyond the manufacturer's instructions does not guarantee better cooling.

Excessive force may damage mounting hardware, stress the CPU socket, or deform the motherboard.

In some situations, excessive or poorly distributed force can also affect the shape of the contact interface.

The objective is not to apply the greatest possible pressure.

the correct, evenly distributed mounting load specified for the cooler

To understand why the material between the two surfaces matters, read our guide to 

what thermal paste really does and what it does not

Five Signs Your CPU Cooler May Not Be Making Proper Contact

Poor mounting pressure does not always cause an immediate system failure.

Sometimes the computer runs normally but exhibits unusual thermal behavior.

Here are five warning signs worth investigating.

1. CPU Temperatures Are Higher Than Expected

An unexpectedly high CPU temperature can indicate inadequate heat transfer.

However, modern processors can operate at relatively high temperatures during boost workloads, so a single temperature reading does not automatically indicate a mounting problem.

Compare CPU temperature with package power, workload duration, and the processor's specified thermal limits.

If temperatures are unusually high under modest power consumption, cooler contact deserves closer inspection.

2. CPU Temperature Rises Rapidly Under Load

Some temperature spikes are normal when a processor increases its clock speed and power consumption.

However, sustained high temperatures or early thermal throttling during a relatively light workload may indicate cooling difficulties.

Possible causes include poor mounting, insufficient thermal paste coverage, fan problems, or pump malfunction.

A cooler base should be installed in the position intended by its mounting hardware.

A visibly tilted mounting bracket, improperly seated screw, or incorrect spacer may prevent the cooler from making consistent contact.

Check the installation from different angles when the system is powered off.

Never attempt to straighten an installed CPU cooler by applying force to the block.

4. Thermal Paste Distribution Appears Uneven

If you remove a cooler, the thermal paste pattern may provide useful clues.

For example, a noticeably thick layer on one side and a much thinner layer on the other may suggest an uneven interface.

However, paste movement during cooler removal can alter the pattern.

Do not treat the appearance of thermal paste as definitive proof of incorrect mounting pressure.

5. AIO Coolant Temperature Seems Normal While the CPU Runs Hot

This situation is especially interesting for all-in-one liquid coolers.

A CPU may report high temperatures while the coolant remains comparatively cool.

One possible explanation is inefficient heat transfer between the processor and the cold plate.

Other causes include pump issues, sensor behavior, CPU boost activity, or measurement timing.

To interpret these readings more accurately, see our guide to 

CPU package temperature vs core temperature

How to Check CPU Cooler Mounting Before Reinstalling It

Before removing your cooler, check the most common installation and operating issues.

A systematic inspection can help avoid unnecessary work.

What to CheckPotential ProblemRecommended ActionMounting screwsLoose or unevenly seated fastenersInspect against the cooler's installation instructionsMounting bracketsIncorrect or incompatible hardwareVerify CPU socket compatibilityBackplate and spacersIncorrect positioning or missing partsConfirm the required mounting configurationCooler baseProtective film left attachedRemove it before reinstallingThermal pasteMissing, old, or contaminated compoundClean and replace as instructedFan or pump connectionIncorrect header or configurationCheck wiring and operating speedCPU power settingsHigher-than-expected power consumptionCompare measured power with expected behavior

Start by checking fan and pump operation through the motherboard BIOS or suitable monitoring software.

Verify that the cooling system is operating as intended.

Next, review the mounting hardware and make sure the correct brackets, screws, and standoffs were used for your CPU socket.

If the installation appears correct but the processor still runs unusually hot, a controlled remount may be worthwhile.

Reinstalling a CPU cooler requires care because the mounting system interacts directly with the motherboard and CPU socket.

Always follow the instructions provided with your exact cooler model.

The following steps provide a general workflow.

Step 1: Record Your Current Cooling Performance

Before changing anything, establish a baseline.

These measurements will help you determine whether reinstalling the cooler actually improves cooling.

Step 2: Shut Down and Disconnect the System

Turn off the computer and disconnect it from power.

Allow the components to cool sufficiently before handling them.

Disconnect the cooler's fan or pump cables as required by the manufacturer's removal procedure.

Loosen the mounting mechanism according to the cooler manufacturer's instructions.

Where the mounting system uses several spring-loaded screws, progressive loosening may help avoid uneven mechanical loading.

If old thermal paste makes the cooler difficult to remove, follow the manufacturer's recommended method for releasing the interface.

Do not pull forcefully on a stuck cooler.

After removing the cooler, inspect the CPU heat spreader and cold plate.

Clean the old thermal compound using a suitable lint-free material and isopropyl alcohol, following the processor and cooler manufacturers' guidance.

Make sure the contact surfaces are clean and free from contamination.

Allow them to dry before reinstalling the cooler.

Use a thermal compound compatible with your CPU and cooler.

The appropriate quantity and application method depend on the processor shape, cooler design, and manufacturer's instructions.

For some installations, a central application is recommended.

Other designs may call for a different pattern or a pre-applied thermal interface material.

If the cooler already has undisturbed, pre-applied TIM intended for installation, additional paste may not be necessary.

Avoid mixing fresh thermal paste with old residue.

Align the cooler with its mounting points.

Make sure the correct hardware is installed and that no cables or surrounding components obstruct the cooler base.

CPU Cooler Mounting Pressure: How to Spot and Fix Poor Contact

You have installed a new CPU cooler, applied thermal paste, and connected every fan. The system boots normally, but your CPU temperatures are still higher than expected.

Does this mean you need a larger radiator or a more powerful cooler?

Not necessarily.

One possible explanation is improper CPU cooler mounting pressure.

Even a high-performance air cooler or liquid cooling system can struggle if its base does not make consistent contact with the processor.

The good news is that some mounting problems can be identified and corrected without replacing the entire cooling system.

This guide explains how mounting pressure affects CPU temperatures, what poor cooler contact looks like, and how to check and reinstall a CPU cooler safely.

Why Does CPU Cooler Mounting Pressure Matter?

CPU cooler mounting pressure is the mechanical force that holds the cooler's contact surface against the processor's integrated heat spreader (IHS).

This contact is essential because heat must travel from the CPU into the cooler before it can be dissipated into the surrounding air.

