Subject: Processors, Systems | May 29, 2012 - 05:15 PM | Ryan Shrout
Tagged: server, dell, copper, arm
Dell announced today that is going to help enable the world of the ARM-based server ecosystem by enabling key hyperscale customers to access and develop on Dell's own "Copper" ARM servers.
Dell today announced it is responding to the demands of our customers for continued innovation in support of hyperscale environments, and enabling the ecosystem for ARM-based servers. The ARM-based server market is approaching an inflection point, marked by increasing customer interest in testing and developing applications, and Dell believes now is the right time to help foster development and testing of operating systems and applications for ARM servers.
Dell is recognized as an industry leader in both the x86 architecture and the hyperscale server market segments. Dell began testing ARM server technology internally in 2010 in response to increasing customer demands for density and power efficiency, and worked closely with select Dell Data Center Solutions (DCS) hyperscale customers to understand their interest level and expectations for ARM-based servers. Today's announcement is a natural extension of Dell's server leadership and the company's continued focus on delivering next generation technology innovation.
While these servers are still not publicly available, Dell is fostering the development of software and verification processes by seeding these unique servers to a select few groups. PC Perspective is NOT one of them.
Each of these 3U rack mount machines includes 48 independent servers, each based around a 1.6 GHz quad-core Marvell Armada XP SoC. Each of the sleds (pictured below) holds four discrete server nodes, each capable of as much as 8GB of memory on a single DDR3 UDIMM. Each node can access one 2.5-in HDD bay and one Gigabit Ethernet connection.
Click for a larger view
Even though we are still very early into the life cycle of ARM architectures in the server room, Dell claims that these systems are built perfectly for web front-ends and Hadoop environments:
Customers have expressed great interest in understanding ARM-based server advantages and how they may apply to their hyperscale environments. Dell believes ARM infrastructures demonstrate promise for web front-end and Hadoop environments, where advantages in performance per dollar and performance per watt are critical. The ARM server ecosystem is still developing, and largely available in open-source, non-production versions, and the current focus is on supporting development of that ecosystem. Dell has designed its programs to support today's market realities by providing lightweight, high-performance seed units and easy remote access to development clusters.
There is little doubt that Intel will feel and address this competition in the coming years.
Subject: Processors, Mobile | May 29, 2012 - 11:33 AM | Ryan Shrout
Tagged: z2670, windows 8, dell, clover trail, atom
In a leaked slide posted by Neowin.net, details of Dell's upcoming Latitude 10 tablet are coming to light, including hardware specifications like the Intel Atom Z2670 "Clover Trail" SoC.
This 10.1-in Windows 8 based tablet will include a 1366x768 display with a capacitive multi-touch screen and an optional stylus accessory. Weighing in at just over 1.5 pounds, the Latitude 10 is just slightly heavier than the latest generation of iPad (1.46 pounds).
Intel's upcoming Atom processor, the Z2670, will be at the core of the design and will be based on the "Clover Trail" design, a slightly faster and updated version of "Medfield" we have seen implemented on mobile phones early in 2012. With dual-cores capable of HyperThreading, and the ability to enter into "Burst Mode" which offers "quick bursts of extra performance when called upon", the Atom Z2670 should be capable of presenting a reasonable Windows 8 experience.
Other specifications include 2 GB of DDR2-800 lower power memory, up to a 128 GB SSD, 2 and 4 cell swappable batteries and front plus rear facing cameras.
With Computex 2012 right around the corner in Taipei, Taiwan, we expect to see quite a few more tablets and hybrid machines based on Windows 8 including Intel Atom-powered devices as well as ARM-based devices running Windows 8 RT.
Subject: General Tech, Processors, Mobile | May 24, 2012 - 06:01 PM | Scott Michaud
Intel has released a report about their environmental efforts in terms of manufacturing efficiency, waste, and the efficiency of their products themselves. Their 2020 mobile and data center product line is expected to use 25-fold less power than their 2010 product line. Intel is hoping to use less water and consume 1.4 TWh less energy between 2012 and 2015 in their manufacturing with no chemical waste to landfill by 2020.
