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When the Radeon R9 290 and R9 290X first launched last year, they were plagued by issues of overheating and variable clock speeds. We looked at the situation several times over the course of a couple months and AMD tried to address the problem with newer drivers. These drivers did help stabilize clock speeds (and thus performance) of the reference built R9 290 and R9 290X cards but caused noise levels to increase as well.
The real solution was the release of custom cooled versions of the R9 290 and R9 290X from AMD partners like ASUS, MSI and others. The ASUS R9 290X DirectCU II model for example, ran cooler, quieter and more consistently than any of the numerous reference models we had our hands on.
But what about all those buyers that are still purchasing, or have already purchased, reference style R9 290 and 290X cards? Replacing the cooler on the card is the best choice and thanks to our friends at NZXT we have a unique solution that combines standard self contained water coolers meant for CPUs with a custom built GPU bracket.
Our quick test will utilize one of the reference R9 290 cards AMD sent along at launch and two specific NZXT products. The Kraken X40 is a standard CPU self contained water cooler that sells for $100 on Amazon.com. For our purposes though we are going to team it up with the Kraken G10, a $30 GPU-specific bracket that allows you to use the X40 (and other water coolers) on the Radeon R9 290.
Inside the box of the G10 you'll find an 80mm fan, a back plate, the bracket to attach the cooler to the GPU and all necessary installation hardware. The G10 will support a wide range of GPUs, though they are targeted towards the reference designs of each:
NVIDIA : GTX 780 Ti, 780, 770, 760, Titan, 680, 670, 660Ti, 660, 580, 570, 560Ti, 560, 560SE
AMD : R9 290X, 290, 280X*, 280*, 270X, 270 HD7970*, 7950*, 7870, 7850, 6970, 6950, 6870, 6850, 6790, 6770, 5870, 5850, 5830
That is pretty impressive but NZXT will caution you that custom designed boards may interfere.
The installation process begins by removing the original cooler which in this case just means a lot of small screws. Be careful when removing the screws on the actual heatsink retention bracket and alternate between screws to take it off evenly.
Introduction and Technical Specifications
Courtesy of ASUS
The ASUS Maximus VI Impact is ASUS' newest mini-ITX member of the Republic of Gamer (ROG) family. ASUS integrated design innovations from its Z77-based mITX board and added in some ROG-based innovations to come up with a wholly unique entity. With an MSRP of $229, the Maximus VI Impact comes in at the higher-end of the mITX price range with enough integrated features to more than justify the cost.
Courtesy of ASUS
Similar to other members of the ROG-based Z87 releases, ASUS designed the Maximus VI Impact board with top of the line power components. The board's digital power system centers on an 8+2 phase power regulation system using 60 amp-rated BlackWing chokes, powIRstage MOSFETS, and 10k-rated Black Metallic capacitors. To save space on the board, the power components are mounted vertically on a hard-attached PCB to the right of the socket with the sound components and wireless networking on vertical removable cards to the upper left of the CPU socket and integrated into the board's rear panel.
So Many MHz, So Little Time...
If you've looked at memory for your system lately you've likely noticed a couple of things. First, memory prices have held steady for the past few months, but are still nearly double what they were a little over a year ago. Second, now that DDR3 has been a mature standard for years, there is a vast selection of RAM from many vendors, all with nearly identical specs. The standard has settled at 1600MHz for DDR3, and most desktop memory is programmed for this speed. Granted, many modules run at overclocked speeds, and there are some out there with pretty outlandish numbers, too - and it’s one of those kits that we take a look at today.
Hardly subtle, the Kingston HyperX 'Predator' dual channel kit for review today is clocked at a ridiculous 1066MHz OVER the 1600MHz standard. That's right, this is 2666MHz memory! It seems like such a big jump would have to provide increased system performance across the board, and that's exactly what we're going to find out.
We all want to get the most out of any component, and finding the best option at a given price is part of planning any new build or upgrade. While every core part is sold at a particular speed, and most can be overclocked, there are still some qualifying factors that make selecting the fastest part for your budget a little more complicated. Speed isn't based on MHz alone – as with processors, where it often comes down to number of cores, how many instructions per clock cycle a given CPU can churn out, etc.
Maxwell and Kepler and...Fermi?
