Moblin v1.0's user interface
Moblin's new user interface
Looks interesting!
Introducing the Intel® Core™2 Quad processor for desktop PCs, designed to handle massive compute and visualization workloads enabled by powerful multi-core technology. Providing all the bandwidth you need for next-generation highly-threaded applications, the latest four-core Intel Core 2 Quad processors are built on 45nm Intel® Core™ microarchitecture enabling faster, cooler, and quieter desktop PC and workstation experiences.
Plus, with optional Intel® vPro™ technology, you have the ability to remotely isolate, diagnose, and repair infected desktop and mobile workstations wirelessly and outside of the firewall, even if the PC is off, or the OS is unresponsive.
Gain access, share ideas, and discuss hot industry topics with leaders in the IT community on Intel's Open Port.
With four processing cores, up to 12MB of shared L2 cache¹ and 1333 MHz Front Side Bus the Intel Core 2 Quad desktops processor delivers amazing performance and power efficiency enabled by the all new hafnium-based circuitry of 45nm Intel Core microarchitecture.
Whether you're encoding, rendering, editing, or streaming HD multimedia in the office or on the go, power your most demanding applications with notebooks and desktops based on the Intel Core 2 Quad processor.
Plus, with these processors you get great Intel® technologies built in²:
Intel® Wide Dynamic Execution, enabling delivery of more instructions per clock cycle to improve execution time and energy efficiency
Intel® Intelligent Power Capability, designed to deliver more energy-efficient performance
Intel® Smart Memory Access, improving system performance by optimizing the use of the available data bandwidth
Larger Intel® Advanced Smart Cache, optimized for multi-core processors, providing a higher-performance, more efficient cache subsystem.
Intel® Advanced Digital Media Boost, accelerating a broad range of multimedia, encryption, scientific and financial applications by significantly improving performance when executing Intel® Streaming SIMD Extension (SSE/SSE2/SSE3) instructions.
Intel® HD Boost³, implementing new Intel® Streaming SIMD Extension 4 (Intel SSE4) instructions for even greater multimedia performance and faster high definition video editing and encoding.
Intel® Virtualization Technology (Intel® VT)², enabling greater security, manageability, and utilization.
Future ready, designed to perform in highly threaded programs with powerful Intel® multi-core technology.
Sam Symons on 19 June 2009 - 23:25, updated 21 June 2009 - 06:26 · 50 comments & 12068 views
Conquer the world of extreme gaming with the fastest performing processor on the planet: the Intel® Core™ i7 processor Extreme Edition.¹ With faster, intelligent multi-core technology that accelerates performance to match your workload, it delivers an incredible breakthrough in gaming performance.
But performance doesn't stop at gaming. You'll multitask 25 percent faster and unleash incredible digital media creation with up to 79 percent faster video encoding and up to 46 percent faster image rendering, plus incredible performance for photo retouching and editing.¹
In fact, you'll experience maximum performance for whatever you do, thanks to the combination of Intel® Turbo Boost technology² and Intel® Hyper-Threading technology (Intel® HT technology)³, which activates full processing power exactly where and when you need it most.
Intel Core i7 processors deliver an incredible breakthrough in quad-core performance and feature the latest innovations in processor technologies:
Processor NumberΔ | Intel® Smart Cache | Clock Speed | Intel® Quick Path Interconnect Speed | Memory Type/Speed | Integrated Memory Controller | Intel® Hyper-Threading Technology± | Quad Core | Intel® 64Φ |
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i7-975 | 8 MB | 3.33 GHz | 6.4 GT/s | DDR3 800/1066 MHZ | 3 Channels, 2 Dimms/Ch | |||
i7-965 | 8 MB | 3.20 GHz | 6.4 GT/s | DDR3 800/1066 MHZ | 3 Channels, 2 Dimms/Ch |
♦ Enabling Intel® Turbo Boost Technology (Intel® TBT) requires a PC with a processor with Intel TBT capability. Intel TBT performance varies depending on hardware, software and overall system configuration. Check with your PC manufacturer on whether your system delivers Intel TBT. For more information, see: www.intel.com/technology/turboboost.
