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Showing posts with label Processors. Show all posts
Showing posts with label Processors. Show all posts

Sunday, 11 September 2016

64 core processor from Chinese chip maker Phytium

While the world awaits the AMD K12 and Qualcomm Hydra ARM server chips to join the ranks of the Applied Micro X-Gene and Cavium ThunderX processors already in the market, it could be upstart Chinese chip maker Phytium Technology that gets a brawny chip into the field first and also gets traction among actual datacenter server customers, not just tire kickers.

Phytium Technology has announced a 64-core ARM server CPU, which according to the press release will deliver 512 gigaflops of performance. The new chip, known as FT-2000/64, is aimed at “high throughput and high performance servers.”

Phytium is a chip design enterprise, based in Tianjin, China. In March 2015, the company released its first products: the FT-1500A/4 and FT-1500A/16, 4-core and 16-core implementations, respectively of the ARMv8 design.

Phytium was on hand at last week’s Hot Chips 28 conference, showing off its chippery and laptop, desktop and server machines employing its “Earth” and “Mars” FT series of ARM chips. Most of the interest that people showed in the server variants, which are both based on variants of the “Xiaomi” core design that the company has cooked up based on ARMv8 intellectual property licensed from ARM Holdings. There is chatter that one of the three Chinese exascale machines, which we wrote about here, will employ a future Phytium processor, but we were unable to confirm this with the Phytium executives at the event. What we can tell you is that the first engineering samples of the two Earth ARM chips, the FT-1500A/4 and the FT-1500A/16, as well as the one Mars ARM chip, the FT-2000/64, are back from Taiwan Semiconductor Manufacturing Corp and that we saw systems running the Kylin Linux operating system (a variant of Canonical’s Ubuntu) at the Hot Chips event.

Here are the key chip features from the FT-2000/64 product page: 

  • Process:Manufacturing with 28nm process
  • Core:Integrating sixty-four FTC661 cores
  • Frequency:Running at 1.5GHz~2.0GHz
  • Cache:Integrating 32MB L2 cache and extending 128MB LLC
  • Extension Interface:Integrating eight proprietary extension interfaces, each delivering 19.2GB/s effective r/w bandwidth
  • Memory Interface:Extending sixteen DDR3-1600 memory controllers, which can deliver 204.8GB/s memory access bandwidth.
  • I/O Interface:Integrating two x16 or four x8 PCIE Gen3 interface
  • Power:Max. power 100W
  • Package:FCBGA package with 2892 pins
No pricing was provided on the new chips, and it’s unclear from the press release if the product is available today. The next time we hear about the FT-2000/64 might very well be when it shows up in a TOP500 supercomputer. Stay tuned.

Monday, 4 July 2016

The World's First 1,000 Processor Chip ( KiloCore Chip )

A team of scientists from the University of California has created the world's first microchip with 1,000 independent processors. Called 'KiloCore' chip, it is also claimed to be the world's fastest chip ever designed at a university. The chip, which was presented this week at the 2016 Symposium on VLSI Technology and Circuits, is capable of 1.78 trillion instructions per second and contains 621 million transistors. The partially Department of Defense-funded KiloCore chip was ultimately built by IBM using existing 32 nanometer semiconductor fabrication technology.

Unfortunately, a 1,000 core chip isn't something that could just be plugged into the next line of MacBook Pros. It wouldn't even really suffice as a graphics processor, where massively parallel computation is the norm. In fact, many GPUs exceed the 1,000 cores of the UC Davis chip, but with the caveat that the individual cores are directed according to a central controller. The KiloCore, by contrast, is built from completely independent cores capable of running completely independent computer programs.

