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How to Know Whether a Fan Is Best for Radiators or Case Airflow

The Ugly Truth Behind Static Pressure vs Airflow Fans

A fan is not “good” by itself. It is only good at a job.

A 120mm fan with a loud CFM number can look dominant on a product page, but once you bolt it to a 360mm AIO radiator, shove it behind a dust filter, or trap it behind a decorative front panel with tiny side vents, that proud airflow rating can collapse into noise, turbulence, and buyer regret. So why do we still let CFM alone make the decision?

The real question is not “Which fan is best?” The real question is: 

A high static pressure fan is built to push air through resistance: radiator fins, thick dust filters, dense mesh, cable clutter, and tight intake gaps. An airflow fan is built to move more open-air volume when there is less obstruction. This is exactly why AceGeek’s guide on 

why cooler specs alone do not predict real thermal results

 gets the core issue right: CFM and static pressure are not separate trophies. They are clues.

Radiator Fans vs Case Fans: The Job Decides the Winner

Radiators are resistance machines. Case airflow is route management.

That sounds simple, but most bad PC cooling advice comes from ignoring it. A radiator is a wall of metal fins full of narrow channels. The fan must force air through that fin stack. A case intake, by contrast, usually needs to pull cool air into the chassis and send it toward heat sources: GPU, CPU cooler, VRM, RAM, M.2 SSDs, and the PSU-adjacent dead zones nobody photographs.

For radiators, I care about static pressure, RPM behavior, bearing quality, and noise tone. For case airflow, I care about CFM, blade sweep, open-area intake, pressure balance, and whether the fan is feeding the GPU or just decorating a glass box.

radiator fans vs case fans is not a brand debate. It is a restriction debate.

A 240mm, 280mm, or 360mm AIO radiator needs fans that can hold airflow against impedance. A wide-open rear exhaust mount does not. A front mesh intake might reward airflow fans. A side-mounted radiator behind a filter might punish them. AceGeek’s breakdown of 

why radiator thickness breaks otherwise compatible builds

 makes the same point from the case side: thickness, fin density, dust, and clearance all raise the pressure demand.

I do not trust “universal fan” marketing. Not much.

Yes, some modern fans are decent hybrids. But when a seller tells you one fan is perfect for every radiator, every mesh panel, every fish-tank case, every dust filter, and every RPM range, I hear a sales department trying to erase physics.

The Numbers That Matter: CFM, Static Pressure, RPM, dBA, and PWM

If you want the short version, use this rule: 

CFM tells you how much air a fan can move in low restriction; static pressure tells you how well it can keep moving air when something blocks the path.

You also need RPM, dBA, PWM control, blade design, frame sealing, bearing type, and real mounting position. A fan rated at 75 CFM in open air may disappoint on a dense radiator. A fan rated at 2.5 mmH₂O static pressure may perform beautifully on a radiator but sound rough if you run it too fast on a side intake near your ear.

And yes, noise quality matters. A low dBA number does not always mean a pleasant sound. Motor whine, bearing tick, resonance against a radiator, and fan curve spikes can make a technically “quiet” fan feel irritating after 20 minutes.

This is where 4-pin PWM control earns its keep. AceGeek’s 

 explains the control difference clearly: 3-pin fans use voltage control, while 4-pin PWM fans use a dedicated control signal for smoother speed changes. In real builds, PWM is not luxury. It is how you stop the fan curve from behaving like a panic attack.

Spec or ConditionWhat It Really MeansBest for RadiatorsBest for Case AirflowMy Blunt TakeStatic pressure, often mmH₂OAbility to push air through resistanceYesSometimesPrioritize this for radiators, filters, and tight panelsCFMOpen-air volume moved per minuteSometimesYesUseful only when the intake or exhaust path is not chokedRPMRotation speedDependsDependsMore RPM can help, but it often buys performance with noisedBAMeasured sound levelDependsDependsLook for tone and curve behavior, not just one lab numberPWM / 4-pinFine speed control through motherboard signalYesYesI would avoid serious builds without PWM fan controlRadiator thicknessMore core depth means more resistanceYesNoThick radiators need pressure and clearance, not wishful thinkingMesh front panelLower intake resistanceSometimesYesAirflow fans can shine when the case actually breathesGlass or restricted front panelNarrower intake pathYesSometimesStatic pressure may help, but bad intake geometry is still bad

Why High-Heat PCs Expose Bad Fan Choices Fast

Modern PCs are not gentle thermal environments anymore.