It is not easy been green.
… But, especially now, Intel can afford to try.
The chip manufacturer has set some goals for themselves to decrease their impact on the environment. These plans were published in their 2011 Corporate Responsibility Report (pdf), released last week. The plan highlights goals extending out as far as 2020.
It would seem that for Intel foresight is also 2020.
Yes, those puns were terrible, I admit it.
One of the forefront issues raised is alterations to their supply chain. Their raw materials have been addressed -- not just for eco-friendliness -- but also for human rights violations. By the end of 2012 Intel intends to validate that all tantalum would be “conflict-free” with the other three minerals verified by the end of 2013.
On the topic of environmental impact Intel is also intending on reducing their electrical and water usage at their manufacturing plants. A total of 1.4 TWh of energy is expected to be reduced from 2012 through 2015. Intel is also lauding their solar initiatives although they fell short of committing to any specific future endeavors in clean energy in this report.
Lastly, Intel claims that their mobile and data center products will consume 25-fold less power than their 2010 counterparts. Obviously such a statement falls more under gloating than a vow to promote sustainability but it is respectable none-the-less.
Subject: Editorial, General Tech, Graphics Cards, Processors | May 19, 2012 - 04:52 PM | Scott Michaud
Tagged: ultrabook, trinity, cloud computing, cloud, amd
Bloomberg Businessweek reports AMD CEO Rory Read claims that his company will produce chips which are suited for consumer needs and not to crunch larger and larger bundles of information. They also like eating Intel’s bacon -- the question: is it from a pig or a turkey?
Read believes there is “enough processing power on every laptop on the planet today”.
The argument revolves around the shift to the cloud, as usual. It is very alluring to shift focus from the instrument to the data itself. More enticing: discussing how the instruments change to suit that need; this is especially true if you develop instruments and yearn to shift anyway.
Don’t question the bacon…
AMD has been trusting that their processors will be good enough and their products will differentiate in other ways such as with graphics capabilities which they claim will be more important for cloud services. AMD hopes that their newer laptops will steal some bacon from Intel and their ultrabook initiative.
The main problem with the cloud is that it is mostly something that people feel that they want rather than actually do. They believe they want their content controlled by a company for them until it becomes inaccessible temporarily or permanently. They believe they want their information accessible in online services but then freak out about the privacy implications of it.
The public appeal of the cloud is that it lets you feel as though you can focus on the content rather than the medium. The problem is that you do not have fewer distractions from your content -- just different ones -- and they rear their head once or twice in isolation of each other. You experience a privacy concern here and an incompatibility or licensing issue there. For some problems and for some people it makes more sense to control your own data. It will continue to be important to serve that market.
And if crunching ends up being necessary for the future it looks like Intel will be a little lonely at the top.
When the Fermi architecture was first discussed in September of 2009 at the NVIDIA GPU Technology Conference it marked an interesting turn for the company. Not only was NVIDIA releasing details about a GPU that wasn’t going to be available to consumers for another six months, but also that NVIDIA was building GPUs not strictly for gaming anymore – HPC and GPGPU were a defining target of all the company’s resources going forward.
Kepler on the other hand seemed to go back in the other direction with a consumer graphics release in March of this year without discussion of the Tesla / Quadro side of the picture. While the company liked to tout that Kepler was built for gamers I think you’ll find that with the information NVIDIA released today, Kepler was still very much designed to be an HPC powerhouse. More than likely NVIDIA’s release schedules were altered by the very successful launch of AMD’s Tahiti graphics cards under the HD 7900 brand. As a result, gamers got access to GK104 before NVIDIA’s flagship professional conference and the announcement of GK110 – a 7.1 billion transistor GPU aimed squarely at parallel computing workloads.