Here's all you need to know about the chip:
  • This microchip has been designed by a team at the University of California, Davis, Department of Electrical and Computer Engineering.
  • KiloCore chip executes instructions more than 100 times more efficiently than a modern laptop processor.
  • Each processor core can run its own small program independently of the others, which is a fundamentally more flexible approach than the Single-Instruction-Multiple-Data approaches utilized by processors such as graphics processing unit (GPU). Because each processor is independently clocked, it can shut itself down to further save energy when not needed.
  • The chip has been fabricated by IBM using its 32nm CMOS technology. KiloCore's each processor core can run its own small program independently of the others.
  • Cores operate at an average maximum clock frequency of 1.78 GHz, and they transfer data directly to each other rather than using a pooled memory area that can become a bottleneck for data.

The independence of the cores makes the KiloCore chip a multiple instruction multiple data (MIMD) computer. This is in contrast to the more typical single instruction multiple data (SIMD) variety of parallel computation, as would be expected in a graphics processor. A SIMD machine's version of parallelism is to implement the same single operation across many different cores - that is, do the same thing to many different units of data. This is the norm in image processing, for example, where a lot of different pixels holding different a lot of different values are all updated in the same way. A MIMD machine can be expected to do much more complex calculations.

Together, the 1,000 processors can execute 115 billion instructions per second while dissipating only 0.7 Watts. As noted in a UC Davis press release, this power requirement is low enough that it could be supplied by a single AA battery, achieving an efficiency of around 100 times that of a normal laptop processor.


The energy savings here largely has to do with the abandoning of the traditional system memory architecture, in which data for multiple cores is stored in a central RAM unit. Rather than sharing data in this way, the KiloCore chip uses a built-in networking scheme in which data is transferred directly between the different processors using packet- and circuit-switched networking.

Wednesday, 2 September 2015

Intel's Skylarke Processors for PCs, Tablets and Servers

Intel is launching a full portfolio of "Skylake" processors that company officials expect will combine with Microsoft's Windows 10 operating system to help jump start a stagnant global PC market.

Executives with the chip maker for more than a year have been talking about the 14-nanometer Skylake architecture and the advanced features that are contained within it, touching on everything from graphics and imaging to security, memory, performance and wireless connectivity. In early August, Intel rolled out two Skylake chips—the Core i7-6700K and i5-6600K desktop processors—for gaming machines, and later in the month officials gave out a few more details during the Intel Developer Forum (IDF).

While Intel Corp. is going to release its code-named “Skylake” processors a little later than expected, the company keeps the plan to introduce its new micro-architecture for virtually all segments of the market continuum this year. Intel will roll-out “Skylake” central processing units for tablets, 2-in-1s, personal computers and servers this year, the chip giant confirmed this week.

“When I look at the range of what Skylake’s able to deliver from the Core M level all up to the i7 and Xeon, it’s just going to be a fantastic product,” said Intel CEO Brian Krzanich, in an interview with the IDG News Service at Mobile World Congress in Barcelona.

Intel ran into problems with production of its code-named “Broadwell” processors using 14nm manufacturing technology last year. Due to insufficient yields, the world’s largest maker of microprocessors had to delay introduction of its latest chips by about a year. However, since “Skylake” brings a lot of innovations, Intel did not want to delay it significantly. As a result, “Broadwell” products will have a relatively short lifecycle.

Intel will introduce the first “Skylake” processors in the form of dual-core Core M chips in the third quarter of this calendar year. The CPUs will power high-performance tablets, hybrid 2-in-1 personal computers and ultra-thin notebooks. It is expected that many mobile devices powered by Intel Core M “Skylake” will support Rezence wireless charging and WiGig short-range transmission technology.

In late Q3 or early Q4 the Santa Clara, California-based chip designer will introduce its first Core i3, Core i5 and Core i7 chips featuring “Skylake” micro-architecture for mainstream personal computers, including desktops and laptops. The lineup is projected to include chips with unlocked multiplier designed for enthusiast-class desktop PCs. Systems featuring the new “Skylake” processors will have improved storage performance thanks to native support of SATA Express. In addition, many “Skylake”-powered PCs will use DDR4 memory and support a variety of other innovations.