The basic heat transfer path is:

CPU → Heat Spreader → Thermal Interface Material → Cooler Base → Heatsink or Radiator → Air

Although the CPU heat spreader and cooler base may appear perfectly smooth, both contain microscopic surface imperfections.

These imperfections create small gaps that can reduce the efficiency of heat transfer.

Thermal paste, also known as thermal interface material (TIM), helps fill those gaps.

Mounting pressure then helps keep the surfaces properly aligned and maintains the intended contact between them.

What Happens When Mounting Pressure Is Too Low?

When the cooler is not secured correctly, its base may not sit firmly against the CPU.

Possible consequences include:





Inconsistent contact between the cooler and processor.



Excessive or uneven thermal paste thickness.



Increased thermal resistance.



Higher CPU operating temperatures.



Reduced cooling efficiency during sustained workloads.

Can Excessive Mounting Pressure Also Cause Problems?

Yes.

Tightening mounting screws beyond the manufacturer's instructions does not guarantee better cooling.

Excessive force may damage mounting hardware, stress the CPU socket, or deform the motherboard.

In some situations, excessive or poorly distributed force can also affect the shape of the contact interface.

The objective is not to apply the greatest possible pressure.

It is to achieve the correct, evenly distributed mounting load specified for the cooler.

To understand why the material between the two surfaces matters, read our guide to what thermal paste really does and what it does not.

Five Signs Your CPU Cooler May Not Be Making Proper Contact

Poor mounting pressure does not always cause an immediate system failure.

Sometimes the computer runs normally but exhibits unusual thermal behavior.

Here are five warning signs worth investigating.

1. CPU Temperatures Are Higher Than Expected

An unexpectedly high CPU temperature can indicate inadequate heat transfer.

However, modern processors can operate at relatively high temperatures during boost workloads, so a single temperature reading does not automatically indicate a mounting problem.

Compare CPU temperature with package power, workload duration, and the processor's specified thermal limits.

If temperatures are unusually high under modest power consumption, cooler contact deserves closer inspection.

2. CPU Temperature Rises Rapidly Under Load

Some temperature spikes are normal when a processor increases its clock speed and power consumption.

However, sustained high temperatures or early thermal throttling during a relatively light workload may indicate cooling difficulties.

Possible causes include poor mounting, insufficient thermal paste coverage, fan problems, or pump malfunction.

3. One Side of the Cooler Appears Uneven

A cooler base should be installed in the position intended by its mounting hardware.

A visibly tilted mounting bracket, improperly seated screw, or incorrect spacer may prevent the cooler from making consistent contact.

Check the installation from different angles when the system is powered off.

Never attempt to straighten an installed CPU cooler by applying force to the block.

4. Thermal Paste Distribution Appears Uneven

If you remove a cooler, the thermal paste pattern may provide useful clues.

For example, a noticeably thick layer on one side and a much thinner layer on the other may suggest an uneven interface.

However, paste movement during cooler removal can alter the pattern.

Do not treat the appearance of thermal paste as definitive proof of incorrect mounting pressure.

5. AIO Coolant Temperature Seems Normal While the CPU Runs Hot

This situation is especially interesting for all-in-one liquid coolers.

A CPU may report high temperatures while the coolant remains comparatively cool.

One possible explanation is inefficient heat transfer between the processor and the cold plate.

Other causes include pump issues, sensor behavior, CPU boost activity, or measurement timing.

To interpret these readings more accurately, see our guide to CPU package temperature vs core temperature.



How to Check CPU Cooler Mounting Before Reinstalling It

Before removing your cooler, check the most common installation and operating issues.

A systematic inspection can help avoid unnecessary work.

What to CheckPotential ProblemRecommended ActionMounting screwsLoose or unevenly seated fastenersInspect against the cooler's installation instructionsMounting bracketsIncorrect or incompatible hardwareVerify CPU socket compatibilityBackplate and spacersIncorrect positioning or missing partsConfirm the required mounting configurationCooler baseProtective film left attachedRemove it before reinstallingThermal pasteMissing, old, or contaminated compoundClean and replace as instructedFan or pump connectionIncorrect header or configurationCheck wiring and operating speedCPU power settingsHigher-than-expected power consumptionCompare measured power with expected behavior

Start by checking fan and pump operation through the motherboard BIOS or suitable monitoring software.

Verify that the cooling system is operating as intended.

Next, review the mounting hardware and make sure the correct brackets, screws, and standoffs were used for your CPU socket.

If the installation appears correct but the processor still runs unusually hot, a controlled remount may be worthwhile.

How to Remount a CPU Cooler Safely

Reinstalling a CPU cooler requires care because the mounting system interacts directly with the motherboard and CPU socket.

Always follow the instructions provided with your exact cooler model.

The following steps provide a general workflow.

Step 1: Record Your Current Cooling Performance

Before changing anything, establish a baseline.

Record:





Room temperature.



CPU package temperature.



CPU package power.



Fan speed.



Pump speed, if applicable.



Workload and test duration.



Thermal throttling status.

These measurements will help you determine whether reinstalling the cooler actually improves cooling.

Step 2: Shut Down and Disconnect the System

Turn off the computer and disconnect it from power.

Allow the components to cool sufficiently before handling them.

Disconnect the cooler's fan or pump cables as required by the manufacturer's removal procedure.

Step 3: Remove the Cooler Carefully

Loosen the mounting mechanism according to the cooler manufacturer's instructions.

Where the mounting system uses several spring-loaded screws, progressive loosening may help avoid uneven mechanical loading.

If old thermal paste makes the cooler difficult to remove, follow the manufacturer's recommended method for releasing the interface.

Do not pull forcefully on a stuck cooler.

Step 4: Clean the Contact Surfaces

After removing the cooler, inspect the CPU heat spreader and cold plate.

Clean the old thermal compound using a suitable lint-free material and isopropyl alcohol, following the processor and cooler manufacturers' guidance.

Make sure the contact surfaces are clean and free from contamination.

Allow them to dry before reinstalling the cooler.

Step 5: Apply Thermal Paste Correctly

Use a thermal compound compatible with your CPU and cooler.

The appropriate quantity and application method depend on the processor shape, cooler design, and manufacturer's instructions.

For some installations, a central application is recommended.

Other designs may call for a different pattern or a pre-applied thermal interface material.