Covering the landscape of mobile GPUs can be a harrowing experience. Brands, specifications, performance, features and architectures can all vary from product to product, even inside the same family. Rebranding is rampant from both AMD and NVIDIA and, in general, we are met with one of the most confusing segments of the PC hardware market.
Today, with the release of the GeForce GTX 800M series from NVIDIA, we are getting all of the above in one form or another. We will also see performance improvements and the introduction of the new Maxwell architecture (in a few parts at least). Along with the GeForce GTX 800M parts, you will also find the GeForce 840M, 830M and 820M offerings at lower performance, wattage and price levels.
With some new hardware comes a collection of new software for mobile users, including the innovative Battery Boost that can increase unplugged gaming time by using frame rate limiting and other "magic" bits that NVIDIA isn't talking about yet. ShadowPlay and GameStream also find their way to mobile GeForce users as well.
Let's take a quick look at the new hardware specifications.
|GTX 880M||GTX 780M||GTX 870M||GTX 770M|
|GPU Code name||Kepler||Kepler||Kepler||Kepler|
|Rated Clock||954 MHz||823 MHz||941 MHz||811 MHz|
|Memory||Up to 4GB||Up to 4GB||Up to 3GB||Up to 3GB|
|Memory Clock||5000 MHz||5000 MHz||5000 MHz||4000 MHz|
Both the GTX 880M and the GTX 870M are based on Kepler, keeping the same basic feature set and hardware specifications of their brethren in the GTX 700M line. However, while the GTX 880M has the same CUDA core count as the 780M, the same cannot be said of the GTX 870M. Moving from the GTX 770M to the 870M sees a significant 40% increase in core count as well as a jump in clock speed from 811 MHz (plus Boost) to 941 MHz.
1920x1080, 2560x1440, 3840x2160
Join us on March 11th at 9pm ET / 6pm PT for a LIVE Titanfall Game Stream! You can find us at http://www.pcper.com/live. You can subscribe to our mailing list to be alerted whenever we have a live event!!
We canceled the event due to the instability of Titanfall servers. We'll reschedule soon!!
With the release of Respawn's Titanfall upon us, many potential PC gamers are going to be looking for suggestions on compiling a list of parts targeted at a perfect Titanfall experience. The good news is, even with a fairly low investment in PC hardware, gamers will find that the PC version of this title is definitely the premiere way to play as the compute power of the Xbox One just can't compete.
In this story we'll present three different build suggestions, each addressing a different target resolution but also better image quality settings than the Xbox One can offer. We have options for 1080p, the best option that the Xbox could offer, 2560x1440 and even 3840x2160, better known as 4K. In truth, the graphics horsepower required by Titanfall isn't overly extreme, and thus an entire PC build coming in under $800, including a full copy of Windows 8.1, is easy to accomplish.
Target 1: 1920x1080
First up is old reliable, the 1920x1080 resolution that most gamers still have on their primary gaming display. That could be a home theater style PC hooked up to a TV or monitors in sizes up to 27-in. Here is our build suggestion, followed by our explanations.
|Titanfall 1080p Build|
|Processor||Intel Core i3-4330 - $137|
|Motherboard||MSI H87-G43 - $96|
|Memory||Corsair Vengeance LP 8GB 1600 MHz (2 x 4GB) - $89|
|Graphics Card||EVGA GeForce GTX 750 Ti - $179|
|Storage||Western Digital Blue 1TB - $59|
|Case||Corsair 200R ATX Mid Tower Case - $72|
|Power Supply||Corsair CX 500 watt - $49|
|OS||Windows 8.1 OEM - $96|
|Total Price||$781 - Amazon Full Cart|
Our first build comes in at $781 and includes some incredibly competent gaming hardware for that price. The Intel Core i3-4330 is a dual-core, HyperThreaded processor that provides more than enough capability to push Titanfall any all other major PC games on the market. The MSI H87 motherboard lacks some of the advanced features of the Z87 platform but does the job at a lower cost. 8GB of Corsair memory, though not running at a high clock speed, provides more than enough capacity for all the programs and applications you could want to run.