Intel also plans to introduce Xeon processors with “Skylake” cores for uniprocessor servers later this year. While there are plans to bring “Skylake” architecture to Xeon chips for dual-processor and multi-processor servers, Intel yet has to outline exact plans concerning the move.

Intel “Skylake” processors will be made using 14nm process technology and will feature a brand new micro-architecture that is designed to improve performance and power efficiency of central processing units. Unfortunately, not all “Skylake” processors will support 512-bit AVX 3.2 instructions, according to unofficial information.

Sunday, 26 January 2014

Intel Introduces 2 Ultra-Low-Power Mobile Chips

intel-core-haswell-cpu-processors-price-610x515 Intel has introduced nine Core i5 and Core i7 "Haswell" mobile processors, including two ultra-low-voltage processors for Ultrabooks, the 2-gigahertz i5-4310U and the 1.5GHz 4360U. The 4360U has the company's HD 5000 graphics capability, according to Intel.

The Haswell rollout has solidified the company's dominance in the computer chip business (including what it claims are record sales of desktop Core i7 CPUs), especially on the mobile side of things. Intel is looking to further its advantage with the release of a new batch of fourth-generation Core processors designed for notebooks.

The nine new mobile Haswell CPUs are a mix of Core i5 and i7 chips that will power performance portables, though a couple are ultra-low-voltage (ULV) processors that can be used in Ultrabooks.The cheapest new one is the i5-4310M at $225 (prices will factor into the cost of a new notebook, as the laptop upgrade market is neglible); its two cores run at 2.7GHz. For about $40 more, the i5-4340M goes to 2.9GHz, while for svelte systems, there's the 2GHz i5-4310U and the 1.5GHz 4360U. Despite the slower clock speed, the 4360U costs more than the other ULV chip because it makes use of Intel's more powerful HD 5000 graphics.

Even though these are new processors, they aren't a quantum leap beyond their predecessors. Because they are clocked about 100MHz higher than the initial Haswell CPUs, that's only about a few percentage points better in performance. But who's going to argue with faster, especially when it's going to be baked into new laptops over the next few months.

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Thursday, 12 September 2013

Cisco’s nPower chips for moving data at 400 Gbps

cisco_networking_chip Semiconductors continue to advance, as a slew of announcements by Intel and Apple’s new A7 processor showed this week. But don’t forget about Cisco Systems.

The biggest provider of routing and switching systems has long retained the capability to design specialized processors for its hardware, as well as turn to off-the-shelf chips from commercial suppliers where that makes the most sense. Now Cisco designers have come up with another singular piece of home-grown silicon.

It’s a new product line called the nPower, and Cisco says the chips can pump as much as 400 gigabits of data per second. By contrast, the company’s prior technology could handle 140 gigabits and required more than one chip, Cisco says. The new capacity translates into hundreds of millions of transactions per second.

To what end? Of course, computer and smartphone users will continue to watch more YouTube videos and the like. But Surya Panditi, Cisco’s senior vice president and general manager of engineering, says a key driver for the technology is a coming change in the nature of network traffic.

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Wednesday, 28 August 2013

Xbox One's custom processor has 5 billion transistors !

best_play_to_play Microsoft's upcoming Xbox One gaming console will contain a custom chip the company designed in conjunction with Advanced Micro Devices with the aim of delivering maximum graphics performance, presenters said Monday at Microsoft's Hot Chips conference.

The high-performance, low-power chip has specialized processors beyond the CPU and GPU to handle tasks such as audio processing, video decode and encode and other small game characteristics. The system has 5 billion transistors, and uses an eight-core AMD CPU code-named Jaguar, which is also being used in the Sony's upcoming PlayStation 4. The graphics processor is a Radeon GPU that has been customized for the Xbox One, Microsoft presenters said at the conference in Stanford, California."Almost every aspect has been customized," said John Sell, a hardware architect at Microsoft.The Xbox One system chip also has 500GB of storage, 8GB of DDR3 memory and 47MB of on-die storage that could act as cache, where information will be stored temporarily. The GPU can provide more than a teraflop of peak performance.AMD's x86 CPUs are based on the Jaguar core, which was introduced for PCs, laptops and servers last year. The eight CPU cores are broken into clusters of four cores with a total of 4MB of L2 cache.