If the cooler already has undisturbed, pre-applied TIM intended for installation, additional paste may not be necessary.

Avoid mixing fresh thermal paste with old residue.

Step 6: Position the Cooler Evenly

Align the cooler with its mounting points.

Make sure the correct hardware is installed and that no cables or surrounding components obstruct the cooler base.

Lower the cooler into position according to the installation procedure.

Avoid unnecessary movement after it contacts the thermal paste.

Step 7: Tighten the Mounting Hardware as Instructed

For mounting systems with multiple screws, engage the screws before fully tightening them.

If the manufacturer's procedure specifies a diagonal tightening sequence, alternate between opposing screws in small increments.

This helps maintain balanced loading during installation.

Stop at the specified mechanical limit or torque value.

Do not continue tightening after the required position has been reached.

Different CPU coolers use different mounting systems. A torque specification for one product should never be assumed to apply to another.

Step 8: Reconnect and Test the Cooling System

Reconnect the required cables and verify fan or pump operation.

Start the computer and confirm that the cooler is functioning correctly.

Repeat your earlier temperature test using comparable settings and environmental conditions.

If temperatures improve consistently at the same CPU power and workload, the previous installation may have contributed to the cooling problem.

If the issue remains, continue investigating other possible causes rather than repeatedly increasing screw tightness.

Do Air Coolers and AIO Liquid Coolers Have Different Mounting Requirements?

Both cooling methods depend on effective contact between the CPU and the cooler base.

However, their mounting hardware and additional cooling components may differ.

Air Cooler Mounting

Air coolers generally use a heatsink, mounting bracket, and retention mechanism.

Depending on the design, the mounting system may include:





Spring-loaded screws.



A CPU backplate.



Mounting bars.



Fixed standoffs.



Retention clips.

These components determine how the cooler is secured to the motherboard.

An air cooler also depends on adequate airflow through its heatsink fins.

AIO Liquid Cooler Mounting

An AIO liquid cooler uses a pump/block assembly that transfers heat into circulating coolant.

The cooler still needs proper CPU contact, but the system includes additional components such as a pump, tubing, radiator, and radiator fans.

If CPU temperatures are abnormal, both the contact interface and liquid-cooling operation should be checked.

For example, a working pump does not guarantee that the cold plate is mounted correctly.

Similarly, a well-mounted cold plate cannot compensate for a malfunctioning pump or inadequate radiator airflow.

Our guide to coolant temperature vs CPU temperature for fan control explains how these measurements can help evaluate an AIO cooling system.

How Can You Tell Whether Remounting Improved Cooling?

A lower CPU temperature after reinstalling the cooler is encouraging, but it should be evaluated carefully.

Processor temperature changes with power consumption, room temperature, workload, and cooling settings.

For a meaningful comparison, keep the following variables as consistent as possible.

Test VariableBefore RemountAfter RemountCPU and BIOS settingsRecord configurationKeep unchangedCPU package powerMeasure during testMatch as closely as possibleWorkloadUse a repeatable testRun the same testTest durationRecord test lengthUse the same durationFan and pump settingsRecord operating settingsKeep consistentAmbient temperatureRecord room temperatureKeep comparable

Focus on sustained performance rather than a brief temperature spike.

If the same CPU operates at a lower sustained temperature under comparable power and cooling conditions, the new installation may be transferring heat more effectively.

However, a remount can change several things at once, including thermal paste coverage and cooler alignment.

An improved result does not necessarily prove that mounting pressure alone caused the original problem.

When Should You Consider Upgrading Your CPU Cooler?

Correct mounting is important, but it cannot compensate for a cooling system that lacks sufficient capacity for the processor and workload.

If the cooler is installed correctly and the CPU continues to reach undesirable temperatures under sustained workloads, review the entire cooling setup.

Important factors include:





CPU power consumption.



Cooler capacity.



Case ventilation.



Radiator size and positioning.



Fan performance.



Noise requirements.



CPU socket compatibility.

For high-performance processors, our guide to choosing the right CPU cooler for Intel Core i9 and Ryzen 9 provides additional guidance on matching cooling systems to demanding workloads.

If radiator airflow appears to be the limiting factor, you can also review how to choose fans for radiators or case airflow.

Before upgrading, confirm that the existing cooling system is installed and operating correctly.

Frequently Asked Questions

1. Can a Loose CPU Cooler Backplate Cause High Temperatures?

Yes. If the mounting system relies on a backplate, an incorrectly installed or unsecured backplate can prevent the cooler from achieving its intended contact pressure.

This may increase thermal resistance and contribute to higher CPU temperatures.

Check the backplate, spacers, and mounting hardware against the installation instructions before making adjustments.

Some motherboard backplates also support the processor's retention system, so they should not be removed or modified unless the manufacturer specifically instructs you to do so.

2. Why Is My CPU Hot When My AIO Coolant Is Cool?

A high CPU temperature combined with relatively cool coolant can indicate that heat is not transferring into the liquid cooling loop as efficiently as expected.

Possible causes include poor cold-plate contact, insufficient or incorrectly applied thermal paste, pump problems, or rapidly changing processor power.

This temperature difference is a diagnostic clue, not confirmation of a mounting problem.

Check pump operation, sustained CPU power, workload duration, and the cold-plate installation before drawing conclusions.

3. Do Air Coolers and AIOs Use the Same Mounting Method?

No. Although both require proper thermal contact, their mounting hardware and installation procedures can differ.

Some use spring-loaded screws, while others rely on brackets, retention clips, or fixed mounting points.

Even two coolers designed for the same CPU socket may use different installation methods.

Always follow the manual for the exact product rather than transferring tightening instructions from another cooler.

4. Should I Replace Thermal Paste After Removing a CPU Cooler?

In most conventional thermal-paste installations, replacing the compound after removing the cooler is recommended.

Removing the cooler can disturb the original thermal interface and introduce air gaps or contamination.

Clean the existing material from the CPU heat spreader and cooler base, then apply fresh thermal compound according to the manufacturer's instructions.

Some specialized thermal interface materials have different reuse requirements, so check the product guidance before replacing them.

5. Can I Use a Torque Screwdriver on Any CPU Cooler?

A torque screwdriver can be useful when the cooler manufacturer provides a specific torque requirement and the tool is suitable for the mounting hardware.