Introduction and Technical Specifications
Courtesy of SilverStone
SilverStone Technology is a well known brand in the computer component space, offering high quality solutions for everything from cases to case-mounted fan controllers and displays. Their CPU air-coolers are some of the best in the industry with the latest incarnation being part of the Argon Series. The Argon Series AR01 CPU cooler is made for optimal cooling of your Intel socket 115X or AMD-based systems, comprised of a single aluminum radiator tied to a copper base-plate via a set of copper heat pipes with a 120mm fan for heat dissipation. To prove out the performance of the AR01 unit, we tested put it up against other high-performance liquid and air-based coolers. At a retail MSRP of $34.99, the AR01 cooler has a great performance to price ratio for its cooling potential.
Courtesy of SilverStone
Courtesy of SilverStone
Its been a while...
EVGA has been around for quite some time now. They have turned into NVIDIA’s closest North American partner after the collapse of the original VisionTek. At nearly every trade show or gaming event, EVGA is closely associated with whatever NVIDIA presence is there. In the past EVGA focused primarily on using NVIDIA reference designs for PCB and cooling, and would branch out now and then with custom or semi-custom watercooling solutions.
A very svelte and minimalist design for the shroud. I like it.
The last time I actually reviewed an EVGA products was way back in May of 2006. I took a look at the 7600 GS product, which was a passively cooled card. Oddly enough, that card is sitting right in front of me as I write this. Unfortunately, that particular card has a set of blown caps on it and no longer works. Considering that the card has been in constant use since 2006, I would say that it held up very well for those eight years!
EVGA has been expanding their product lineup to be able to handle the highs and lows of the PC market. They have started manufacturing motherboards, cases, and power supplies to help differentiate their product lineup and hopefully broaden their product portfolio. We know from past experiences that companies that rely on one type of product from a single manufacturer (GPUs in this particular case) can experience some real issues if demand drops dramatically due to competitive disadvantages. EVGA also has taken a much more aggressive approach to differentiating their products while keeping them within a certain budget.
The latest generation of GTX 700 based cards have seen the introduction of the EVGA ACX cooling solutions. These dual fan coolers are a big step up from the reference design and puts EVGA on par with competitive products from Asus and MSI. EVGA does make some tradeoffs as compared, but these are fairly minimal when considering the entire package.
Low Power and Low Price
Back at CES earlier this year, we came across a couple of interesting motherboards that were neither AM3+ nor FM2+. These small, sparse, and inexpensive boards were actually based on the unannounced AM1 platform. This socket is actually the FS1b socket that is typically reserved for mobile applications which require the use of swappable APUs. The goal here is to provide a low cost, upgradeable platform for emerging markets where price is absolutely key.
AMD has not exactly been living on easy street for the past several years. Their CPU technologies have not been entirely competitive with Intel. This is their bread and butter. Helping to prop the company up though is a very robust and competitive graphics unit. The standalone and integrated graphics technology they offer are not only competitive, but also class leading in some cases. The integration of AMD’s GCN architecture into APUs has been their crowning achievement as of late.
This is not to say that AMD is totally deficient in their CPU designs. Their low power/low cost designs that started with the Bobcat architecture all those years back have always been very competitive in terms of performance, price, and power consumption. The latest iteration is the Kabini APU based on the Jaguar core architecture paired with GCN graphics. Kabini will be the part going into the FS1b socket that powers the AM1 platform.
Kabini is a four core processor (Jaguar) with a 128 unit GCN graphics part (8 GCN cores). These APUs will be rated at 25 watts up and down the stack. Even if they come with half the cores, it will still be a 25 watt part. AMD says that 25 watts is the sweet spot in terms of performance, cooling, and power consumption. Go lower than that and too much performance is sacrificed, and any higher it would make more sense to go with a Trinity/Richland/Kaveri solution. That 25 watt figure also encompasses the primary I/O functionality that typically resides on a standalone motherboard chipset. Kabini features 2 SATA 6G ports, 2 USB 3.0 ports, and 8 USB 2.0 ports. It also features multiple PCI-E lanes as well as a 4x PCI-E connection for external graphics. The chip also supports DisplayPort, HDMI, and VGA outputs. This is a true SOC from AMD that does a whole lot of work for not a whole lot of power.