± Intel® Virtualization Technology (Intel® VT), Intel® Trusted Execution Technology (Intel® TXT), and Intel® 64 architecture require a computer system with a processor, chipset, BIOS, enabling software and/or operating system, device drivers and applications designed for these features. Performance will vary depending on your configuration. Contact your vendor for more information.
° Enabling Execute Disable Bit functionality requires a PC with a processor with Execute Disable Bit capability and a supporting operating system. Check with your PC manufacturer on whether your system delivers Execute Disable Bit functionality.
Φ 64-bit computing on Intel® architecture requires a computer system with a processor, chipset, BIOS, operating system, device drivers, and applications enabled for Intel® 64 architecture. Processors will not operate (including 32-bit operation) without an Intel 64 architecture-enabled BIOS. Performance will vary depending on your hardware and software configurations. Consult with your system vendor for more information.
Δ For more information on Intel® processor numbers, go to www.intel.com/products/processor_number/index.htm.
Form factor | ATX (12.00 inches by 9.60 inches [304.80 millimeters by 243.84 millimeters]) |
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Audio | Intel® High Definition Audio subsystem in the following configuration:
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ATI CrossFire* multi-GPU platform support |
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I/O control | I/O controller for Consumer IR |
LAN support | Gigabit (10/100/1000 Mbits/sec) LAN subsystem using the Intel® 82566DC Gigabit Ethernet Controller |
Peripheral interfaces |
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Expansion capabilities |
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Microsoft Windows Vista* Premium ready | With a PC built with Intel® Core™2 Duo or Intel® Core™2 Quad processors, and the Intel® Desktop Board, you can experience a more responsive and manageable environment of Microsoft Windows Vista* including a new visual sophistication of the Microsoft Windows Aero* interface. |
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Experience ultimate gaming with Intel® Desktop Board DX48BT2.
The ground-breaking Intel® Dual Socket Extreme Desktop Platform is the first dual socket desktop board from Intel, the world leader in silicon innovation. With dual CPU capability that provides up to 8 core processing, the Intel® Desktop Board D5400XS delivers unmatched performance for advanced digital media creation and editing.
The platform also delivers heart-pounding performance for multi-core enabled game titles, particularly in a multi-tasking environment where simultaneous applications need maximum processing power.
File Type/Size: PDF 1709KB
Form Factor | Extended ATX (eATX) (12.00 inches by 13 inches [304.80 millimeters by 330.2 millimeters]) |
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Audio | Intel® High Definition Audio subsystem in the following configuration:
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Nvidia SLI* and ATI CrossFire* multi-GPU platform support | Nvidia SLI and ATI CrossFire technology enables two graphics cards to work together for ultimate 3D gaming performance and visual quality |
I/O control | I/O controller for Consumer IR |
LAN support | Gigabit (10/100/1000 Mbits/sec) LAN subsystem |
Peripheral interfaces |
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Expansion capabilities |
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Microsoft Windows Vista Premium* Ready | With a PC built with Intel® processors and an Intel® Desktop Board, you can experience a more responsive and manageable environment of Microsoft Windows Vista including a new visual sophistication of the Microsoft Windows Aero* interface. |
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Heart-pounding performance for the latest generation of multi-threaded gaming..
SANTA CLARA, Calif., May 11, 2009 – Further advancing mobile WiMAX worldwide, Acer Inc. (TSE: 2353) has joined the Open Patent Alliance (OPA), a group dedicated to offering intellectual property rights (IPR) solutions that support the development and widespread adoption of WiMAX. The first global PC OEM board member, Acer will help the proliferation of WiMAX technology, devices and applications around the world.