"We've made some alterations to the CPU clusters to support coherent bandwidth between clusters...and other processors," Sell said.

dualshock_transp5 The graphics processor supports DirectX 11.1, which is Microsoft's graphics engine that will power games. Microsoft calls the engine 1-plus, a reference to unique control processor features for custom graphics and processing in the Xbox graphics core. "These have been customized to significantly reduce the amount of time, the amount of work, that the CPU has to spend when assembling graphics commands," Sell said. One unique aspect of the chip is a shared memory pool that can be accessed by CPUs, GPUs and other processors in the system. Typically, GPUs and CPUs have different memory systems, but the new features increase the overall addressable memory in the Xbox One. The GPUs and CPUs have also been modified to enable shared memory.Shared memory is also part of a specification being pushed by the HSA Foundation, which wants to blur the line between GPU and CPU memory to make programming easier. plusAMD is one of the founding members of the HSA Foundation, though Sony is also a member, which suggests that shared memory may also be part of PlayStation 4.

The move to x86 architectureA is a big jump for Microsoft, which used a chip based on the Power architecture in its Xbox 360. Sony's PlayStation 4 is also built on x86 chips from AMD. The Xbox One is due for release later this year.Microsoft also shared some details about the Kinect camera, which will come with the Xbox One. The "depth" camera shoots 1080p high-definition video at 30 frames per second, said Patrick O'Connor, senior director of engineering at Microsoft.

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Wednesday, 24 October 2012

Intel's Haswell chips coming into your PC in first half of next year

Laptops and desktops with Intel's next-generation Core processor, code-named Haswell, will be available in the first half of next year, Intel CEO Paul Otellini said during a financial conference call on Tuesday.

The Haswell chip will succeed current Core processors code-named Ivy Bridge,which became widely available in April. Intel has said that Haswell will deliver twice the performance of Ivy Bridge, and in some cases will double the battery life of ultrabooks, which are a new category of thin and light laptops with battery life of roughly six to eight hours.

Intel shed some light on Haswell at its Intel Developer Forum trade show in September, saying its power consumption had been cut to the point where the chips could be used in tablets. Haswell chips will draw a minimum of 10 watts of power, while Ivy Bridge's lowest power draw is 17 watts. Intel has splintered future Haswell chips into two families: 10-watt chips for ultrabooks that double as tablets, and 15-watt and 17-watt chips designed for other ultrabooks and laptops.

 

Haswell will be "qualified for sale" in the first half of 2013, said Stacy Smith, chief financial officer at Intel, during the conference call. Chips go through a qualification process internally and externally, after which Intel can put the chip into production.

The Haswell chip could provide a spark to the ultrabook segment, which has stagnated in a slumping PC market. Worldwide PC shipments dropped between 8 percent and 9 percent during the third quarter, according to research firms IDC and Gartner. They said ultrabook sales were lower than expected due to high prices and soft demand for consumer products.

 

Many ultrabook models with Ivy Bridge processors are expected to ship in the coming weeks with the launch of Windows 8, which is Microsoft's first touch-centric OS. Otellini said more than 140 Core-based ultrabooks will be in the market, of which 40 will have touch capabilities. A few models -- between five and eight -- will be convertible ultrabooks that can also function as tablets. A majority of the ultrabooks will have prices either at or above US$699, with a few models perhaps priced lower, Otellini said.

The new graphics processor in Haswell will support 4K graphics, allowing for a resolution of 4096 by 3072 pixels. Ultrabooks with Haswell will also include wireless charging, NFC capabilities, voice interaction and more security features.