Introduction and Packaging
Last October, Western Digital launched the My Cloud. This device was essentially a network connected version of their My Book line of external hard drives, but with Internet connectivity and apps that could reach back to the My Cloud even when you were away from home. One month later, WD launched the My Cloud EX4, a much beefier version which supported redundant arrays of 4 hard disks, redundant network and power, and a load of other features. There was a rather large gap in features between these two devices, as the only RAID option was more of a small business one. Today Western Digital closed that gap:
The My Cloud EX2 is essentially a My Cloud, but with dual drive bays, and a few additional features. Check out this projected trend below:
You can see there was a definite void in the 2-drive range that needed filling. With those two drives, you get a few options for redundancy or capacity+speed:
All standard RAID options for a 2-bay appliance are met here, though the vast majority of users should opt for the default RAID-1 mirrored set.
Packaging is simple here with only a power adapter, ethernet cable, and quick start guide needed.
Introduction and Technical Specifications
Courtesy of ASUS
The ASUS Maximus VI Formula is among the newest members of the Republic of Gamer (ROG) product line. From the design of its ROG Armor to its power regulation circuitry, the Maximum VI Formula takes the ASUS Z87 motherboard line to a whole new level. The Maximus VI Formula does not come cheap at an MSRP of $329.99, but it is a steal in light of all the high-end component ASUS packed under the hood.
Courtesy of ASUS
ASUS designed the Maximus VI Formula with a top notch power delivery system, featuring an 8+2-phase digital power regulation system using BlackWing chokes, NexFET MOSFETS touting 90% efficiency, and 10k-rated Black Metallic capacitors. The ASUS integrated the following features into the Maximus VI Formula's design: 10 SATA 3 ports; an M.2 (NGFF) SSD slot integrated into the ASUS mPCIe Combo II card; an Intel I217-V GigE NIC; an Intel 802.11ac Wi-Fi and Bluetooth controller integrated into the ASUS mPCIe Combo II card; three PCI-Express x16 slots for up to tri-card support; three PCI-Express x1 slots; 2-digit diagnostic LED display; on-board power, reset, CMOS clear, MemOK!, BIOS Flashback, ROG Connect, DirectKey, and BIOS switch buttons; Probelt voltage measurement points; OC Panel support; SupremeFX Formula audio solution; CrossChill Hybrid air and water cooled VRM cooling solution; ROG Armor overlay; and USB 2.0 and 3.0 port support.
Introduction, Specifications and Packaging
Intel launched their first consumer SSD more than five years ago. Their very first SSD, the X25-M, might have gotten off to a bit of a rocky start, but once the initial bugs were worked out, it proved to be an excellent example of what a 3Gb/sec SATA SSD was capable of. While the competition was using 4 or 8 flash channels, Intel ran circles around them with their 10-channel controller. It was certainly a great concept, and it most definitely had legs. The very same controller, with only minor tweaks, was able to hold its own all the way through into the enterprise sector, doing so even though the competition was moving to controllers capable of twice the throughput (SATA 6Gb/sec).
The various iterations featuring Intel's 10-channel controller, spanning the 20GB cache SSD (left), original X25M and X25-E (center), and finally X25-M G2, SSD 320, and SSD 710 (right).
While the older controller was extremely nimble, it was bottlenecked by a slower interface than the competition, who had all moved to the more modern SATA 6Gb/sec link. Intel also moved into this area, but not with their own native controller silicon. The SSD 510 launched in 2011 equipped with a Marvell controller, followed by the SSD 520, launched in 2012 with a SandForce controller. While Intel conjured up their own firmware for these models, their own older and slower controller was still more nimble and reliable than those other solutions, proven by the fact that the SSD 710, an enterprise-spec SSD using the older 10-channel controller, was launched in tandem with the consumer SSD 510.
Fast forward to mid-2013, where Intel finally introduced their own native SATA 6Gb/s solution. This controller dropped the channel count to a more standard figure of 8, and while it did perform well, it was only available in Intel's new enterprise 'Data Center' line of SSDs. The SSD DC S3500 and SSD DC S3700 (reviewed here) were great drives, but they were priced too high for consumers. While preparing that review, I remember saying how that controller would be a great consumer unit if they could just make it cheaper and tune it for standard workloads. It appears that wish has just been granted. behold the Intel SSD 730:
Introduction and Technical Specifications
Courtesy of Antec
Antec is an established company and brand-name in the computer component space, offering quality solutions for everything from cases and power supplies to thermal paste and case-mounted fan controllers. Their latest foray is into the world of liquid cooling. The KUHLER H20 1250 is their flagship liquid cooler, featuring an all-in-one dual pump design, a 240mm x 120mm x 25mm aluminum radiator, and hardware monitoring support via the integrated USB cable and the included Antec Grid software. The KUHLER H2O 1250 comes standard with support for all current Intel and AMD CPU offerings. To gage the performance of Antec's flagship cooler, we set it against several other high-performance liquid and air-based coolers. With a retail MSRP of $109.99, the KUHLER H2O 1250 cooler comes at a premium for all the premium features it has to offer.
