Cooler Master Hyper 212

The Cooler Master brand hardly needs an introduction. It is one of the most widely recognized product names in cooling around the world. Headquartered in Taiwan, Cooler Master has established themselves as a leading name in cases, air cooling, and fans. They also market products such as power supplies, water cooling kits, notebook cooling pads, and specialized chassis for external storage. If it comes to cooling, Cooler Master probably makes a product that competes for your attention.

Cooler Master makes a wide selection of CPU air coolers, ranging from budget alternatives to the stock CPU coolers that come with retail units to exotic high-end solutions. The Hyper 212 looks like a high-end solution, but at about $40 it is priced as a midrange CPU air cooler.


As a major player in the cooling business, Cooler Master pays more attention to things like packaging than you see from the smaller players. The Hyper 212 package is simple but it provides the info the buyer needs for a buying decision without being overly busy. Cooler Master uses a corporate color scheme that makes it easy to pick out their product.



Inside the box you will find the Hyper 212 fully assembled, including a 120mm fan, except for the socket mounting plate. It should be clear from the picture than the 212 can easily mount two 120mm fans in a push-pull configuration. Everything needed for the second fan, including mount plates and fan mounting screws, is in the package. All you need is a bare fan to complete a dual-fan setup.


The items required for mounting the Hyper 212 on Intel Socket 775 or AMD 754/939/940/AM2 are included in the accessories kit. A nut driver socket for a Phillips screwdriver is included for installing the screw nuts. All you need is a Phillips screwdriver to remove your motherboard and secure the cooler.

Specifications

The Hyper 212 can be mounted on either AMD 754/939/940/AM2 or Intel Socket 775. The 120 fan is pre-mounted. Cooler Master also includes everything in the kit for mounting an optional second 120mm fan. Even the large thread, coarse-pitched fan screws for the second fan are included.

Cooler Master Hyper 212 Specifications
Heatsink
Dimensions 112(W) x 92(D) x 160mm(H)
Weight 710g (18.7 ounces)
Material Copper heatpipes and aluminum fins
Configuration 4 copper heatpipes in U loops
Fan
Fan Size 120mm x 120mm x 25mm
Fan Type Long-Life Sleeve Bearing with Blue LED
Connector 3-pin
Maximum Fan Speed 2000 RPM
Maximum Noise Level 19.0 dB(A)
Maximum Airflow 69.69 CFM
MTBF 50.000 hours
Air pressure 2.94mm H2O

The included 120mm fan is specified at a high 70 CFM output and a very low 19 dB(A) noise level. These specifications appear pretty remarkable since the excellent and quiet Scythe S-FLEX fan manages just 28 dB(A) at an output of around 64 CFM. The S-FLEX also runs at a slower 1600 RPM. Noise measurements will provide a better idea of the true noise level of the included fan.

Installation

Since the Hyper 212 is fully assembled all that is required is to install the mounting plate for either Intel or AMD before attaching the cooler to your motherboard. Four small screws are used to attach the appropriate adapter to the base plate. With the adapter attached, it is then necessary to remove the motherboard (for both Intel as well as AMD) in order to attach the cooler.

On Intel 775 the mount screws pass through the four motherboard holes and are secured from the motherboard back with washers and nuts. Cooler Master thoughtfully includes a nut driver that works with a Phillips screwdriver to attach the nuts. The good news about this installation is the fairly heavy 710g cooler is very secure after mounting. The bad news is the motherboard has to be removed.

Overall the cooler installation is pretty easy - much easier than many competing products that also provide the security of a bolt-through installation. Those worried about a heavy heatsink popping out of holes with the Intel push clips should feel much better about this installation method.

The second fan option, on the other hand, is a nice addition whose installation just wasn't thought through. To mount the second fan you have to attach mounting plates with screws from the BACK of the plate. This means the plates must be removed from the cooler to install. The problem is the fan mounts are attached to the cooler at the top and bottom of the fin array, and - you guessed it - you have to remove the motherboard and cooler just to attach a second fan. While doing this before the initial installation isn't that big of a problem, there ought to be an easier way to add a second fan on an existing installation.

These strange cooler mount glitches, like having to remove the motherboard to mount the second Hyper 212 fan, could be avoided if manufacturers required design engineers to actually mount and use all accessories in a real case like consumers will be using. For a company like Cooler Master, which makes many excellent cases, this should be an easy task.