Otellini said Intel can't tell how the segment will perform in the coming quarter. A number of factors needed to be considered including Microsoft's Windows 8 and the launch of new ultrabooks, he said. Intel reported a profit and revenue decline in the third fiscal quarter of 2012.

"We saw a softening in the consumer segments" in the third fiscal quarter, Otellini said. "The surprise there was China, which was strong, [but] turned weak on us."

Tablets have changed the way people use computers, and Microsoft is bringing touch to mainstream PCs for the first time with Windows 8, Otellini said. PCs with Windows 8 are expected to ship later this month, and it's hard to predict what the response will be until people go out and play with the devices and the OS, Otellini said.

"I see the computing market in a period of transition," with an opportunity for breakthroughs in research and creativity, Otellini said. New usage models for laptops are emerging with detachable touchscreens, voice recognition and other features, and Intel is trying to tap into those opportunities, Otellini said.

The company has a history of overcoming slumps through research and innovation, Otellini said.

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Wednesday, 23 November 2011

Intel marks 40 years of the 4004 microprocessor

A 1971 breakthrough that changed the world

4004-powersmall-120x120 CHIPMAKER Intel today celebrates the 40th anniversary of the 4004, the world's first commercially available microprocessor.

To call Intel's 4004 just a microprocessor is to do the microelectronics world a great disservice. Not only was the Intel 4004 the first commercial microprocessor, shattering what people thought of computers, it signaled Intel's shift away from manufacturing memory and into what was going to become the industry that changed the world forever.

Back in 1969 when Japanese calculator outfit Nippon Calculating Machine Corporation asked Intel to design 12 chips for a business calculator called Busicom, Intel had already achieved some success with its memory business. Although Intel was far from being a market leader, the two 'Fairchildren', Robert Noyce and Gordon Moore were busy making money fabbing RAM chips, but not for much longer.

Back in 1969, Intel didn't have the luxury of saying no to business and Federico Faggin, Ted Hoff and Masatoshi Shima got to work on designing a processor for the relatively mundane business calculator. Later Hoff remarked that in the late 1960s it simply wasn't feasible to talk about personal computers.

Like the birth of many revolutionary pieces of engineering, the 4004 was designed by a bunch of engineers working into the night on the promise of creating something completely different.

While Faggin, who had also worked at Fairchild Semiconductor with Noyce and Moore, was busy designing the 4004 Hoff is widely credited with coming up with the architecture. Faggin built Hoff's architecture, with the legend saying that the first wafers came back to Intel's Santa Clara offices at 6PM just as everyone was clocking out for the day. Faggin pulled an all nighter in the lab to check whether the first baked 4004 actually worked, and at 3AM, overcome with exhaustion and satisfied that the radical 4004 did the job, he went home to tell his wife, "It works!".

Faggin was so proud of his design that he etched his initials, FF, on one side of the 4004's design. In later iterations of the 4004 the initials were moved, but just like an artist, Faggin signed his own work. And make no mistake, the 4004 processor is a work of art.

It might sound bashful, but Intel's 4004 wasn't particularly powerful, and the firm admitted, "The 4004 was not very powerful, it was primarily used to perform simple mathematical operations in a calculator called Busicom." However Noyce and Moore realised that it wasn't the 4004 itself that was important but its architecture.

4004-layout-185x299 In terms of complexity, Intel's 4004 had 2,300 MOS transistors and was fabricated on a 10,000nm process node on 60mm wafers. In a graphic illustration of Moore's law, processors from Intel and AMD today typically have hundreds of millions of transistors and are fabricated on the 32nm process node on 300mm wafers. But the numbers simply don't tell the whole story, the fact is that the 4004 was not just a new chip with a new micro-architecture, but it was a radical new way of thinking and building processors.

What Faggin, Hoff and Shima had created with the 4004 was the ability to commoditise computing by adding the micro in microprocessors. Prior to the 4004, general purpose computers were the hulking machines you saw in black-and-white films as room-sized equipment. Henry Ford brought the motorcar to the wider public through mass production, while Intel brought computing to the masses by miniaturising it.