Intel lists the Core i9-14900K at 125 W Processor Base Power and 253 W Maximum Turbo Power on its 

. NVIDIA lists the GeForce RTX 4090 at 450 W Total Graphics Power, 24 GB GDDR6X, a 61 mm 3-slot thickness, and an 850 W recommended system power target on its 

Do the ugly math. A 253 W CPU plus a 450 W GPU is already a 703 W heat-management problem before motherboard VRMs, DDR5, NVMe drives, RGB controllers, pump heat, PSU losses, and dust enter the conversation.

That is why I roll my eyes at fan-count obsession. Six mediocre fans in a confused layout can lose to three good fans with a clean intake path. The best fan for case airflow is not the one that fills every mount. It is the one that feeds the part creating the heat.

PC case airflow design rules for OEM and SI thermal planning

 fit this topic naturally. Airflow is not a vibe. It is a path: intake, component contact, exhaust, repeat. Break the path and the fans become expensive decoration.

The data center industry is dealing with the same lesson at a larger scale. The U.S. Department of Energy reported that data centers consumed about 4.4% of total U.S. electricity in 2023 and could reach roughly 6.7% to 12% by 2028, with electricity use rising from 58 TWh in 2014 to 176 TWh in 2023 in its 

. Berkeley Lab’s summary adds that data-center power demand more than doubled between 2017 and 2023, largely because of AI servers and their cooling needs in the 

2024 U.S. data center energy usage report summary

Reuters put it even more sharply in its 2025 report on 

heat as a key challenge for data centers and AI

, noting that high-powered AI and cloud servers generate intense heat that can exceed traditional air-cooling limits. I am not saying your mid-tower is a hyperscale rack. I am saying the cooling principle is not negotiable: density punishes lazy airflow assumptions.

A fan is best for radiators when it can maintain airflow through fin resistance without needing absurd RPM or producing an unbearable tone.

For an AIO radiator fan vs case fan decision, I start with radiator position.

Top exhaust radiator? Use pressure-capable fans and make sure the case has enough front or bottom intake to feed the GPU. Front intake radiator? Pressure matters even more, but now you must watch GPU temperature because the radiator can warm the air before it reaches the graphics card. Side radiator? Check panel restriction, tube routing, and whether the fan is pulling through glass-side geometry that looks clean but breathes poorly.

 is a smart internal link here because it addresses the CPU-versus-GPU compromise many buyers miss. A front radiator can improve CPU temperature while nudging GPU temperature upward. That is not failure. That is tradeoff.

A fan is best for case airflow when it moves a large volume of air through a low-resistance path and supports a coherent pressure plan inside the chassis.

That last phrase matters: coherent pressure plan.

For a normal mesh-front ATX case, I usually prefer strong intake at the front or bottom, then controlled exhaust at the rear and top. For a dual-chamber or fish-tank style case, side and bottom intake often matter more because the GPU needs direct air. For compact M-ATX builds, every cable and drive cage becomes part of the airflow story.

If the fan sits on an open rear exhaust, CFM can matter more than static pressure. If it sits behind a thick dust filter, narrow side vent, or restrictive decorative front, static pressure becomes more valuable even though the fan is technically being used as a “case fan.”

This is why the phrase “airflow fan for PC case” can mislead buyers. The case determines whether the fan sees open air or resistance.

, with top, side, rear, and bottom fan support plus 420mm or 360mm top AIO support, gives builders more ways to separate CPU radiator exhaust from GPU intake. A roomier case like the 

 gives E-ATX support, a 410mm GPU clearance figure, and top 360mm radiator support. Those details are not filler. They decide whether your fan plan has space to work.

And for disciplined smaller systems, the 

 shows the tradeoff clearly: compact dimensions, 285mm GPU clearance, top 240mm radiator support, and fewer places to hide sloppy airflow. That can be fine. But it means you should stop pretending a compact budget shell can absorb flagship heat without discipline.

My Field Rule: Choose the Fan After You Map the Obstruction

I would rather see a builder spend ten minutes mapping obstruction than spend $80 chasing prettier fan packaging.

But here is the uncomfortable part: many users are not choosing between a perfect radiator fan and a perfect airflow fan. They are choosing between a fan that works acceptably in both roles and a layout that ruins both roles.

What is the difference between static pressure and airflow fans?

Static pressure vs airflow fans is the practical choice between a fan built to push air through resistance and a fan built to move a larger volume of air through open space, with radiator fins, dust filters, mesh panels, and tight clearances deciding which design actually performs better. After that, the mounting location tells you the rest.