Once the second fan is installed it is very secure. The two fans in a push-pull configuration create a nice package as you can see in the photo above. Since the Hyper 212 is designed with support for two fans, we tested the cooler in both single and dual-fan configurations.

Index CPU Cooling Test Configuration
Comments Locked

21 Comments

View All Comments

  • pc007 - Wednesday, October 31, 2007 - link

    This is only slightly related, but why do all the cooling solutions i've seen blow air into a heat sink?
    When blowing air it is compressed slightly and raises the temperature. When sucking the air off a heatsink the air is expanded slightly creating more cooling effect. It is possible to drop the temperature of a heatsink to below freezing when in an ambient temperature of 20degrees C, just buy reversing the fan.
    Is there a reason this isn't done with computer cooling solutions?
  • gmchenry - Wednesday, November 28, 2007 - link

    The ability to remove heat is impacted by the density of the air moving across the heat source. Less dense air is less effective at removing heat. Living more than a mile above sea level, the cooling effectiveness in our systems is reduced by a factor of about .90 (1.0 is sea level). We have to cope with this loss in heat convection by increasing air speed to reach an equivalent heat transfer ratio.

    Having a fan that pulled air across a heatsink will have a similar effect by reducing the air density. This would deteriorate performance.
  • ObiWanCeleri - Saturday, March 15, 2008 - link

    I think there's also another, very practical reason for this.
    Since the air inside a PC is very often charged with static electricity, it also carries dust, which easily collects on fins. I might be wrong but it's more efficient to blow air into the fins to disloge dust than it is to pull air.
  • Howard - Wednesday, October 31, 2007 - link

    Below freezing? Can you show me the math?
  • pc007 - Wednesday, October 31, 2007 - link

    nope, not much of a mathmatician. But I can show you a device that does it. If you buy a portable can cooler such as this [url]http://www.dse.co.nz/cgi-bin/dse.storefront/47292b...
    d/Product/View/M4500[/url] and pull it apart, you will find this is how it operates.
    I have on eand if I put water in it and run it for a few minutes, the water starts to freeze.
  • oopyseohs - Thursday, November 1, 2007 - link

    I believe the device you link to is in effect a mini-refrigerator. It uses a very small condenser and compressor system that changes the phase (gas -> liquid, liquid -> gas) of a refrigerant to exploit latent heat and provide cooling. This effect is used in computers via rather expensive systems that product sub-freezing conditions and cool processors very well. It is not used very extensively because there is an inherent condensation risk, an enemy to the delicate electrical components. I am no expert, but I would assume the unit you linked to there is not powerful enough to cool a processor, which produces an absurd amount of heat continuously. The one you've got there is good at cooling hot stuff down, or even freezing other stuff, but it's probably not the greatest and continuously cooling something that is very hot. I don't know if this is even right or if it makes sense, but there is a possible explanation for you.
  • oopyseohs - Thursday, November 1, 2007 - link

    ahh yes I am an idiot.. I see it says right there that it is a TEC. TECs are used in CPU cooling applications, but not extensively and because they are very inefficient. Actually one of the better coolers in Anandtech's CPU testing charts, the Monsoon II from Vigor Gaming, uses controlled TEC technology.
  • Schmide - Thursday, November 1, 2007 - link

    That's a TEC Thermoelectric Cooler. Sometimes referred to as a Peltier. (http://en.wikipedia.org/wiki/Peltier-Seebeck_effec...">Link) They work well in extreme cooling but are horribly inefficient. To cool 100w of heat it often takes like 200w of energy, and thusly they produce 200w of heat. To run that cooler you need a 12v 5amp powersource.
  • pc007 - Tuesday, November 6, 2007 - link

    Right you are, my mistake. I pulled one of these things apart years ago and didn't look close enough obviously... at least I won't continue to think this is how they work now :)
    Sorry for writing useless rubbish up here.
  • Chuckles - Wednesday, October 31, 2007 - link

    At a pressure rise of 2mm of water, the temperature rise due to PdV work is negligible.

    The more important design reason for mounting the fan on the blowing side is that it produces a better flow across the heat sink. If you want, start a fan in your room, then see how far away you can feel the airflow across your hand. It's much further on the output side than the intake side. The same principle applies in a fan on a heat sink. With the fan pushing air onto the cooler, you get the majority of the air covering the middle section of the cooler, whereas in a pulling configuration, a high fraction of the air flow would be coming from the edges near the fan, relatively cool portions of the heat sink.

Log in

Don't have an account? Sign up now