With the Fermi design NVIDIA took a gamble and changed directions with its GPU design betting that it could develop a microprocessor that was primarily intended for the professional markets while still appealing to the gaming markets that have sustained it for the majority of the company’s existence. While the GTX 480 flagship consumer card and the GTX 580 to some degree had overheating and efficiency drawbacks for gaming workloads compared to AMD GPUs, the GTX 680 based on Kepler GK104 has improved on them greatly. NVIDIA has still designed Kepler for high-performance computing though with a focus this time on power efficiency as well as performance though we haven’t seen the true king of this product line until today.
GK110 Die Shot
Built on the 28nm process technology from TSMC, GK110 is an absolutely MASSIVE chip built on 7.1 billion transistors and though NVIDIA hasn’t given us a die size, it is likely coming close the reticle limit of 550 square millimeters. NVIDIA is proud to call this chip the most ‘architecturally complex’ microprocessor ever built and while impressive, it means there is potential for some issues when it comes to producing a chip of this size. This GPU will be able to offer more than 1 TFlop of double precision computing power with greater than 80% efficiency and 3x the performance per watt of Fermi designs.
Subject: Processors | May 16, 2012 - 02:29 PM | Jeremy Hellstrom
Tagged: trinity, radeon, igp, gpu, APU, amd. A10-4600M
AMD's A10-4600M APU has finally arrived, showing off an enhanced Piledriver core and a new Northern Islands based graphics core. This is a big step up from Llano in terms of general processing power but not a huge improvement over Bulldozer chips, though the raised clock speed does help it in general tasks. Unfortunately the AMD still chip lags far behind the performance of Intel's mobile i5 processors and while the graphics are certainly more powerful on Trinity they still aren't up to an impressive level of performance. The Tech Report liked the high end A10-4600M but think that Trinity's low power chips are really going to shine in inexpensive ultraportable machines.
You can also check out Matt's review of Llano in a reference laptop from AMD for more information.
"AMD has pulled the curtains back on Trinity, its next-generation APU, which features new Piledriver CPU cores and Northern Islands-derived integrated graphics. Join us as we outline Trinity's architecture and run it through a whole host of benchmarks, from old staples to OpenCL-accelerated apps and "inside the second" gaming tests."
Here are some more Processor articles from around the web:
- AMD Launches New Trinity APU @ TechwareLabs
- The AMD Trinity Review (A10-4600M): A New Hope @ AnandTech
- AMD A10 'Trinity' APU review @ Hardware.Info
- AMD Launches New 2012 A-Series APU (Trinity) @ Bjorn3d
- AMD Trinity Preview @ Neoseeker
- AMD Trinity A10-4600M APU Review: Jumping the Shark? @ VR-Zone
- AMD Trinity: Going Mobile with a New APU @ Hardware Canucks
Subject: Processors | May 15, 2012 - 02:28 PM | Jeremy Hellstrom
Tagged: amd, APU, trinity
AMD today announced the widely anticipated launch of its 2nd-Generation AMD A-Series Accelerated Processing Units (APUs) for mainstream and ultrathin notebooks, All-in-One and traditional desktops, home theater PCs and embedded designs.
The 2nd-Generation A-Series APU, codenamed “Trinity”, is a grounds-up improved design over the previous generation, enabling a best-in-class PC mobility, entertainment, and gaming experience. New features of the product design include:
- Double the performance per watt of the previous generation;
- The AMD HD Media Accelerator with a unique set of technologies designed to optimize video quality available with premium and Internet video content, and accelerate video file conversion;
- An increase in CPU performance of up to 29 percent with higher processor speeds thanks to the next-generation AMD “Piledriver” CPU core with 3rd-Generation AMD Turbo Core technology, where power is dynamically shifted between the CPU and GPU depending on application needs, effectively providing a more responsive experience that can boost CPU frequencies to up to 3.2 GHz;
- AMD Radeon HD 7000 Series graphics for an increase of graphics performance up to 56% over the previous generation. Combined, the CPU and GPU cores deliver more than 700 gigaflops of computing performance – several times more than the fastest x86 CPUs – to boost performance of hundreds of applications;
- Up to 12 hours of battery life through CPU and GPU power enhancements, with clear battery life leadership in notebook form factors.