However, many consumer CPU coolers use springs or mechanical stops to control installation force.

Do not invent a torque value or copy one from another mounting system.

Using excessive torque can damage threads, mounting brackets, or other components.

6. Is an Aftermarket CPU Contact Frame Worth Installing?

An aftermarket contact frame may improve contact consistency in certain CPU and socket configurations, particularly when the original retention mechanism contributes to uneven interface geometry.

However, results depend on the processor, motherboard, cooler, and existing mounting conditions.

A contact frame is not a universal solution for high CPU temperatures.

Installing one may require modifying or replacing part of the socket retention mechanism, which introduces installation risks and potential warranty considerations.

For most users, checking the original cooler installation and monitoring temperatures should come before considering aftermarket modifications.

Final Thoughts: Proper Contact Comes Before Bigger Cooling Hardware

CPU cooler mounting pressure plays an important role in transferring heat from the processor into the cooling system.

Insufficient or uneven contact can reduce cooling performance even when the heatsink, radiator, and fans are otherwise functioning correctly.

However, tightening mounting screws beyond the manufacturer's instructions is not an effective solution.

The safest approach is to use the correct hardware, follow the installation procedure, verify cooler operation, and compare temperatures under consistent test conditions.

If your CPU runs hotter than expected, check the installation before assuming that you need a larger cooling system.

And if an upgrade is necessary, explore the ACEGEEK CPU cooler collection to review available cooling solutions and compare compatibility with your next PC build.

Effective CPU cooling begins with proper contact, correct installation, and a cooling system matched to your hardware.

Learn how CPU cooler mounting pressure affects temperatures, how to identify poor contact, and how to safely remount air coolers and AIOs for reliable cooling.
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Mantenimiento y limpieza

Aprende cómo la presión de montaje del disipador de CPU afecta a las temperaturas, cómo identificar un mal contacto y cómo volver a montar de forma segura los disipadores de aire y los sistemas de refrigeración líquida todo en uno (AIO) para una refrigeración fiable.

Presión de montaje del disipador de CPU: cómo detectar y solucionar un mal contacto.

Reviews                                                         

What Thermal Paste Really Does—and What It Does Not

The Dirty Secret: Thermal Paste Is a Fix for Imperfect Metal

A CPU heat spreader and a cooler cold plate may look flat to the naked eye, but at the microscopic level they are ugly terrain: scratches, valleys, oxide layers, machining marks, tiny air pockets, uneven pressure zones, and surface roughness that punish heat transfer long before the fan curve gets blamed. Why do we still pretend “shiny metal” means “good contact”?

Thermal paste is a thermal interface material, or TIM. Intel describes TIM as the material that enables efficient thermal exchange between the processor integrated heat spreader, known as the IHS, and the fan-heatsink; Intel also tells users to replace TIM when reinstalling a processor or heatsink, never stack new paste on old paste, and clean the IHS with isopropyl alcohol before reinstallation in its 

That is the boring truth. And boring is good here.

I distrust thermal paste marketing because the category is stuffed with heroic language around W/m·K ratings, “nano” fillers, silver-colored syringes, and benchmark screenshots that quietly ignore mounting pressure, bond-line thickness, cooler flatness, CPU package power, ambient temperature, and whether the case is feeding the cooler fresh air. A great thermal compound can help. It cannot rewrite physics.

If you are already thinking beyond the paste and into full-system heat movement, pair this article with Acegeek’s guide on 

choosing a PC case around cooling support and clearance

, because the case decides whether the cooler receives clean intake air or recycled GPU exhaust. Acegeek’s own case guide treats cooling support, fan support, GPU clearance, CPU cooler clearance, and desk-space limits as buying factors, not decoration.

How Thermal Paste Works When It Is Doing Its Job

Not chemically, obviously, but thermally: air has poor thermal conductivity, and a thin trapped air gap between two metal surfaces is exactly the kind of small defect that can create a large interface penalty when a CPU package is pushing 65W, 170W, 253W, or more through a few square centimeters of contact area. So what does thermal paste do?

It replaces air pockets with a thermally conductive filler suspended in a carrier. Common thermal compound formulas use silicone oils, synthetic oils, zinc oxide, aluminum oxide, boron nitride, carbon particles, ceramic fillers, or other engineered particles. The paste itself is usually far less conductive than copper or aluminum. That surprises people.

Copper can sit around hundreds of W/m·K. Aluminum is also highly conductive. Many ordinary CPU thermal paste products sit in single-digit to low double-digit W/m·K claims. But the paste does not need to beat copper. It needs to beat air, fill voids, wet surfaces, stay stable, and keep the bond line thin.

The 2024 review “A Review of Advanced Thermal Interface Materials with Oriented Structures for Electronic Devices” notes that surfaces which appear to touch may only make real contact across a tiny fraction of the nominal area, and that air’s thermal conductivity is about 0.026 W/(m·K). The same paper frames total TIM resistance as a combination of bond-line thickness, TIM thermal conductivity, and contact resistance on both sides of the interface in its 

That is why I keep saying this: the best thermal paste is not the thickest paste, the shiniest paste, or the one with the loudest product page. It is the paste that forms a thin, stable, well-compressed layer between two reasonably flat surfaces under proper mounting pressure.

What Thermal Paste Does Not Do, No Matter What the Label Says

Thermal paste does not cool the CPU by itself, does not absorb heat like a magic sponge, does not compensate for a weak cooler, does not fix blocked intake, does not repair poor heatsink mounting, does not solve bad radiator placement, and absolutely does not turn a compact airflow-starved case into a thermal workstation just because the syringe cost more than lunch. Isn’t that the part nobody wants in the product copy?