Courtesy of Antec
The KUHLER H2O 1250 liquid cooler was designed for a single purpose, to keep your process as cool as possible. Antec includes two pumps with the unit, one integrated into each fan. The top pump pulls liquid through the radiator and pushes it to the CPU block through the radiator outlet, while the bottom pump pulls water from the CPU block through the radiator inlet and pushes it through the radiator towards the top pump.
Introduction and Design
Alongside our T440s review unit was something slightly smaller and dear to our hearts: the latest entry in the ThinkPad X series of notebooks. Seeing as this very review is being typed on a Lenovo X220, our interest was piqued by the latest refinements to the formula. When the X220 was released, the thin-and-light trend was only just beginning to pick up steam leading into what eventually became today’s Ultrabook movement. Its 2012 successor, the ThinkPad X230, went on to receive our coveted (and rarely bestowed) Editor’s Choice Award, even in spite of a highly controversial keyboard change that sent the fanbase into a panic.
But all of that has since (mostly) blown over, primarily thanks to the fact that—in spite of the minor ergonomic adjustments required to accustom oneself with what was once a jarringly different keyboard design—the basic philosophy remained the same: pack as many powerful parts as possible into a 12.5-inch case while still maintaining good durability and battery life. These machines were every bit as capable as most other 13- and 14-inch notebooks of their time, and they were considerably smaller, too. About the only thing they lacked was higher-resolution screens, discrete graphics, and quad-core CPUs.
But with the X240 (and the T440s), portability has truly taken center stage, suggesting a complete paradigm shift—however subtly—away from “powerful (and light)” and toward “light (and powerful)”. Coupled with Intel’s Haswell CPUs and Lenovo’s new Power Bridge dual-battery design, this will certainly yield great benefits in the realm of battery life. But that isn’t all that’s different: we also find a (once again) revamped keyboard, as well as a completely new touchpad design which finally dispenses with the physical buttons entirely. Like in the X230’s case, these changes have roiled the ThinkPad purists—but is it all just a matter of close-minded traditionalism? That’s precisely what we’ll discover today.
Mobile Gaming Powerhouse
Every once in a while, a vendor sends us a preconfigured gaming PC or notebook. We don't usually focus too much on these systems because so many of readers are quite clearly DIY builders. Gaming notebooks are another beast, though. Without going through a horrible amount of headaches, building a custom gaming notebook is a pretty tough task. So, for users who are looking for a ton of gaming performance in a package that is mobile, going with a machine like the ORIGIN PC EON17-SLX is the best option.
As the name implies, the EON17-SLX is a 17-in notebook that includes some really impressive specifications including a Haswell processor and SLI GeForce GTX 780M GPUs.
|ORIGIN PC EON17-SLX|
|Processor||Core i7-4930MX (Haswell)|
|Cores / Threads||4 / 8|
|Graphics||2 x NVIDIA GeForce GTX 780M 4GB|
|System Memory||16GB Corsair Vengeance DDR3-1600|
|Storage||2 x 120GB mSATA SSD (RAID-0)
1 x Western Digital Black 750GB HDD
|Wireless||Intel 7260 802.11ac|
|Screen||17-in 1920x1080 LED Matte|
|Optical||6x Blu-ray reader / DVD writer|
|Operating System||Windows 8.1|
Intel's Core i7-4930MX processor is actually a quad-core Haswell based CPU, not an Ivy Bridge-E part like you might guess based on the part number. The GeForce GTX 780M GPUs each include 4GB of frame buffer (!!) and have very similar specifications to the desktop GTX 770 parts. Even though they run at lower clock speeds, a pair of these GPUs will provide a ludicrous amount of gaming performance.