“The latest OEM notebooks, ultrathins, All-in-Ones and desktops based on the new AMD A-Series APU enable the best video and gaming experiences, highly responsive performance with AMD Turbo CORE, and accelerate an ever-increasing range of productivity and multimedia applications -- in sleek, stylish designs at price points that make sense,” said Chris Cloran, corporate vice president and General Manager, AMD Client Business Unit. “Our 2nd-Generation AMD A-Series APU is a major step forward in every performance and power dimension, allowing users to enjoy a stunning experience without having to give up the things that matter to them most. This experience doesn’t stop at mainstream notebooks. It carries over into affordable ultrathin form factors featuring the latest in AMD Radeon graphics.”
The Growing AMD Accelerated Application Ecosystem
The developer ecosystem continues to gravitate to the unmatched level of compute and unique processing capabilities of the APU as more than 100 applications and games are now accelerated by AMD APUs. The 2nd-Generation AMD A-Series APU gives users superior Web-based video experience thanks to plug-ins for Google Chrome, Firefox and Internet Explorer 9 that make it easy for consumers to turn on AMD Steady Video technology. Recent applications that have been optimized for use on AMD A-Series APUs include Adobe Photoshop CS6, WinZip 16.5 and VLC Media Player. AMD A-Series APUs are also well-positioned to take advantage of the upcoming transition to the Windows 8 operating system.
“We are excited for the introduction of the 2nd-Generation AMD A-Series APU and are confident it will continue the great work Microsoft and AMD have done together on the A-Series APU,” said Aidan Marcuss, senior director, Windows Business Planning, Microsoft Corp. “We look forward to seeing the A-Series APU in action with Windows 8 to deliver a great user experience across a variety of hardware.”
For developers who want to engage in the industry’s move toward heterogeneous computing, the upcoming AMD Fusion12 Developer Summit will offer them a unique opportunity to enhance their knowledge base. More information on AFDS can be found here.
With more than 12 hours of ‘resting’ battery life, AMD is now an industry leader in notebook battery-life performance. The 2nd-Generation AMD A-Series APU delivers increased levels of performance, while consuming half the power as its predecessor.
These gains can be attributed to the new power-optimized “Piledriver” CPU core, as well as to AMD Start Now technology, which is designed to maximize system responsiveness by quickly entering and exiting low power states. With AMD Start Now, the computer resumes from sleep mode in as few as two seconds and boots to the desktop in as few as 10 seconds.
In ultrathin form factors, AMD enables an uncompromised visual experience thanks to a power-efficient and premium AMD Radeon graphics engine. Consumers can expect to see ultrathin notebooks based on dual-core 17-watt and quad-core 25-watt AMD A-Series APUs. These products will be easily identifiable by aluminum-styled VISION Technology stickers at a range of competitive price points.
As more and more people turn to their computers as the hub for their entertainment, the visual aspect of computing becomes ever more important. To enhance these capabilities, AMD created the AMD HD Media Accelerator – a unique set of technologies that enable the best video quality on a PC. Key features of the HD Media Accelerator include:
- AMD Perfect Picture HD – An image, video processing and display technology that automatically makes images and video better with color vibrancy adjustments, edge enhancement, noise reduction and dynamic contrast fixes;
- AMD Steady Video Technology – A technology that enables smooth playback of jittery video content with a single button click thanks to plug-ins for popular Web browsers and multimedia applications;
- AMD Quick Stream Technology – A new technology that prioritizes video streaming on PC systems for a smooth, virtually uninterrupted video stream; True HD video chat with up to four people at once;
- AMD Video Converter – A video compression engine for fast conversion and sharing of media files across multiple formats and devices; Full decode support for H.264, MPEG-2, VC-1, MVC, DivX and WMV.