Intel showed what would become perhaps the first known example of its shrewd business policies by offering Busicom, now a company in its own right, a reported $60,000 for the design and marketing rights for the 4004. Busicom agreed to the deal and, even though a year later the firm went bust, Intel was left with the ability to sell the 4004, which it did in 1971.

In what would become standard Intel behaviour, the firm courted developers for its 4004 processor. Even at that time, Intel knew that software held the key to its success, and it wasn't wrong.

Like Noyce and Moore, Faggin chose to form his own company in 1974 called Zilog. The firm is extremely successful in embedded CISC processors but is best known for producing chips that were found in the Sinclair ZX Spectrum. Faggin still heads up Zilog but his name will forever be associated with the creation of arguably the 20th century's most important innovation in electronics. Shima followed Faggin to Zilog in 1975 and worked on the Z80 and Z8000.

Hoff stayed on at Intel, becoming an Intel Fellow and more recently was awarded the National Medal of Technology and Innovation in 2009 by US President Barack Obama, a year before Faggin received the same award.

What Faggin, Hoff and Shima created wasn't just a microprocessor, it was a blueprint for others to follow and quite simply extended what was thought possible. Credit should be given to Noyce, Moore and Intel's third co-founder, Andy Grove, for letting the electronics engineers have the time and resources to develop what was perhaps the most important, ground-breaking electronic component created in the past century. µ

Saturday, 29 October 2011

Comparison Of Intel and AMD Processors

An overview of notebook and desktop processors offered by Intel and AMD.

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What’s the big deal about choosing a processor?

The processor (also called CPU, short for Central Processing Unit) is the "engine" of a computer. It is the most important component in determining how fast or 'snappy' the system will operate across applications both now and in the near future.  Like the engine of an automobile, a processor can be fast, slow, power hungry or power efficient subject to the kind of work the computer is being considered for. It is important to round out what kind of things you will be doing on the system to best select a computer with a CPU most suitable to your needs.

Unlike other components of a notebook computer, the CPU is -- with rare exception -- a fixed component. This is in contrast to RAM and hard disk storage which can typically be upgraded. Therefore, another consideration is the fact that (important as the CPU is) the CPU you choose will be the same throughout the life of the system. This implies that as programs become more sophisticated, the computer's ability to handle such programs will be directly affected by the decision made at purchase all that time ago. This choice may mean the difference between a system that is useful for another year or two versus one that isn't -- much sooner. As a final consideration in choosing a CPU is the suggested or minimum requirements of either the programs that is planning on being run, or academic department recommendations as a guide as to the relative kind of performance required for a particular field of study.

The product line comparisons hierarchy 

Currently, the two largest manufacturers of CPUs in the world are Intel and AMD. The following provides a short profile of the companies and the current state of their products.

Intel

The current performance and market leader at the time of this writing is Intel.  Intel is currently the sole supplier of processors for all recent Apple computers (Macbook, Macbook Pro, Mini, iMac etc.) and are found in virtually all major computer manufacturer's product lineups. Intel's most current crop of CPUs are the Core iX-series processors which include the i3, i5 and i7; as of January 2011, these series of processors entered their 2nd generation (codenamed "Sandy Bridge" where the 1st generation was codenamed "Nehalem", differences explained under the special features section).  

AMD

AMD is the second largest supplier of processors for personal computers.  Many of their products are found in both high-performance and budget-oriented notebooks as well as low-cost, enthusiast-oriented desktop builds.  The Phenom II and Fusion platforms comprise AMD's most popular and mainstream offerings at the time of this writing.