As you would expect for a notebook with this much compute performance, it isn't a thin and light. My scale tips at 9.5 pounds with the laptop alone and over 12 pounds with the power adapter included. Images of the profile below will indicate not only many of the features included but also the size and form factor.
An Upgrade Project
When NVIDIA started talking to us about the new GeForce GTX 750 Ti graphics card, one of the key points they emphasized was the potential use for this first-generation Maxwell GPU to be used in the upgrade process of smaller form factor or OEM PCs. Without the need for an external power connector, the GTX 750 Ti provided a clear performance delta from integrated graphics with minimal cost and minimal power consumption, so the story went.
Eager to put this theory to the test, we decided to put together a project looking at the upgrade potential of off the shelf OEM computers purchased locally. A quick trip down the road to Best Buy revealed a PC sales section that was dominated by laptops and all-in-ones, but with quite a few "tower" style desktop computers available as well. We purchased three different machines, each at a different price point, and with different primary processor configurations.
The lucky winners included a Gateway DX4885, an ASUS M11BB, and a Lenovo H520.
Introduction and Technical Specifications
Courtesy of SilverStone
SilverStone Technology is a well known brand name with high quality solutions in the form of everything from cases to case-mounted fan controllers and displays. They have also gone through several iterations of CPU all-in-on liquid cooling solutions with their newest models being part of the Tundra Series. The Tundra Series TD02 liquid cooler is designed to cool CPUs of any make, including the latest offering from both Intel and AMD. The cooler is comprised of a massive 2x120mm radiator attached to a copper base plate with integrated pump. To best measure the TD02's performance, we set it against several other high-performance liquid and air-based coolers. With a retail MSRP of $129.99, the TD02 comes in at the higher end of the all-in-one cooler price range.
Courtesy of SilverStone
What we know about Maxwell
I'm going to go out on a limb and guess that many of you reading this review would not have normally been as interested in the launch of the GeForce GTX 750 Ti if a specific word hadn't been mentioned in the title: Maxwell. It's true, the launch of GTX 750 Ti, a mainstream graphics card that will sit in the $149 price point, marks the first public release of the new NVIDIA GPU architecture code named Maxwell. It is a unique move for the company to start at this particular point with a new design, but as you'll see in the changes to the architecture as well as the limitations, it all makes a certain bit of sense.
For those of you that don't really care about the underlying magic that makes the GTX 750 Ti possible, you can skip this page and jump right to the details of the new card itself. There I will detail the product specifications, performance comparison and expectations, etc.
If you are interested in learning what makes Maxwell tick, keep reading below.
The NVIDIA Maxwell Architecture
When NVIDIA first approached us about the GTX 750 Ti they were very light on details about the GPU that was powering it. Even though the fact it was built on Maxwell was confirmed the company hadn't yet determined if it was going to do a full architecture deep dive with the press. In the end they went somewhere in between the full detail we are used to getting with a new GPU design and the original, passive stance. It looks like we'll have to wait for the enthusiast GPU class release to really get the full story but I think the details we have now paint the story quite clearly.
During the course of design the Kepler architecture, and then implementing it with the Tegra line in the form of the Tegra K1, NVIDIA's engineering team developed a better sense of how to improve the performance and efficiency of the basic compute design. Kepler was a huge leap forward compared to the likes of Fermi and Maxwell is promising to be equally as revolutionary. NVIDIA wanted to address both GPU power consumption as well as finding ways to extract more performance from the architecture at the same power levels.
The logic of the GPU design remains similar to Kepler. There is a Graphics Processing Cluster (GPC) that houses Simultaneous Multiprocessors (SM) built from a large number of CUDA cores (stream processors).
GM107 Block Diagram
Readers familiar with the look of Kepler GPUs will instantly see changes in the organization of the various blocks of Maxwell. There are more divisions, more groupings and fewer CUDA cores "per block" than before. As it turns out, this reorganization was part of the ability for NVIDIA to improve performance and power efficiency with the new GPU.
It wouldn’t be February if we didn’t hear the Q4 FY14 earnings from NVIDIA! NVIDIA does have a slightly odd way of expressing their quarters, but in the end it is all semantics. They are not in fact living in the future, but I bet their product managers wish they could peer into the actual Q4 2014. No, the whole FY14 thing relates back to when they made their IPO and how they started reporting. To us mere mortals, Q4 FY14 actually represents Q4 2013. Clear as mud? Lord love the Securities and Exchange Commission and their rules.