Claim or MythWhat Actually HappensWhat to Check Instead“Best thermal paste will drop CPU temperature by 20°C”Possible only if the old installation was terrible, dried out, contaminated, or poorly mountedMounting pressure, cooler contact, old paste condition, fan curve, case airflow“More thermal paste means better heat transfer”Too much paste can thicken the bond line, squeeze out, create mess, or trap uneven pressureUse enough to cover after compression, not enough to flood the socket area“Thermal paste replaces a good cooler”Paste only helps the interface; the heatsink, radiator, fans, and airflow remove heatCooler TDP capacity, radiator size, fin density, intake path“High W/m·K rating tells the whole story”Lab claims often ignore bond-line thickness, pressure, surface roughness, aging, and pump-outReal testing under consistent load and controlled ambient temperature“Any thermal compound is safe”Some compounds can be electrically conductive, chemically reactive, or unsuitable for certain metalsElectrical conductivity, material compatibility, manufacturer disclosure“Paste fixes throttling”Paste may reduce interface resistance, but throttling can be caused by CPU power limits, VRM heat, case airflow, or firmware behaviorSensor logs, package power, hotspot data, sustained workload testing

Intel’s Linux thermal throttle documentation describes Thermal Monitor 1 and Thermal Monitor 2 mechanisms that reduce processor power when temperature status reaches the thermal monitor trip condition. In plain terms, if heat is not leaving fast enough, the processor protects itself by cutting behavior before it destroys itself. Read the 

Linux kernel documentation on Intel thermal throttle events

 and you will see how little patience silicon has for bad thermal planning.

 becomes a natural next stop. The article explains that TDP describes heat output on the CPU side and cooling capacity on the cooler side, then recommends matching cooler capacity above the CPU’s thermal output for stability.

Thermal paste is not the system. It is one gasket in the system.

The Overlooked Variables: Pressure, Pump-Out, Dry-Out, and Chemistry

A pea-sized dot applied under a strong, even mounting system can outperform a beautiful manual spread under weak pressure, because the real enemy is not the shape you see before installing the cooler; it is the final bond-line thickness, void distribution, surface wetting, and mechanical stability after the system heats, cools, vibrates, and repeats that cycle for months. Why are we still judging paste jobs like cake frosting?

Pump-out happens when repeated heating and cooling cycles slowly push thermal compound away from the hottest interface area. Laptops, GPUs, small form factor builds, and high-boost CPUs are common suspects because they see frequent thermal cycling and uneven mechanical stress.

Dry-out happens when volatile components in the paste evaporate or migrate, leaving a stiffer, less effective compound. Old paste can crack, harden, or lose wetting behavior. That does not mean every PC needs repasting every six months. It means old paste should be questioned when temperatures worsen under the same workload.

In October 2025, Tom’s Hardware reported on an investigation into Amech/Aimac SGT-4 thermal paste, where testing and user reports pointed to acidic vapors, copper corrosion, pitting, and heatsinks bonding to processors; the suspected chemistry involved acetoxy-curing RTV silicone and acetic acid behavior, with methyltriacetoxysilane discussed as a likely contributor in the 

Hard truth: a low price and a high online rating do not prove a thermal compound is safe. They prove it sold.

If you are working with copper cold plates, nickel-plated bases, exposed SMD components near a GPU die, or liquid-metal compounds based on gallium alloys, material compatibility is not a side note. Gallium can attack aluminum. Electrically conductive compounds can short components. Unknown blends can age badly. I would rather use a boring, well-documented CPU thermal paste than a mystery tube with fantasy conductivity numbers.

Thermal Paste vs Thermal Pad: Stop Treating Them as Swappable

Thermal paste is usually best when two rigid surfaces are close, flat enough, and held under good pressure. Thermal pads are better when the gap is larger or uneven, such as VRAM, VRM phases, SSD controllers, or power delivery components where the cooler is not sitting directly on a single flat integrated heat spreader.

Interface MaterialBest Use CaseStrengthWeaknessMy OpinionThermal pasteCPU IHS to cooler cold plate, GPU die to heatsinkThin bond line and good surface wettingNeeds good pressure and clean surfacesBest default for CPUsThermal padVRAM, VRM, SSDs, uneven gapsHandles distance and uneven contactUsually higher resistance than a good paste layerGreat when paste cannot bridge the gapPhase-change padOEM systems, laptops, repeatable assemblySoftens under heat and can improve contact consistencyNeeds the right temperature and pressure profileUnderrated for serviceabilityLiquid metalDirect-die or advanced enthusiast buildsVery high conductivityConductive, messy, metal compatibility risksPowerful, but not beginner-safe

This is where people damage hardware. They pull a GPU cooler, see pads on memory modules, replace them with paste, and then wonder why memory temperatures go insane. Paste cannot bridge a 0.5 mm, 1.0 mm, or 1.5 mm pad gap unless the cooler geometry was designed for paste. It was not.

For broader cooler planning, Acegeek’s 

 is the right internal link because thermal paste only works after the cooler itself is sized correctly. Acegeek lists multiple 120 mm, 240 mm, and 360 mm AIO-style cooler options in its CPU cooler catalog.

And once the heat reaches the fins or radiator, airflow takes over. Acegeek’s 

 belongs in the reader path for that reason, especially for builders tuning case intake and exhaust rather than obsessing over paste alone.

Why Thermal Paste Matters More as Hardware Gets Hotter

When a CPU cooler has plenty of headroom, a mediocre paste job may hide under low fan noise and acceptable package temperature, but when modern processors boost aggressively, GPUs dump hundreds of watts into the same chassis, and small cases compress all that heat into tighter airflow lanes, the interface penalty becomes easier to see. Does thermal paste lower CPU temperature? Yes, when the old interface was bad enough.

The International Energy Agency projects global data center electricity consumption to reach about 945 TWh by 2030 in its base case, with data center electricity consumption growing around 15% per year from 2024 to 2030; accelerated servers tied to AI adoption are projected to grow even faster, at about 30% annually. That is not desktop thermal paste data, but it tells the same industrial story: heat density is now a first-order design problem, not an afterthought.

NIST is also treating thermal measurement as a semiconductor-level problem. Its thermoreflectance project states that thermal conductivity, heat capacity, and interface conductance govern microelectronic device performance, reliability, thermal management, and operational lifespan; NIST also notes that these properties are hard to characterize at device length scales in its 

That is the professional context. Thermal paste is not a hobby accessory. It is a consumer-facing version of a much larger industry problem: how to move heat across imperfect interfaces without wasting performance, lifespan, acoustics, or energy.

I do not care how expensive the syringe is if the old thermal compound is still smeared into a gray crust around the IHS, the cooler screws are tightened unevenly, the radiator is starved by a glass panel, or the fan curve is pretending silence matters more than component stability. What exactly are we trying to prove?