The 2nd-Generation AMD A-Series APU builds on AMD’s legacy of gaming leadership with an increase in graphics performance of up to 56% over the previous generation and support for:
AMD Eyefinity Technology – For the first time, this immersive technology is available from an APU without the need for a discrete graphics card Performance-leading DirectX 11 graphics architecture and 1080p gaming a life-like level of detail; AMD Radeon dual graphics support that delivers a performance boost of up to 75 percent when adding a discrete graphics card to the APU.11 The AMD Radeon dual graphics option also offers support for DirectX 9 for older game titles, and uses new AMD CrossFire Technology Profiles for easier updates.
Subject: Processors | May 8, 2012 - 05:30 AM | Tim Verry
Tagged: ultrathins, trinity, piledriver, mobile, APU, amd
Last week we detailed the changes and improvements in AMD’s upcoming Trinity Accelerated Processing Units (APU). Today, DigiTimes has confirmed that Trinity will be released later this month. The only catch is that the company is only releasing the mobile Trinity chips in May. The higher end, and higher TDP, parts will not be released until August 2012.
A Trinity APU die next to a USB flash drive
According to their sources, AMD will be pricing the mobile Trinity chips very aggressively. They will offer a cheaper alternative to OEMs as AMD based ultrathins compared to an Ivy Bridge based ultabrook notebook. The low power Trinity chips will have vastly superior GPU execution units, though Ivy Bridge may retain the CPU performance crown. Both chips are able to sip voltage and have low TDPs so it will be interesting to see the results of battery life tests once the chips and notebooks are released and are in the hands of reviewers.
Trinity desktop parts are scheduled for release in August, including the A10-5800K, A10-5700, A8-5600K, and A8-5500. They are also planning lower end A6 and A4 series Trinity APUs.
Beyond Trinity, their sources have indicated that AMD will release very low power Brazos 2.0 processors for ultrathins and Windows 8 tablets that have 18W TDPs in June 2012. Vishera–Piledriver architecture, AM3+ socket–FX series desktop CPUs (no iGPU) will be released sometime in the third quarter of this year (Q3 2012). The FX and Brazos processors include the FX-8350, FX-6300, FX-4320, and the E2-1800 and E1-1200 respectively.
While AMD may not have the lowest manufacturing process, are seemingly dropping employees like flies, and had a huge financial loss due to buying themselves out of GlobalFoundries they are still hanging in there and delivering competitive products for the low to mid-range markets.
Subject: Processors | May 4, 2012 - 02:11 PM | Tim Verry
Tagged: trinity, piledriver, llnao, fm2, APU, AMD A series
EXP Review has managed to get their hands on a set of AMD slides containing information on one of the company’s upcoming processor lines. The Llano successor, known as Trinity, is a new APU due out later this year that is said to bring increases in performance thanks to several architectural enhancements.
A Trinity APU die sitting next to a USB flash drive
Llano is AMD’s currently available Accelerated Processing Unit, or APU. The chips combine updated “Stars” mobile Phenom II CPU cores and Radeon 6000 series graphics cores into a single package. Further, the APUs contain a PCI-E 2.0 controller, integrated memory controller, and UVD3 hardware video decoding units. Some models also support AMD’s Turbo Core and Hybrid Graphics Technology which allow them to automatically boost CPU clockspeeds when lower GPU usage leaves TDP headroom, and to pair with a discrete Radeon HD 6450, 6570, or 6670 GPU in a Crossfire-like configuration. Built on a 32nm silicon on insulator (SOI) manufacturing process by GlobalFoundries, the APUs employ 1.45 billion transistors and have a die size of 228mm2 for the desktop versions. Desktop parts have TDPs of 65 watts or 100 watts depending on the particular chip and connect to the motherboards using the FM1 socket (which was a new socket for AMD, it has 905 contacts). There are both desktop and mobile Llano parts, though they are essentially the same chips. The mobile parts are scaled down desktop Llano chips that run at lower clockspeeds, top out DDR3 support at 1600MHz (versus DDR3 1866MHz on the desktop parts), have lower TDPs of either 35W or 45W, and use a slightly different socket (FS1).
