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Showing posts with label HD4000. Show all posts
Showing posts with label HD4000. Show all posts

Monday, 23 April 2012

Intel puts Ivy Bridge on the map: first 22nm product, decent official benchmarks, desktop quad-cores from $174

Intel puts Ivy Bridge on the map
We hear that pilgrims have already started flocking to the town of Ivy bridge (population 12,056) in the forested depths of southwest England. Very soon though, you'll be able to pay homage to Moore's law without travelling further than your favorite online retailer, because the third generation of Intel Core processors has just launched and should be available to buy before the end of this month. These include eight different variants of Core i7 for desktops and notebooks (including Ultrabooks of course), plus five types of Core i5 destined for desktops only. Those watching out for cheaper dual-core i5, i3 and Pentium-branded options will have to wait a little longer, because today's launch is all about the high-end. And just how high is 'high'? Judging from the gossip we've heard, and from benchmarks of leaked desktop and notebook chips, we're looking a significant improvement over Sandy Bridge. But if you want the first official boasts, then read on.


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Ivy Bridge is a loud 'tick' in Intel's product cycle, with a much smaller 22nm fabrication process instead of the 32nm silicon found in Sandy Bridge (a tock) and Westmere (the previous tick, back in 2010). Stare at your fingernail for 22 seconds and you'll see it grow by the size of one transistor -- a world first for a mass-produced chip, according to Intel. To pack more into the same space, the transistors benefit from a 3D or tri-gate design, which means they're arranged over fins that protrude from the surface of the silicon base rather than just lying flat.
Having smaller, lumpier transistors doesn't necessarily translate into radically different performance, and indeed Intel is making quite modest claims in that department: e.g., up to eight percent improvement in the Core i7-3820QM compared to the i7-2860QM running the SYSmark benchmark, or up to 22 percent improvement when running a multi-threaded application like Cinebench. On the other hand, shrinking the silicon does make it more energy efficient, which bodes well for the battery life of Ultrabooks and Macbooks everywhere, and it also frees up space for Intel to pack more technology on each chip.
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The main beneficiary of that extra room is the integrated graphics. In those chips which have superior HD 4000 hardware, the GPU component will now occupy around a third of the chip's 160mm2 die size. Sandy Bridge's HD 3000 graphics were pretty good for many tasks, and could readily handle a bit of Medieval 2, but they weren't up to modern 3D gaming and they were outclassed by the Radeon HD visuals on AMD's Fusion chips. Intel claims the fattened-up HD 4000 will deliver a minimum 50 percent improvement in 3D performance and will play 100 percent of recent games out of the box -- though it didn't specify frame rates or graphical settings, so we're not exactly sure how to interpret that. Chips with HD 2500 graphics should be 10 to 20 percent superior to HD 2000, and all the new chips will support DX11, OpenCL v1.1 (which allows use of the GPU and the CPU for compute tasks) and OpenGL 3.1. That said, Intel was keen not to overplay gaming prowess in our briefing, acknowledging that "the majority of high-end gamers will still use discrete graphics."
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If you're more into multimedia than gaming as such, then there are couple of nuggets here for you too: Quick Sync accelerated video encoding will get a 50 to 80 percent bump, while support has also been added for Handbrake, the open source video transcoder.
Once you get past the main CPU and GPU improvements, you're down to a long shopping list of much smaller upgrades such as onboard USB 3.0 support, PCIe 3.0, triple display support and improved overclocking, the usefulness of which will depend on your habits. Check out the Intel slide below for more detail.
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That's it! And the best thing is that Intel is giving you all of this stuff while asking nothing in return, except at least $174 for a Core i5 desktop chip and at least $278 for a desktop i7. We're missing complete pricing for the mobile chips, but the top-end notebook i7 processors will start at $378 (for the i7-3720QM) and rise to $1096 for the maximum spec i7-3920XM. If you're getting a desktop chip for your own build, you'll probably want to budget for a new Series 7 motherboard to go with it, although very recent Series 6 boards should also be able to host an Ivy Bridge chip if they have the right firmware -- the socket is still LGA 1155.

Via engadget.com

Intel 22nm Technology

INTRODUCING THE WORLD'S FIRST 3-D TRANSISTOR READY FOR HIGH-VOLUME MANUFACTURING

intel
3-D, 22nm: New Technology Delivers An Unprecedented Combination of Performance and Power Efficiency

Intel introduces a fundamentally different technology for future microprocessor families: 3-D transistors manufactured at 22nm. These new transistors enable Intel to continue to relentlessly pursue Moore's Law and to ensure that the pace of technology advancement consumers expect can continue for years to come.
Until now, transistors, the core of microprocessors, were 2-D (planar) devices. Intel's 3-D Tri-Gate transistor, and the ability to manufacture it in high volume, mark a dramatic change in the fundamental structure of the computer chip. Learn more about the history of transistors.
This also means Intel can continue to lead in powering products, from the world's fastest supercomputers to very small mobile handhelds.