Beneath, we provide a chart which compares the relative performance between competing product lines within Intel's and AMD's offerings. These are organized by the following three classes: high-end, mid-range and economy.  It is important to note that though this comparison offers a reference of relative performance within each brand, it does not necessarily indicate absolute rankings between competing Intel and AMD products (for instance, the Core i7 is in the same row and category as the Phenom II series but offers superior general performance). Further, the Core iX Mobile series only indicate relative performance for notebook platforms -- that is, it is generally not useful to compare them to desktop processors such as the Intel Core i7 or the Phenom II series.

High End Processors : Intensive Statistical Analysis, Professional Video/Audio Creation, Advanced 3D Graphics

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(2nd generation "Sandy Bridge")

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Intel Core i7

As Intel's flagship processor, the i7 is a 64-bit processor offering either 2, 4, or 6 cores of the highest levels of general performance available.  The i7 combines Hyper Threading and Turbo Boost technologies for the most demanding and advanced of applications.

Intel Core i7 Mobile

Intel's Core i7 Mobile features unparalleled performance on notebooks, incorporating significant power savings while implementing the same features as the non-mobile i7, Hyper Threading and Turbo Boost. The i7 Mobile is available on notebooks with 2 or 4 cores; currently the 4 core version offers higher performance in some respects but heat and battery life are concerns.

AMD Phenom II X6

AMD's Phenom II X6 represents the industry's first consumer class six-core processor. The X6 offers the highest levels of performance ideal for the most intensive of tasks - bolstered by AMD's new Turbo Core technology, the X6 is able to optimize performance in a variety of situations.

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(2nd generation "Sandy Bridge")

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Intel Core i5

Based upon the same architecture as the i7, the i5 is also a 64-bit processor that features 2 or 4 cores at a similar class of performance of the i7 processor at a lower cost. The i5 features Turbo Boost and Hyper-Threading technology but do not possess as much cache memory as the i7.

Intel Core i5 Mobile

The Intel Core i5 Mobile while also featuring Hyper Threading and Turbo Boost possesses a similar but lesser class of performance than the Core i7 Mobile with less cache and available in notebooks only with 2 cores. The Core i5 Mobile is a high performance processor with low energy requirements.

AMD Phenom II X4

AMD's latest generation of consumer class 4 core processors, the quad-core Phenom II X4 chips are designed to deliver performance ideal for all kinds of multimedia as well as in the most demanding of applications such as virtualization.

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(2nd generation "Sandy Bridge")

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Intel Core i3

Derived from the same architecture as the higher end i5 and i7, the i3 is available strictly as a dual core processor. Though Hyper Threading is available, it does not feature TurboBoost. The Core i3 processor presents higher levels of performance than the Core 2 at a smaller cost.

Intel Core i3 Mobile

The Intel Core i3 Mobile descends similarly from the i3, presenting a fast, 64-bit computing experience with the intelligent architecture of the i5 Mobile and i7 Mobile. The i3 Mobile features 2 cores and Hyper Threading but does not include Turbo Boost technology

AMD Phenom II X3 & X2

AMD's Phenom X3 and X2 processors boast 3 or 2 cores that offer excellent performance value; great for all around usage on a small budget all while utilizing AMD's latest architecture technology seen in the Phenom II X4 series

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Intel Core 2 Quad

The Core 2 Quad features 4 processing cores to optimize gaming, video, and image processing. Built on the same architecture as the Core 2 Duo, this processor excels on multi-tasking with performance hungry applications.

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Intel Core 2 Extreme

Available in both 2 and 4 core versions, distinguishing features of the Extreme series include higher bus speeds than the non-extreme versions, and an unlocked clock multiplier for further customization of your computing performance.

Mid Range Processors : Speed & Multi-tasking, Adobe Creative Suit, All-Around Use, Basic 3D Graphics

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Intel Core 2 Duo

Contains two processing cores to optimize gaming, video, and image processing. Laptops with this chip tend to be thinner and and more energy-efficient.

AMD Phenom I X3 & Phenom I X4

AMD's first generation of consumer class processors featuring quad and triple core performance found in desktop builds. Features 64-bit computing performance as well as AMD's HyperTransport bus technology.