Static pressure fans usually make more sense on radiators, dense filters, and restricted front panels. Airflow fans usually make more sense on open intake and exhaust mounts. Hybrid fans can work, but I still want to know the job before I trust the label.

Radiator fans and case fans can use the same 120mm or 140mm physical size, but they are not always optimized for the same airflow job because radiators create fin resistance while case mounts may have low or high restriction depending on panel design. That is the whole trap behind “one fan fits all” advice.

A radiator fan should hold pressure through a fin stack. A case fan should support the case’s intake and exhaust path. Sometimes one model can do both well enough. Sometimes it cannot.

Is static pressure or CFM more important for PC cooling?

Static pressure is more important when the fan faces resistance, while CFM is more important when the fan has a relatively open path, so neither number is universally superior without knowing the radiator, filter, panel, and mounting position. The best spec is the one tied to the actual obstruction in the build.

For a 360mm AIO, I care more about pressure and PWM behavior. For a rear exhaust fan, I care more about smooth open-air flow and low noise. For a filtered intake, I look at both.

Can I use high static pressure fans as case fans?

High static pressure fans can work as case fans, especially when the case has restrictive filters, narrow vents, or dense mesh, but they may not always outperform airflow-focused fans on wide-open mounts where volume, blade sweep, and acoustic smoothness matter more. In other words, they are useful, not magic.

I often prefer pressure-capable fans in messy real-world cases because dust filters and decorative panels add resistance. But in a clean mesh case with open intakes, a good airflow fan can still be the better pick.

How do I choose radiator fans for an AIO cooler?

Choose radiator fans for an AIO cooler by matching fan pressure, PWM control, noise behavior, and radiator thickness to the actual mounting position, then check whether the radiator will act as intake or exhaust inside the case. AIO radiator fan choice is not only about CPU temperature; it also changes GPU airflow.

For top exhaust AIOs, make sure the case still feeds the GPU. For front intake AIOs, watch GPU temperature. For side-mounted AIOs, check panel restriction and tube routing. The fan is only one part of the system.

The best fan for case airflow is the fan that moves enough air through the case’s real intake and exhaust path without excessive noise, turbulence, or pressure imbalance, while feeding the hottest components instead of simply filling every fan mount. In many gaming PCs, that means prioritizing GPU intake first.

A mesh-front case may reward airflow fans. A glass-front case may need pressure-capable fans. A compact case may need fewer but better-positioned PWM fans. Do not buy the fan before you understand the airflow lane.

Your Next Steps: Stop Buying Fan Specs Blind

Here is the move I recommend: open your case plan and label every fan position as 

. Then choose the fan type for that job instead of buying one shiny model and hoping the build forgives you.

If the fan is fighting fins, filters, or tight panels, go static pressure. If the fan has a clean open path, go airflow. If the case has a high-watt CPU, a 300 W to 450 W GPU, a thick radiator, and a glass-heavy front, stop pretending the fan spec sheet will save a bad layout.

Audit the obstruction. Choose the fan. Tune the curve. Then test CPU package temperature, GPU hotspot, fan RPM, and noise under the workload you actually use.

That is how to know whether a fan is best for radiators or case airflow. Not by the box. By the job.

How to Know Whether a Fan Is Best for Radiators or Case Airflow

The Ugly Truth Behind Static Pressure vs Airflow Fans

A fan is not “good” by itself. It is only good at a job.

Specs lie often.

A 120mm fan with a loud CFM number can look dominant on a product page, but once you bolt it to a 360mm AIO radiator, shove it behind a dust filter, or trap it behind a decorative front panel with tiny side vents, that proud airflow rating can collapse into noise, turbulence, and buyer regret. So why do we still let CFM alone make the decision?

The real question is not “Which fan is best?” The real question is: what is the fan fighting against?

That is where static pressure vs airflow fans becomes useful. Not academic. Useful.

A high static pressure fan is built to push air through resistance: radiator fins, thick dust filters, dense mesh, cable clutter, and tight intake gaps. An airflow fan is built to move more open-air volume when there is less obstruction. This is exactly why AceGeek’s guide on why cooler specs alone do not predict real thermal results gets the core issue right: CFM and static pressure are not separate trophies. They are clues.

And clues need context.

Radiator Fans vs Case Fans: The Job Decides the Winner

Radiators are resistance machines. Case airflow is route management.