In our review, and what many other users noted, is that Llano’s CPU performance really left something to be desired. Fortunately for AMD, the GPU portion of the chip delivered on performance and made the APU desirable for certain niches. The low power chips had a place in home theater PCs (HTPCs), cheap desktops, and even budget gaming rigs to an extent. Still, the CPU performance really held Llano back in terms of popularity and adoption among enthusiasts.
Llano APU in action during overclocking and gaming tests.
The upcoming Trinity processors bring quite a few enhancements to the table, foremost of which is a revamped CPU part that ditches the old Phenom II processor cores in favor of updated Piledriver architecture CPU modules. The move to the Piledriver x86 cores promises an increase in IPC, leakage reduction, CAC reduction, and increased clockspeeds according to the leaked slides, but the most important change is the increased performance per clock numbers. The Trinity APUs are set to replace the A8–or performance series of–Llano APUs with quad core Trinity processors that utilize two Piledriver modules that each share 2MB cache for 4MB of total L2 cache. In that respect, Trinity will be similar to Llano in that it does not employ any L3 cache that is shared between the CPU and GPU cores. Interestingly, that may mean that using higher clocked RAM can improve performance on Trinity just as it did with Llano. If true, that would make Trinity’s improved DDR3 support–up to DDR3 2133MHz– all the better. On the GPU side of things, Trinity moves to a “Northern Islands” VLIW4 architecture with up to 384 stream processing units. Although the GPU area is physically smaller, it is said to be more efficient than the GPU cores in Llano APUs. The new GPU core is DirectX 11 and OpenCL 1.1 compliant. Also, it includes an updated hardware tessellator engine and hardware encoding unit (AMD Accelerated Video Converter).
Trinity will continue to offer 65W and 100W TDPs as well as a 35W part. The TDPs are the same as those in Llano, but AMD has managed to lower the voltages needed to run Trinity out of the box. Also, AMD is claiming the new Trinity chips will sip power at idle–as low as 1.08 watts.
Trinity also ratchets up the automatic overclocking with Turbo Core 3 support which can boost the CPU clockspeed up to 19% or the GPU clockspeed up to 20% above stock clocks. Even better, the APU is able to allocate power to either the GPU or CPU depending on which area needs the boost and how much TDP headroom the chip has when doing certain tasks. For example, AMD shows that the A10-4600M APU can downclock the GPU from the default clockspeed of 685MHz to 496MHz, allowing the x86 Piledriver cores to achieve up to a 900MHz overclock at a clockspeed of 3.2GHz. Alternatively, when the GPU is needed, it can run at 685MHz while the CPU sits at 2.3GHz. They are likely not able to push the GPU much further as any more reductions in CPU speeds would need to be much bigger than any accompanying GPU increases. And at that point, the GPU would likely become bottlenecked and the system would be starved of too much CPU power anyway.
The Trinity APUs continue to be based on GlobalFoundries’ 32nm SOI manufacturing process, but this time the chips are slightly larger with a die size of 246mm^2. Although the APU is wholly larger than Llano, they actually have fewer transistors at 1.303 billion versus the 1.45 billion in Llano. Although that may seem like a step in the wrong direction, the new CPU modules and GPU cores are much more efficient than those in Llano so it should all balance out and Trinity should come out on top despite the lower transistor count. The Trinity APUs will also feature an improved instruction set that includes AVX, AVX1.1, FMA3, AES, and F16C which should help the CPU in certain tasks.