Smaller is Better

Transistor size and structure are at the very center of delivering the benefits of Moore's Law to the end user. The smaller and more power efficient the transistor, the better. Intel continues to predictably shrink its manufacturing technology in a series of "world firsts": 45nm with high-k/metal gate in 2007; 32nm in 2009; and now 22nm with the world's first 3-D transistor in a high volume logic process in 2011.
With a smaller, 3-D transistor, Intel can design even more powerful processors with incredible power efficiency. The new technology enables innovative microarchitectures, System on Chip (SoC) designs, and new products–from servers and PCs to smart phones, and innovative consumer products.

Transistors in the 3rd Dimension

Intel's 3-D Tri-Gate transistor uses three gates wrapped around the silicon channel in a 3-D structure, enabling an unprecedented combination of performance and energy efficiency. Intel designed the new transistor to provide unique ultra-low power benefits for use in handheld devices, like smart phones and tablets, while also delivering improved performance normally expected for high-end processors.

Enabling Processor Innovation

The new transistors are so impressively efficient at low voltages they allow the Intel® Atom™ processor design team to innovate new architectural approaches for 22nm Intel® Atom™ microarchitecture. The new design specifically maximizes the benefit of the extremely low-power 3-D Tri-Gate transistor technology. And, Intel's future SoC products based on the 22nm 3-D Tri-Gate transistors will hit sub 1 mW idle power—for incredibly low-power SoCs.

Intel Continues to Lead, Users Continue to Benefit

Intel microprocessor manufacturing based on 22nm, 3-D transistor technology is slated for high-volume production readiness by the end of 2011. Intel demonstrated a computer using a microprocessor code-named Ivy Bridge, which is the first high-volume chip that will use 3-D transistors.
As Intel continues its product leadership for servers, PCs, laptops, and handheld devices with 22nm 3-D transistor technology, consumers and businesses should expect faster computing and graphics, and longer battery life in a variety of sleek form factors.


Via intel.com

Η Intel παρουσιάζει και επίσημα τη νέα γενιά επεξεργαστών Ivy Bridge

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H Intel ανακοίνωσε και επίσημα την νέα σειρά επεξεργαστών Ivy Bridge με την αρχιτεκτονική των 22-nanometer προσφέροντας για αρχή δεκατρείς quad-core επεξεργαστές σε παραλλαγές των Core i5 και i7 με κύριο στόχο τους επιτραπέζιους υπολογιστές και τα μεγάλα notebooks. Οι επεξεργαστές dual-core και χαμηλότερης κατανάλωσης ULV αναμένονται αργότερα την Άνοιξη.
Η εταιρεία σημειώνει ότι οι Ivy Bridge έχουν περίπου 20 τοις εκατό καλύτερη απόδοση και 20 τοις εκατό λιγότερη κατανάλωση σε σχέση με τους  τωρινούς Sandy Bridge κάτι που επιτυγχάνεται εν μέρει χάριν στην μετάβαση σε 3D transistors που επιτρέπει έναν μοναδικό συνδυασμό επιδόσεων και ενεργειακής απόδοσης. Σημαντική βελτίωση, επίσης, παρατηρείται στην ενσωματωμένη κάρτα γραφικών HD2500 και HD4000 αφού η τελευταία μπορεί και χειρίζεται άνετα αναλύσεις 4K και παιχνίδια τελευταίας γενιάς με ικανοποιητική λεπτομέρεια. Τέλος, οι Ivy Bridge είναι η πρώτη αρχιτεκτονική της Intel που υποστηρίζει εγγενώς το πρότυπο USB 3.0 για μεγαλύτερες ταχύτητες και δεν απαιτεί controller τρίτου κατασκευαστή.

Η σταδιακή κυκλοφορία των Ivy Bridge αναμένεται να εγκαινιάσει και το λανσάρισμα νέων υπολογιστών από όλους τους μεγάλους κατασκευαστές, όπως HP, Lenovo, Samsung και Apple. Μερικοί αναλυτές εκτιμούν ότι θα υπάρξει περιορισμένη διαθεσιμότητα τουλάχιστον τον πρώτο καιρό εξαιτίας της υψηλής ζήτησης που αποτελεί κυρίως απόρροια της καθυστερημένης παρουσίασής τους.

Via techgear.com