That sounds simple, but most bad PC cooling advice comes from ignoring it. A radiator is a wall of metal fins full of narrow channels. The fan must force air through that fin stack. A case intake, by contrast, usually needs to pull cool air into the chassis and send it toward heat sources: GPU, CPU cooler, VRM, RAM, M.2 SSDs, and the PSU-adjacent dead zones nobody photographs.

For radiators, I care about static pressure, RPM behavior, bearing quality, and noise tone. For case airflow, I care about CFM, blade sweep, open-area intake, pressure balance, and whether the fan is feeding the GPU or just decorating a glass box.

Here is the hard truth: radiator fans vs case fans is not a brand debate. It is a restriction debate.

A 240mm, 280mm, or 360mm AIO radiator needs fans that can hold airflow against impedance. A wide-open rear exhaust mount does not. A front mesh intake might reward airflow fans. A side-mounted radiator behind a filter might punish them. AceGeek’s breakdown of why radiator thickness breaks otherwise compatible builds makes the same point from the case side: thickness, fin density, dust, and clearance all raise the pressure demand.

I do not trust “universal fan” marketing. Not much.

Yes, some modern fans are decent hybrids. But when a seller tells you one fan is perfect for every radiator, every mesh panel, every fish-tank case, every dust filter, and every RPM range, I hear a sales department trying to erase physics.

The Numbers That Matter: CFM, Static Pressure, RPM, dBA, and PWM

If you want the short version, use this rule: CFM tells you how much air a fan can move in low restriction; static pressure tells you how well it can keep moving air when something blocks the path.

But that rule is still incomplete.

You also need RPM, dBA, PWM control, blade design, frame sealing, bearing type, and real mounting position. A fan rated at 75 CFM in open air may disappoint on a dense radiator. A fan rated at 2.5 mmH₂O static pressure may perform beautifully on a radiator but sound rough if you run it too fast on a side intake near your ear.

And yes, noise quality matters. A low dBA number does not always mean a pleasant sound. Motor whine, bearing tick, resonance against a radiator, and fan curve spikes can make a technically “quiet” fan feel irritating after 20 minutes.

This is where 4-pin PWM control earns its keep. AceGeek’s 3-pin vs 4-pin PC fan guide explains the control difference clearly: 3-pin fans use voltage control, while 4-pin PWM fans use a dedicated control signal for smoother speed changes. In real builds, PWM is not luxury. It is how you stop the fan curve from behaving like a panic attack.

Fan Spec Translation Table

Spec or ConditionWhat It Really MeansBest for RadiatorsBest for Case AirflowMy Blunt TakeStatic pressure, often mmH₂OAbility to push air through resistanceYesSometimesPrioritize this for radiators, filters, and tight panelsCFMOpen-air volume moved per minuteSometimesYesUseful only when the intake or exhaust path is not chokedRPMRotation speedDependsDependsMore RPM can help, but it often buys performance with noisedBAMeasured sound levelDependsDependsLook for tone and curve behavior, not just one lab numberPWM / 4-pinFine speed control through motherboard signalYesYesI would avoid serious builds without PWM fan controlRadiator thicknessMore core depth means more resistanceYesNoThick radiators need pressure and clearance, not wishful thinkingMesh front panelLower intake resistanceSometimesYesAirflow fans can shine when the case actually breathesGlass or restricted front panelNarrower intake pathYesSometimesStatic pressure may help, but bad intake geometry is still bad

Why High-Heat PCs Expose Bad Fan Choices Fast

Modern PCs are not gentle thermal environments anymore.

Intel lists the Core i9-14900K at 125 W Processor Base Power and 253 W Maximum Turbo Power on its official processor specification page. NVIDIA lists the GeForce RTX 4090 at 450 W Total Graphics Power, 24 GB GDDR6X, a 61 mm 3-slot thickness, and an 850 W recommended system power target on its official RTX 4090 specification page.

Do the ugly math. A 253 W CPU plus a 450 W GPU is already a 703 W heat-management problem before motherboard VRMs, DDR5, NVMe drives, RGB controllers, pump heat, PSU losses, and dust enter the conversation.

That is why I roll my eyes at fan-count obsession. Six mediocre fans in a confused layout can lose to three good fans with a clean intake path. The best fan for case airflow is not the one that fills every mount. It is the one that feeds the part creating the heat.

For gaming PCs, that is often the GPU.

This is also why AceGeek’s PC case airflow design rules for OEM and SI thermal planning fit this topic naturally. Airflow is not a vibe. It is a path: intake, component contact, exhaust, repeat. Break the path and the fans become expensive decoration.