If the build is in a compact enclosure, read Acegeek’s 

small case cooling analysis for high-TDP hardware

 before blaming the paste again. That article makes the correct argument: compact systems struggle because watts, airflow paths, clearance, and density collide.

Thermal paste is a thermally conductive compound that fills microscopic air gaps between a CPU heat spreader and a cooler cold plate, lowering interface resistance so heat can move into the heatsink or radiator more consistently, but it does not generate cooling power or fix weak mounting pressure.

In practice, it improves contact quality. It is not a substitute for a real cooler, sane airflow, or a case that lets hot air leave.

Thermal paste works by replacing trapped air between two imperfect metal surfaces with a thin layer of conductive filler and carrier material, allowing heat to cross the CPU-to-cooler interface with less resistance than it would through dry contact and microscopic air pockets alone.

The final compressed layer matters more than the pattern before mounting. Dot, line, X-pattern, or spread can all work when the cooler pressure is right.

Does thermal paste lower CPU temperature?

Thermal paste can lower CPU temperature when the existing interface is dry, uneven, contaminated, under-applied, over-applied, or poorly compressed, because replacing that bad interface reduces thermal resistance between the CPU and cooler, but gains are usually modest when the original application was already good.

A 1°C to 5°C improvement is normal in a healthy system. A 10°C to 20°C drop usually means the previous installation was bad.

What happens if you use too much thermal paste?

Using too much thermal paste can create a thicker bond line, squeeze compound beyond the CPU heat spreader, make cleanup harder, and in rare cases cause risk near exposed components if the compound is electrically conductive or chemically unsuitable, while offering no real benefit over a properly compressed thin layer.

Most modern non-conductive pastes are forgiving. Forgiving is not the same as optimal.

Thermal paste vs thermal pad: which is better?

Thermal paste is better for thin, high-pressure contact between a CPU IHS and cooler plate, while thermal pads are better for larger gaps, uneven surfaces, VRAM, VRM components, and SSD controllers where the cooler geometry requires material thickness rather than a thin wetting layer.

Do not replace pads with paste unless the cooler was designed for paste. Gap height is not a suggestion.

How often should CPU thermal paste be replaced?

CPU thermal paste should usually be replaced when the cooler is removed, when load temperatures worsen under the same conditions, when paste is visibly dry or cracked, or when an older system is being serviced after years of heat cycling, not simply because a calendar date arrived.

For a stable desktop, two to five years is a reasonable inspection window. For laptops and hot GPUs, symptoms matter more than age.

Final Thoughts: Stop Worshiping the Syringe

Thermal paste matters. It just matters in a narrower, less glamorous way than the industry likes to sell.

My advice is simple: treat CPU thermal paste as an interface-control material, not a performance miracle. Buy a known, non-conductive thermal compound from a reputable source. Apply it cleanly. Mount the cooler evenly. Then audit the real thermal chain: CPU wattage, cooler capacity, fan control, case intake, GPU exhaust, dust filters, and room temperature.

Start with the paste if the interface is old or suspect. But if your CPU still runs hot after a clean repaste, stop blaming the gray goo and inspect the system around it. Read Acegeek’s 

, and match the cooler and fans to the heat you actually produce.

Do the work. Then your thermal paste can finally do its one small job.

What Thermal Paste Really Does—and What It Does Not

The Dirty Secret: Thermal Paste Is a Fix for Imperfect Metal

Paste fixes gaps.

A CPU heat spreader and a cooler cold plate may look flat to the naked eye, but at the microscopic level they are ugly terrain: scratches, valleys, oxide layers, machining marks, tiny air pockets, uneven pressure zones, and surface roughness that punish heat transfer long before the fan curve gets blamed. Why do we still pretend “shiny metal” means “good contact”?

Thermal paste is a thermal interface material, or TIM. Intel describes TIM as the material that enables efficient thermal exchange between the processor integrated heat spreader, known as the IHS, and the fan-heatsink; Intel also tells users to replace TIM when reinstalling a processor or heatsink, never stack new paste on old paste, and clean the IHS with isopropyl alcohol before reinstallation in its official TIM application guidance.

That is the boring truth. And boring is good here.

I distrust thermal paste marketing because the category is stuffed with heroic language around W/m·K ratings, “nano” fillers, silver-colored syringes, and benchmark screenshots that quietly ignore mounting pressure, bond-line thickness, cooler flatness, CPU package power, ambient temperature, and whether the case is feeding the cooler fresh air. A great thermal compound can help. It cannot rewrite physics.

If you are already thinking beyond the paste and into full-system heat movement, pair this article with Acegeek’s guide on choosing a PC case around cooling support and clearance, because the case decides whether the cooler receives clean intake air or recycled GPU exhaust. Acegeek’s own case guide treats cooling support, fan support, GPU clearance, CPU cooler clearance, and desk-space limits as buying factors, not decoration.

How Thermal Paste Works When It Is Doing Its Job

Air is poison.

Not chemically, obviously, but thermally: air has poor thermal conductivity, and a thin trapped air gap between two metal surfaces is exactly the kind of small defect that can create a large interface penalty when a CPU package is pushing 65W, 170W, 253W, or more through a few square centimeters of contact area. So what does thermal paste do?

It replaces air pockets with a thermally conductive filler suspended in a carrier. Common thermal compound formulas use silicone oils, synthetic oils, zinc oxide, aluminum oxide, boron nitride, carbon particles, ceramic fillers, or other engineered particles. The paste itself is usually far less conductive than copper or aluminum. That surprises people.

Copper can sit around hundreds of W/m·K. Aluminum is also highly conductive. Many ordinary CPU thermal paste products sit in single-digit to low double-digit W/m·K claims. But the paste does not need to beat copper. It needs to beat air, fill voids, wet surfaces, stay stable, and keep the bond line thin.

That last part matters.

The 2024 review “A Review of Advanced Thermal Interface Materials with Oriented Structures for Electronic Devices” notes that surfaces which appear to touch may only make real contact across a tiny fraction of the nominal area, and that air’s thermal conductivity is about 0.026 W/(m·K). The same paper frames total TIM resistance as a combination of bond-line thickness, TIM thermal conductivity, and contact resistance on both sides of the interface in its thermal interface material review.