The OPA was formed in June 2008 by members of the WiMAX ecosystem. Acer joins current OPA members Alcatel-Lucent, Alvarion, Cisco, Clearwire, Huawei Technologies, Intel Corporation, and Samsung Electronics to foster an ecosystem focused on broader choice and competitive equipment and service costs for WiMAX technology, devices and applications globally.
"We are proud to welcome Acer to the OPA. Adding their voice further strengthens the support for an innovative and open WiMAX ecosystem," said OPA President Yung Hahn. "Taking a collaborative approach to IPR issues, the OPA can continue to foster greater WiMAX innovation, collaboration and competition. The OPA is excited to expand the reach of the 4G WiMAX ecosystem to include non-traditional companies like Acer – a leading innovator on the cusp of the computing/cellular convergence revolution."
Today, Acer offers several embedded-WiMAX notebooks and netbooks from the Acer Aspire and Acer TravelMate lines around the world.
"Acer has focused on delivering state-of-the-art, innovative PCs to consumers since 1976," said Jim Wong, senior corporate vice president and president of IT Products Global Operations, Acer. "Consumers today want longer battery life, thin and light, innovative form factors with great processing and communications technology at affordable price. As the first global PC OEM to join the Open Patent Alliance, we hope to lead the charge in bringing several devices that harness the power of WiMAX wireless broadband technology to the hands of consumers worldwide."
For more information, visit the OPA Web site at www.openpatentalliance.com.
About Acer
Since its founding in 1976, Acer has constantly pursued the goal of breaking the barriers between people and technology. Focused on marketing its brand-name IT products around the globe, Acer ranks as the world's No. 3 vendor for total PCs and No. 2 for notebooks, with the fastest growth among the top-five players. A profitable and sustainable Channel Business Model is instrumental to Acer's continued growth, while the successful mergers of Gateway and Packard Bell complete the company's global footprint by strengthening its presence in the U.S. and enhancing its strong position in Europe. The Acer Group employs more than 6,000 people worldwide. 2008 revenues reached US$16.65 billion. See www.acer.com for more information.
Maximum everything. Energy-efficient performance. Multimedia power.
Intel® Core™ 2 Duo desktop processors With Intel Core 2 Duo desktop processor, you'll experience revolutionary performance, unbelievable system responsiveness, and energy-efficiency second to none. Big, big performance. More energy efficient.¹ Now available in smaller packages. The Intel Core 2 Duo processor-based desktop PC was designed from the ground up for energy efficiency, letting you enjoy higher performing, ultra-quiet, sleek, and low power desktop PC designs. Multitask with reckless abandon. Do more at the same time, like playing your favorite music, running virus scan in the background, and all while you edit video or pictures. The powerful Intel Core 2 Duo desktop processor provides you with the speed you need to perform any and all tasks imaginable. Love your PC again. Don’t settle for anything less than the very best. Find your perfect desktop powered by the Intel Core 2 Duo processor and get the best processing technology money can buy. Only from Intel.
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¹ Performance measured Intel® Core™2 Duo desktop processors compared to Intel® Pentium® D processor 805 on SPECint*_base2000 and SPECint*_rate_base2000 (2 copies). Actual performance may vary. See www.intel.com/performance for more information.
Δ Intel® processor numbers are not a measure of performance. Processor numbers differentiate features within each processor family, not across different processor families. See www.intel.com/products/processor_number/ for details.
Intel's first next processors based on its next-generation 'Nehalem' architecture are due to appear a year from now, in Q4 2008. But the really interesting models will arrive during the first half of 2009: desktop and mobile CPUs with integrated graphics cores.
The chip giant's roadmap currently has the first Nehalems, codenamed 'Bloomfield', coming on stream late next year and targeting gaming PCs, just as this month introduction of the first Core 2 Extreme 'Penryn' processors did. Like Penryn, Nehalem is designed to fabbed using a 45nm process.