Overall, Trinity is looking like an improved part versus Llano, especially in the CPU department. Although AMD’s numbers should be taken with more than a grain of salt, they are claiming 26% better desktop system performance as a result of the CPU overhaul. Granted, Bulldozer was not a CPU powerhouse itself when compared to the competition, but it is–at least on paper–a good design. When paired with a relatively good GPU, as is the case of Trinity, the Piledriver [architecture based] (a refined version of the Bulldozer architecture with some under-the-hood tweaks) cores should at the least not hold the GPU back, and at best make the CPU processor performance good enough to make the Trinity APU all the more desirable to an even wider range of potential buyers. Pricing of the new APUs is still up in the air, but they are set to release later this month if a certain leak is to be believed.
I think that we can expect to see an all around better chip with Trinity, though pricing will be the ultimate factor in determining how popular it is. I suspect that Intel will still carry the CPU crown, but if the price is right, AMD can sell a lot of Trinity chips to builders that only need decent CPUs to support good integrated GPU cores in systems where the GPU is more important. I am anxiously awaiting reviews of the new Trinity chips and hoping that AMD continues to have successful chips with their line of APUs.
Subject: Processors | May 2, 2012 - 04:14 PM | Jeremy Hellstrom
Tagged: Ivy Bridge, Intel, i7-3770k
Anyone who has been keeping up with the reviews coming out which try overclocking Intel's new Ivy Bridge processor will be familiar with the large amount of power required to hit high frequencies. While the voltages required to overclock Ivy Bridge and its predecessor Sandy Bridge are very similar, Ivy Bridge's stock voltage is lower so the change is greater for Ivy Bridge. That larger increase could be one cause of the higher heat that Ivy Bridge generates. Another theory is that the heatspreader could be a cause as Intel used thermal paste in the design as opposed to the fluxless solder present on SandyB, however other tests have shown that this does not seem to be the case. The Tech Report has gathered together the current facts on this hot topic, so you can check out the numbers for yourself right here.
"Folks across the web have reported some eye-poppingly high temperatures for their overclocked Ivy Bridge processors, leading to some tough questions about the causes. Does Ivy Bridge truly run hotter than its predecessor, Sandy Bridge, and if so, why? We checked into it, and the answers were surprising, to say the least. Have a look."
Here are some more Processor articles from around the web:
- Ivy Bridge's heat problems persist, even with the removal of its IHS @ Tweaktown
- Intel Ivy Bridge Processor Overclocking Proves Challenging For Some Motherboard Makers @ Legit Reviews
- Intel Core i5-3570K "Ivy Bridge" Processor Review @ Hi Tech Legion
- Intel Ivy Bridge i5-3570K and i7-3770K Review @ Madshrimps
- Intel Core i7-3770K Ivy Bridge GPU Performance @ techPowerUp
- Ivy Bridge on air: The Core i7-3770K overclocked on four motherboards @ The Tech Report
- Intel Core i7-3770 Ivy Bridge CPU @ SPCR
- Intel Third Generation Core i7 3770K Review @ OCC
- Intel Core i7 3770K "Ivy Bridge" Processor Review @Hi Tech Legion
- Intel Core i7-3770K 3.5GHz Ivy Bridge Processor Review @ Legit Reviews
- Ivy Bridge Temperatures – It’s Gettin’ Hot in Here @ Overclockers.com
- Overclocking Intel’s HD 4000 @ SemiAccurate
- Intel HD 4000 Ivy Bridge Graphics On Linux @ Phoronix
- Desktop Ivy Bridge. Intel Core i7-3770K and Core i5-3570K @ X-bit Labs
- Desktop CPU Comparison Guide @ TechARP
- CPU shoot-out: Intel Atom D2700 vs. AMD E-450 @ Hardware.Info
- AMD A8-3870K Black Edition APU Review @ Madshrimps
- AMD Trinity APU Preview: Evolution or Devolution? @ VR-Zone
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