That is why I keep saying this: the best thermal paste is not the thickest paste, the shiniest paste, or the one with the loudest product page. It is the paste that forms a thin, stable, well-compressed layer between two reasonably flat surfaces under proper mounting pressure.

What Thermal Paste Does Not Do, No Matter What the Label Says

Marketing lies softly.

Thermal paste does not cool the CPU by itself, does not absorb heat like a magic sponge, does not compensate for a weak cooler, does not fix blocked intake, does not repair poor heatsink mounting, does not solve bad radiator placement, and absolutely does not turn a compact airflow-starved case into a thermal workstation just because the syringe cost more than lunch. Isn’t that the part nobody wants in the product copy?

Here is the blunt version:

Claim or MythWhat Actually HappensWhat to Check Instead“Best thermal paste will drop CPU temperature by 20°C”Possible only if the old installation was terrible, dried out, contaminated, or poorly mountedMounting pressure, cooler contact, old paste condition, fan curve, case airflow“More thermal paste means better heat transfer”Too much paste can thicken the bond line, squeeze out, create mess, or trap uneven pressureUse enough to cover after compression, not enough to flood the socket area“Thermal paste replaces a good cooler”Paste only helps the interface; the heatsink, radiator, fans, and airflow remove heatCooler TDP capacity, radiator size, fin density, intake path“High W/m·K rating tells the whole story”Lab claims often ignore bond-line thickness, pressure, surface roughness, aging, and pump-outReal testing under consistent load and controlled ambient temperature“Any thermal compound is safe”Some compounds can be electrically conductive, chemically reactive, or unsuitable for certain metalsElectrical conductivity, material compatibility, manufacturer disclosure“Paste fixes throttling”Paste may reduce interface resistance, but throttling can be caused by CPU power limits, VRM heat, case airflow, or firmware behaviorSensor logs, package power, hotspot data, sustained workload testing

Intel’s Linux thermal throttle documentation describes Thermal Monitor 1 and Thermal Monitor 2 mechanisms that reduce processor power when temperature status reaches the thermal monitor trip condition. In plain terms, if heat is not leaving fast enough, the processor protects itself by cutting behavior before it destroys itself. Read the Linux kernel documentation on Intel thermal throttle events and you will see how little patience silicon has for bad thermal planning.

And that is where Acegeek’s TDP guide for PC stability becomes a natural next stop. The article explains that TDP describes heat output on the CPU side and cooling capacity on the cooler side, then recommends matching cooler capacity above the CPU’s thermal output for stability.

Thermal paste is not the system. It is one gasket in the system.



The Overlooked Variables: Pressure, Pump-Out, Dry-Out, and Chemistry

Pressure decides everything.

A pea-sized dot applied under a strong, even mounting system can outperform a beautiful manual spread under weak pressure, because the real enemy is not the shape you see before installing the cooler; it is the final bond-line thickness, void distribution, surface wetting, and mechanical stability after the system heats, cools, vibrates, and repeats that cycle for months. Why are we still judging paste jobs like cake frosting?

The failure modes are not exotic:

Pump-Out

Pump-out happens when repeated heating and cooling cycles slowly push thermal compound away from the hottest interface area. Laptops, GPUs, small form factor builds, and high-boost CPUs are common suspects because they see frequent thermal cycling and uneven mechanical stress.

Dry-Out

Dry-out happens when volatile components in the paste evaporate or migrate, leaving a stiffer, less effective compound. Old paste can crack, harden, or lose wetting behavior. That does not mean every PC needs repasting every six months. It means old paste should be questioned when temperatures worsen under the same workload.

Bad Chemistry

This one is not theoretical anymore.

In October 2025, Tom’s Hardware reported on an investigation into Amech/Aimac SGT-4 thermal paste, where testing and user reports pointed to acidic vapors, copper corrosion, pitting, and heatsinks bonding to processors; the suspected chemistry involved acetoxy-curing RTV silicone and acetic acid behavior, with methyltriacetoxysilane discussed as a likely contributor in the SGT-4 thermal paste investigation.

Hard truth: a low price and a high online rating do not prove a thermal compound is safe. They prove it sold.

If you are working with copper cold plates, nickel-plated bases, exposed SMD components near a GPU die, or liquid-metal compounds based on gallium alloys, material compatibility is not a side note. Gallium can attack aluminum. Electrically conductive compounds can short components. Unknown blends can age badly. I would rather use a boring, well-documented CPU thermal paste than a mystery tube with fantasy conductivity numbers.

Thermal Paste vs Thermal Pad: Stop Treating Them as Swappable

Pads fill distance.

Thermal paste is usually best when two rigid surfaces are close, flat enough, and held under good pressure. Thermal pads are better when the gap is larger or uneven, such as VRAM, VRM phases, SSD controllers, or power delivery components where the cooler is not sitting directly on a single flat integrated heat spreader.

Interface MaterialBest Use CaseStrengthWeaknessMy OpinionThermal pasteCPU IHS to cooler cold plate, GPU die to heatsinkThin bond line and good surface wettingNeeds good pressure and clean surfacesBest default for CPUsThermal padVRAM, VRM, SSDs, uneven gapsHandles distance and uneven contactUsually higher resistance than a good paste layerGreat when paste cannot bridge the gapPhase-change padOEM systems, laptops, repeatable assemblySoftens under heat and can improve contact consistencyNeeds the right temperature and pressure profileUnderrated for serviceabilityLiquid metalDirect-die or advanced enthusiast buildsVery high conductivityConductive, messy, metal compatibility risksPowerful, but not beginner-safe

This is where people damage hardware. They pull a GPU cooler, see pads on memory modules, replace them with paste, and then wonder why memory temperatures go insane. Paste cannot bridge a 0.5 mm, 1.0 mm, or 1.5 mm pad gap unless the cooler geometry was designed for paste. It was not.

For broader cooler planning, Acegeek’s CPU cooler category is the right internal link because thermal paste only works after the cooler itself is sized correctly. Acegeek lists multiple 120 mm, 240 mm, and 360 mm AIO-style cooler options in its CPU cooler catalog.

And once the heat reaches the fins or radiator, airflow takes over. Acegeek’s cooling fan lineup belongs in the reader path for that reason, especially for builders tuning case intake and exhaust rather than obsessing over paste alone.