The past quarter was a pretty good one for NVIDIA. They came away with $1.144 billion in gross revenue and had a GAAP net income of $147 million. This beat the Street’s estimate by a pretty large margin. As a response, trading of NVIDIA’s stock has gone up in after hours. This has certainly been a trying year for NVIDIA and the PC market in general, but they seem to have come out on top.
NVIDIA beat estimates primarily on the strength of the PC graphics division. Many were focusing on the apparent decline of the PC market and assumed that NVIDIA would be dragged down by lower shipments. On the contrary, it seems as though the gaming market and add-in sales on the PC helped to solidify NVIDIA’s quarter. We can look at a number of factors that likely contributed to this uptick for NVIDIA.
Straddling the R7 and R9 designation
It is often said that the sub-$200 graphics card market is crowded. It will get even more so over the next 7 days. Today AMD is announcing a new entry into this field, the Radeon R7 265, which seems to straddle the line between their R7 and R9 brands. The product is much closer in its specifications to the R9 270 than it is the R7 260X. As you'll see below, it is built on a very familiar GPU architecture.
AMD claims that the new R7 265 brings a 25% increase in performance to the R7 line of graphics cards. In my testing, this does turn out to be true and also puts it dangerously close to the R9 270 card released late last year. Much like we saw with the R9 290 compared to the R9 290X, the less expensive but similarly performing card might make the higher end model a less attractive option.
Let's take a quick look at the specifications of the new R7 265.
Based on the Pitcairn GPU, a part that made its debut with the Radeon HD 7870 and HD 7850 in early 2012, this card has 1024 stream processors running at 925 MHz equating to 1.89 TFLOPS of total peak compute power. Unlike the other R7 cards, the R7 265 has a 256-bit memory bus and will come with 2GB of GDDR5 memory running at 5.6 GHz. The card requires a single 6-pin power connection but has a peak TDP of 150 watts - pretty much the maximum of the PCI Express bus and one power connector. And yes, the R7 265 supports DX 11.2, OpenGL 4.3, and Mantle, just like the rest of the AMD R7/R9 lineup. It does NOT support TrueAudio and the new CrossFire DMA units.
|Radeon R9 270X||Radeon R9 270||Radeon R7 265||Radeon R7 260X||Radeon R7 260|
|GPU Code name||Pitcairn||Pitcairn||Pitcairn||Bonaire||Bonaire|
|Rated Clock||1050 MHz||925 MHz||925 MHz||1100 MHz||1000 MHz|
|Memory Clock||5600 MHz||5600 MHz||5600 MHz||6500 MHz||6000 MHz|
|Memory Bandwidth||179 GB/s||179 GB/s||179 GB/s||104 GB/s||96 GB/s|
|TDP||180 watts||150 watts||150 watts||115 watts||95 watts|
|Peak Compute||2.69 TFLOPS||2.37 TFLOPS||1.89 TFLOPS||1.97 TFLOPS||1.53 TFLOPS|
The table above compares the current AMD product lineup, ranging from the R9 270X to the R7 260, with the R7 265 directly in the middle. There are some interesting specifications to point out that make the 265 a much closer relation to the R7 270/270X cards than anything below it. Though the R7 265 has four fewer compute units (which is 256 stream processors) than the R9 270. The biggest performance gap here is going to be found with the 256-bit memory bus that persists; the available memory bandwidth of 179 GB/s is 72% higher than the 104 GB/s from the R7 260X! That will definitely improve performance drastically compared to the rest of the R7 products. Pay no mind to that peak performance of the 260X being higher than the R7 265; in real world testing that never happened.
The Mini ITX Surge Continues
For years now the enthusiast crowd has been clamoring for Corsair to bring its case building prowess down to the Mini ITX market and with the Obsidian 250D it has done just that. By combining the design features that have make Corsair's units so popular with the aesthetic touches of the most recent Obsidian lineup, the 250D is an interesting and combination of size and performance.
The Corsair 250D is unlike most other Mini ITX designs out today in that it supports a lot of full size components. You'll be able to use a standard ATX power supply, many self contained water coolers, full size graphics card and won't have to suffer through the most painful cable routing aspects of other small form factor cases.