Bloomfield's speeds are not yet known, but it's expected to use a new, 1366-pin interconnect. As we've reported before, that forms the basis for the CPU's QuickPath bus, which links its four cores - each, don't forget, including HyperThreading (HT) technology to allow them to operates as two cores for a total of eight - to three channels of DDR 3 memory, according to a report on Japanese-language site PCWatch.
The gaming chip has 8MB of shared L2 cache and connects to the 'Tylersburg' ancillary chip, which provides a route through to the ICH10 I/O chip and the PCI Express 2.0 bus, where the graphics card will sit.
Bloomfield appears to be something of a stop-gap product, because roadmaps seen by PCWatch show a follow-up part, 'Lynnfield', due in H1 2009. It cuts the interconnect down to 1160 LGA pins and the adoption of PCI Express as the chip-to-chip bus.
Lynnfield is a quad-core part, again with HT to allow it to operate as eight cores, and with 8MB of L2. It too supports DDR 3, but only in a dual-channel configuration, the report indicates. The CPU's on-board PCI Express controller allows it to link directly to a x16 graphics card, while its I/O chip, 'Ibexpeak', connects by DMI (Direct Media Interface).
The same architecture will be used by 'Cleaksfield/Clarksfield' - there's some confusion over the name - the Nehalem-era mainstream quad-core part. However, this chip uses a 989-pin rPGA interconnect.
So too wil 'Auburndale', while is said to be a mobile chip, implying that Cleaksfield/Clarksfield is too. Auburndale is a dual-core product - HyperThreading makes it appear as a quad-core chip to the operating system - with 4MB of L2 and dual-channel DDR 3 support.
Like Cleaksfield/Clarksfield it will use PCI Express as its system bus to connect to a discrete GPU. But this will be optional: Auburndale will sport an integrated GPU of its own, along with a directly connected video memory buffer.
Once again, Ibexpeak provides the I/O, over a DMI link.
There'll be a desktop version of Auburndale, codenamed 'Havendale', which will use the same LGA1160 interconnect as Lynnfield.
Then, in H2 2009, Intel will introduce 32nm die-shrink versions of these processors, all based on the 'Westmere' architecture.
AMD's Fusion processor, which likewise integrates multiple cores, specialist chippery and, potentially, GPUs all on the same processor die, is also due to debut in 2009. Earlier this year, AMD said the first Fusion processors would be mobile chips.
After weeks of nothing but bad news from the semiconductor market, Intel's investment announcement and roadmap updates on Tuesday were a welcome blast of fresh air. Company executives acknowledged the state of the economy, but took the opportunity to affirm the manufacturer's commitment to investment and innovation over the long term. In this case, Intel wasn't just talking—the company plans to accelerate the ramp of its 32nm process, bringing it to market more rapidly than originally anticipated. Roadmap goodness awaits.
The 32nm version of Nehalem that's coming down the pipe is codenamed Westmere; it's the "tick" of Intel's tick/tock process where "ticks" are die shrinks and "tocks" are new microarchitectures. Originally—and as recently as CES—Intel was planning to launch a series of 45nm mainstream desktop and mobile processors in the second half of 2009. On the desktop, we had Lynnfield (quad-core, octal threaded) and Havendale (dual-core, quad-threaded); the mobile parts were Clarksfield (quad-core, octal-threaded) and Auburndale (dual-core, quad-threaded, on-package integrated graphics).
Of those four, two of them—Havendale and Auburndale—are being "deprioritized," to use Intel's terminology.
The Extreme platform at the highest end of the desktop doesn't change much; the new information here is that Intel will, at some point, launch a 32nm "Gulftown" hexacore processor. Technically, Gulftown will still use the same X58 Express chipset; time will tell if that translates into compatibility with present X58 Express motherboards.
Lynnfield is still queued for a launch in the second half of 2009 but 45nm Havendale has been replaced by 32nm Clarkdale. If you had your eye on a dual-core Core i7 (with or without integrated GPU), this is actually something of a disappointment; Clarkdale and its mobile cousin Arrandale will enter production by the fourth quarter of 2009 but probably won't ship in volume until Q1 2010.