The data center industry is dealing with the same lesson at a larger scale. The U.S. Department of Energy reported that data centers consumed about 4.4% of total U.S. electricity in 2023 and could reach roughly 6.7% to 12% by 2028, with electricity use rising from 58 TWh in 2014 to 176 TWh in 2023 in its data center electricity demand report. Berkeley Lab’s summary adds that data-center power demand more than doubled between 2017 and 2023, largely because of AI servers and their cooling needs in the 2024 U.S. data center energy usage report summary.

Different scale. Same physics.

Heat has to go somewhere.

Reuters put it even more sharply in its 2025 report on heat as a key challenge for data centers and AI, noting that high-powered AI and cloud servers generate intense heat that can exceed traditional air-cooling limits. I am not saying your mid-tower is a hyperscale rack. I am saying the cooling principle is not negotiable: density punishes lazy airflow assumptions.



When a Fan Is Best for Radiators

A fan is best for radiators when it can maintain airflow through fin resistance without needing absurd RPM or producing an unbearable tone.

Look for these signals:





Static pressure rating that stays meaningful at usable RPM



4-pin PWM control



Good frame seal against the radiator



Stable bearing behavior when mounted horizontally or vertically



Smooth acoustic profile between roughly 800 and 1,600 RPM



Enough pressure for the radiator thickness and fin density



No major performance collapse behind a filter or mesh layer

For an AIO radiator fan vs case fan decision, I start with radiator position.

Top exhaust radiator? Use pressure-capable fans and make sure the case has enough front or bottom intake to feed the GPU. Front intake radiator? Pressure matters even more, but now you must watch GPU temperature because the radiator can warm the air before it reaches the graphics card. Side radiator? Check panel restriction, tube routing, and whether the fan is pulling through glass-side geometry that looks clean but breathes poorly.

AceGeek’s article on front-mounted AIO thermal tradeoffs is a smart internal link here because it addresses the CPU-versus-GPU compromise many buyers miss. A front radiator can improve CPU temperature while nudging GPU temperature upward. That is not failure. That is tradeoff.

The fan has to match the tradeoff.

When a Fan Is Best for Case Airflow

A fan is best for case airflow when it moves a large volume of air through a low-resistance path and supports a coherent pressure plan inside the chassis.

That last phrase matters: coherent pressure plan.

For a normal mesh-front ATX case, I usually prefer strong intake at the front or bottom, then controlled exhaust at the rear and top. For a dual-chamber or fish-tank style case, side and bottom intake often matter more because the GPU needs direct air. For compact M-ATX builds, every cable and drive cage becomes part of the airflow story.

If the fan sits on an open rear exhaust, CFM can matter more than static pressure. If it sits behind a thick dust filter, narrow side vent, or restrictive decorative front, static pressure becomes more valuable even though the fan is technically being used as a “case fan.”

This is why the phrase “airflow fan for PC case” can mislead buyers. The case determines whether the fan sees open air or resistance.

A case like the LunarisFlow airflow case, with top, side, rear, and bottom fan support plus 420mm or 360mm top AIO support, gives builders more ways to separate CPU radiator exhaust from GPU intake. A roomier case like the Cruiser L460 Pro airflow case gives E-ATX support, a 410mm GPU clearance figure, and top 360mm radiator support. Those details are not filler. They decide whether your fan plan has space to work.

And for disciplined smaller systems, the Vault M-ATX airflow budget case shows the tradeoff clearly: compact dimensions, 285mm GPU clearance, top 240mm radiator support, and fewer places to hide sloppy airflow. That can be fine. But it means you should stop pretending a compact budget shell can absorb flagship heat without discipline.

My Field Rule: Choose the Fan After You Map the Obstruction

I would rather see a builder spend ten minutes mapping obstruction than spend $80 chasing prettier fan packaging.

Here is my decision process:





Is the fan pushing through a radiator, dense filter, tight front panel, or mesh with limited open area? Choose a high static pressure fan.



Is the fan mounted in a low-resistance front intake, bottom intake, or rear exhaust? Choose an airflow-focused fan.



Is the case glass-heavy or side-vented? Treat it as restricted until proven otherwise.



Is the radiator 280mm, 360mm, thick, or high-FPI? Bias harder toward static pressure.



Is the GPU the biggest heat source? Feed it first.



Does the fan lack PWM? I would not use it for a serious thermal plan unless the build is low-power and cheap by design.