Why Thermal Paste Matters More as Hardware Gets Hotter

Watts expose shortcuts.

When a CPU cooler has plenty of headroom, a mediocre paste job may hide under low fan noise and acceptable package temperature, but when modern processors boost aggressively, GPUs dump hundreds of watts into the same chassis, and small cases compress all that heat into tighter airflow lanes, the interface penalty becomes easier to see. Does thermal paste lower CPU temperature? Yes, when the old interface was bad enough.

The International Energy Agency projects global data center electricity consumption to reach about 945 TWh by 2030 in its base case, with data center electricity consumption growing around 15% per year from 2024 to 2030; accelerated servers tied to AI adoption are projected to grow even faster, at about 30% annually. That is not desktop thermal paste data, but it tells the same industrial story: heat density is now a first-order design problem, not an afterthought.

NIST is also treating thermal measurement as a semiconductor-level problem. Its thermoreflectance project states that thermal conductivity, heat capacity, and interface conductance govern microelectronic device performance, reliability, thermal management, and operational lifespan; NIST also notes that these properties are hard to characterize at device length scales in its thermoreflectance metrology project.

That is the professional context. Thermal paste is not a hobby accessory. It is a consumer-facing version of a much larger industry problem: how to move heat across imperfect interfaces without wasting performance, lifespan, acoustics, or energy.

The Repaste Checklist I Actually Trust

Clean first.

I do not care how expensive the syringe is if the old thermal compound is still smeared into a gray crust around the IHS, the cooler screws are tightened unevenly, the radiator is starved by a glass panel, or the fan curve is pretending silence matters more than component stability. What exactly are we trying to prove?

Use this workflow:





Shut down, unplug, and let the system cool.



Remove the cooler with gentle twisting pressure if the old paste is stuck.



Clean the CPU IHS and cooler plate with high-purity isopropyl alcohol.



Remove all old thermal paste; do not mix old and new compound.



Apply a small center dot or controlled spread depending on CPU shape and cooler pressure.



Mount the cooler evenly in a cross pattern.



Log idle, load, and sustained temperatures before declaring victory.



Compare fan RPM, CPU package power, ambient temperature, and workload, not just one screenshot.



Re-check case airflow if the gain is smaller than expected.

If the build is in a compact enclosure, read Acegeek’s small case cooling analysis for high-TDP hardware before blaming the paste again. That article makes the correct argument: compact systems struggle because watts, airflow paths, clearance, and density collide.

FAQs

What does thermal paste do?

Thermal paste is a thermally conductive compound that fills microscopic air gaps between a CPU heat spreader and a cooler cold plate, lowering interface resistance so heat can move into the heatsink or radiator more consistently, but it does not generate cooling power or fix weak mounting pressure.

In practice, it improves contact quality. It is not a substitute for a real cooler, sane airflow, or a case that lets hot air leave.

How does thermal paste work?

Thermal paste works by replacing trapped air between two imperfect metal surfaces with a thin layer of conductive filler and carrier material, allowing heat to cross the CPU-to-cooler interface with less resistance than it would through dry contact and microscopic air pockets alone.

The final compressed layer matters more than the pattern before mounting. Dot, line, X-pattern, or spread can all work when the cooler pressure is right.

Does thermal paste lower CPU temperature?

Thermal paste can lower CPU temperature when the existing interface is dry, uneven, contaminated, under-applied, over-applied, or poorly compressed, because replacing that bad interface reduces thermal resistance between the CPU and cooler, but gains are usually modest when the original application was already good.

A 1°C to 5°C improvement is normal in a healthy system. A 10°C to 20°C drop usually means the previous installation was bad.

What happens if you use too much thermal paste?

Using too much thermal paste can create a thicker bond line, squeeze compound beyond the CPU heat spreader, make cleanup harder, and in rare cases cause risk near exposed components if the compound is electrically conductive or chemically unsuitable, while offering no real benefit over a properly compressed thin layer.

Most modern non-conductive pastes are forgiving. Forgiving is not the same as optimal.

Thermal paste vs thermal pad: which is better?

Thermal paste is better for thin, high-pressure contact between a CPU IHS and cooler plate, while thermal pads are better for larger gaps, uneven surfaces, VRAM, VRM components, and SSD controllers where the cooler geometry requires material thickness rather than a thin wetting layer.

Do not replace pads with paste unless the cooler was designed for paste. Gap height is not a suggestion.

How often should CPU thermal paste be replaced?

CPU thermal paste should usually be replaced when the cooler is removed, when load temperatures worsen under the same conditions, when paste is visibly dry or cracked, or when an older system is being serviced after years of heat cycling, not simply because a calendar date arrived.

For a stable desktop, two to five years is a reasonable inspection window. For laptops and hot GPUs, symptoms matter more than age.

Final Thoughts: Stop Worshiping the Syringe

Thermal paste matters. It just matters in a narrower, less glamorous way than the industry likes to sell.

My advice is simple: treat CPU thermal paste as an interface-control material, not a performance miracle. Buy a known, non-conductive thermal compound from a reputable source. Apply it cleanly. Mount the cooler evenly. Then audit the real thermal chain: CPU wattage, cooler capacity, fan control, case intake, GPU exhaust, dust filters, and room temperature.

Start with the paste if the interface is old or suspect. But if your CPU still runs hot after a clean repaste, stop blaming the gray goo and inspect the system around it. Read Acegeek’s TDP stability guide, check your PC case airflow planning, and match the cooler and fans to the heat you actually produce.

Do the work. Then your thermal paste can finally do its one small job.

Thermal paste is not magic grease. It is a thermal interface material with one job: reduce the penalty of imperfect metal-to-metal contact. Here is what CPU thermal paste really does, where thermal compound marketing gets slippery, and why the best thermal paste still cannot save a bad cooling system.

Reseñas

La pasta térmica no es una grasa milagrosa. Es un material de interfaz térmica con una única función: reducir las pérdidas causadas por un contacto metal-metal imperfecto. Aquí te explicamos qué hace realmente la pasta térmica para CPU, dónde se complica el marketing de los compuestos térmicos y por qué ni siquiera la mejor pasta térmica puede salvar un sistema de refrigeración deficiente.

Qué hace realmente la pasta térmica y qué no hace.

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