Ironically, Intel's decision to bring 32nm technology to market more quickly could leave some customers (and I'm betting a few Ars readers) grumbling. Anyone with an eye on Lynnfield (desktop quad-core) is safe; nothing here has changed. Similarly, if you want a Clarksfield-sized desktop-replacement sort-of notebook (quad-core mobile), you'll see a part to fit your needs at some point in the second half of 2009. If, however, you were gunning for a 45nm integrated GPU + dual-core in either a desktop or a laptop form factor, Intel's acceleration is most likely your delay. There's still a chance we might see 45nm dual-core Nehalem in desktop or mobile, but Intel believes its 32nm technology is strong enough to render the products unnecessary.
One of the advantages to waiting for Westmere before launching an integrated CPU+GPU is that it gives Intel substantially more real estate to play with. According to the details the company shared today, the first "fusion" products will combine a 32nm dual-core processor with a 45nm GPU + integrated memory controller (IMC). You're reading correctly: Intel's design calls for the integration of GPU and memory controller; the CPU connects to this pairing via a single Quick Path Interconnect link. (No word yet on that link's speed or width). Intel has always discussed Nehalem as a combination of "core" and "uncore" components, with the memory controller in the latter category, so this move isn't the result of any technological voodoo. A discussion of how efficiently the CPU, GPU, and IMC are able to communicate will have to wait until we know more.
One of the points the manufacturer emphasized is that the same physical socket—presumably LGA1156—will support both quad-core and dual-core + graphics processors. The in-socket GPU will utilize up to two channels of DDR3 memory and is capable of switching to a discrete GPU solution. Upgrading the video card on a dual-core Core i3 (or whatever) should be no more difficult than upgrading the GPU on a current-generation integrated system.
The GPU itself will be a die-shrunk version of the company's GMA X4500 series of products. Intel wasn't providing or didn't have additional details on the part, but indicated we could expect in-line improvements commensurate with a die shrink and power consumption reduction. Based on Intel's past history, that likely translates into a higher clockspeed and maybe a new unified shader processor or two. Hopefully the company will make full HD decode support standard across all of its future fusion processors.
Intel will lead with the Tylersburg-EP platform through 2009, accompanied by its Nehalem-EP processor. We'll see a Lynnfield-based Xeon offering in the Xeon 3000 series (Lynnfield is dual-channel, Nehalem-EP is triple), and a client-branded Clarkdale (dual-core) product once that CPU launches. In the second half of 2009, we'll see octal-core Nehalem-EX and its accompanying Boxboro platform. Both the Boxboro and Tylersburg platforms will be compatible with the upcoming 32nm processors. No word here on Foxhollow or Lynnfield, but Intel seems to plan to keep its desktop Nehalem chips on 45nm for a while after it transitions more power-sensitive segments.
Good news is especially welcome at a time like this. Intel's announcements and updates aren't going to rejuvenate the market, but the company's anticipation of a successful 32nm ramp and a strong future for its products are an important reminder that there will eventually be a light at the end of this particular chamber.
Some of you are undoubtedly none too happy about Intel's decision to delay its mobile Nehalem launch and there's no denying that the company's 32nm acceleration could also be seen as a tacit admission that it either needs more time to clear Penryn inventories or is concerned that demand won't materialize for these parts by the fall of 2009. No matter the reason, Intel does have a plausible technical argument for holding back; Clarkdale and Arrendale will likely be more attractive than any Havendale/Auburndale counterparts the company might have offered.
Intel can afford to take its time with Core i7. AMD's Shanghai, as great a step as it is for that company, largely competes with Penryn. So long as Core 2 Duo technology is viable across the market, Intel will be free to set its own timetable. In this case, that timetable should result in a better class of notebooks, desktops, and even energy-efficient servers. Not a bad trade.