But here is the uncomfortable part: many users are not choosing between a perfect radiator fan and a perfect airflow fan. They are choosing between a fan that works acceptably in both roles and a layout that ruins both roles.

A good fan cannot rescue a bad path.

FAQs

What is the difference between static pressure and airflow fans?

Static pressure vs airflow fans is the practical choice between a fan built to push air through resistance and a fan built to move a larger volume of air through open space, with radiator fins, dust filters, mesh panels, and tight clearances deciding which design actually performs better. After that, the mounting location tells you the rest.

Static pressure fans usually make more sense on radiators, dense filters, and restricted front panels. Airflow fans usually make more sense on open intake and exhaust mounts. Hybrid fans can work, but I still want to know the job before I trust the label.

Are radiator fans the same as case fans?

Radiator fans and case fans can use the same 120mm or 140mm physical size, but they are not always optimized for the same airflow job because radiators create fin resistance while case mounts may have low or high restriction depending on panel design. That is the whole trap behind “one fan fits all” advice.

A radiator fan should hold pressure through a fin stack. A case fan should support the case’s intake and exhaust path. Sometimes one model can do both well enough. Sometimes it cannot.

Is static pressure or CFM more important for PC cooling?

Static pressure is more important when the fan faces resistance, while CFM is more important when the fan has a relatively open path, so neither number is universally superior without knowing the radiator, filter, panel, and mounting position. The best spec is the one tied to the actual obstruction in the build.

For a 360mm AIO, I care more about pressure and PWM behavior. For a rear exhaust fan, I care more about smooth open-air flow and low noise. For a filtered intake, I look at both.

Can I use high static pressure fans as case fans?

High static pressure fans can work as case fans, especially when the case has restrictive filters, narrow vents, or dense mesh, but they may not always outperform airflow-focused fans on wide-open mounts where volume, blade sweep, and acoustic smoothness matter more. In other words, they are useful, not magic.

I often prefer pressure-capable fans in messy real-world cases because dust filters and decorative panels add resistance. But in a clean mesh case with open intakes, a good airflow fan can still be the better pick.

How do I choose radiator fans for an AIO cooler?

Choose radiator fans for an AIO cooler by matching fan pressure, PWM control, noise behavior, and radiator thickness to the actual mounting position, then check whether the radiator will act as intake or exhaust inside the case. AIO radiator fan choice is not only about CPU temperature; it also changes GPU airflow.

For top exhaust AIOs, make sure the case still feeds the GPU. For front intake AIOs, watch GPU temperature. For side-mounted AIOs, check panel restriction and tube routing. The fan is only one part of the system.

What is the best fan for case airflow?

The best fan for case airflow is the fan that moves enough air through the case’s real intake and exhaust path without excessive noise, turbulence, or pressure imbalance, while feeding the hottest components instead of simply filling every fan mount. In many gaming PCs, that means prioritizing GPU intake first.

A mesh-front case may reward airflow fans. A glass-front case may need pressure-capable fans. A compact case may need fewer but better-positioned PWM fans. Do not buy the fan before you understand the airflow lane.

Your Next Steps: Stop Buying Fan Specs Blind

Here is the move I recommend: open your case plan and label every fan position as radiator, filtered intake, open intake, rear exhaust, top exhaust, or side intake. Then choose the fan type for that job instead of buying one shiny model and hoping the build forgives you.

If the fan is fighting fins, filters, or tight panels, go static pressure. If the fan has a clean open path, go airflow. If the case has a high-watt CPU, a 300 W to 450 W GPU, a thick radiator, and a glass-heavy front, stop pretending the fan spec sheet will save a bad layout.

Audit the obstruction. Choose the fan. Tune the curve. Then test CPU package temperature, GPU hotspot, fan RPM, and noise under the workload you actually use.

That is how to know whether a fan is best for radiators or case airflow. Not by the box. By the job.

Learn how to tell whether a PC fan is better for radiators or case airflow by reading static pressure, CFM, RPM, noise, PWM control, radiator restriction, and real system heat load.

Rezensionen

Erfahren Sie, wie Sie anhand von statischem Druck, CFM, Drehzahl, Geräuschentwicklung, PWM-Steuerung, Radiatorwiderstand und der tatsächlichen Wärmelast des Systems feststellen können, ob ein PC-Lüfter besser für Radiatoren oder den Gehäuseluftstrom geeignet ist.

Woran man erkennt, ob ein Lüfter besser für Radiatoren oder die Gehäusebelüftung geeignet ist

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