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Intel Pentium Dual Core

Dual core processor based on the Core microarchitecture. A class beneath the Core 2 Duo and Core Duo of Intel's processor offerings, the Pentium Dual Core is available in current desktops and laptops.

AMD Turion II Ultra / AMD Turion II

The Turion II and Turion II Ultra are AMD's mainstream mobile processor platform; they provide excellent all-around performance for multimedia such as high definition video. As these are often paired with AMD/ATI graphics, budget configurations containing these processors are also sufficient for basic 3D graphics and gaming.

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Intel Core Duo / Intel Core Solo

The Intel Core Duo and Core Solo are dual and single core processors based on the Core microarchitecture. The Core Duo and Core Solo offers modest performance for office and limited multimedia oriented tasks.

AMD Athlon II X2

The AMD Athlon II X2 is a 2 core desktop processor that is 80% faster than it's single core counterpart. Great for multitasking and multimedia consumption on a budget.

Economy Processors : Internet Browsing, E-mail, Microsoft Office, Simple Graphics and Games

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Intel Centrino/Centrino Duo

A mobile-oriented processor based upon Pentium M or Core Duo architectures; the Centrino also integrates wireless networking technology allowing for smaller sized laptops. Offers slight performance boost over simply choosing a core duo and dell wireless card (which is typically less expensive.)

AMD Sempron

The AMD Sempron is a budget class processor seen in low cost notebooks and desktops and are considered a class above netbook/nettop processors such as the Intel Atom or the AMD Neo platforms.

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Intel Atom

Primarily found in netbooks and nettops, this processor has been designed with price and power consumption in mind. As a result, it offers much less processing power than other current Intel alternatives. This processor is available in 1 or 2 cores, with the single core option being far more prevalent.

AMD Athlon Neo / Neo X2

The Athlon Neo and Neo X2 are single and dual core processors seen in ultra-mobile platforms such as netbook and nettops. They are featured with ATI integrated graphics for reasonable multimedia playback performance.

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Intel Celeron

Intel's economy model processor. It is the most basic, and thus the slowest. It has less cache than other Intel processors, so even if it has the same Ghz rating as another processor, it will be slower. We usually do not recommend this processor because it offers the least in terms of longevity.

 

Benchmarks

This is not meant to be a comprehensive list, but rather a way to identify different branches in processors. To see a more comprehensive comparison of specific processor types, follow the benchmark links below. Benchmark websites rank processors within and between series. The highest rated processors are typically used for server applications and for simplicity, those products are omitted in the set of rankings above (eg. Intel Xeon and AMD Opteron); rather the processors that are found in desktops and notebooks are included.

It is further important to recognize that general processor speed is not solely atttributed by its frequency -- these are the Mhz and Ghz numbers often seen -- of the processor when comparing between different product lines as is the common misconception. For instance, an Intel Pentium 4 3.8 Ghz processor is slower than an Intel Core Duo or AMD Phenom. The primary reasons for this is a function of the architecture and the associated features therein (particulrly additional physical cores, advancing of bus technology, etc). It is thus, only applicable comparing frequency ratings to ascertain relative performance within exact product lines (eg. Core 2 Duo vs. Core 2 Duo). The chart beneath will give a rough idea of the hierarchy of performance expected in faring against competing product lines at the time of this writing. It may also be helpful to understand that versions of processors found in desktops tend to be higher in performance than their notebook counterparts of the same product line; this is done to maintain thermal requirements, battery life and minimize size at the cost of speed.

 

Special Features Explained

In this section, we breakdown the practical meaning of some important technical features included in the various processors available. Please not that this is not a comprehensive listing and what is described are the most common/relevant features offered.

Special Features

Explanation

Processors Using Feature

Intel Features

Hyper Threading

The operating system treats the processor as two processors instead of one. This increases the speed of the computer.

Pentium 4, Core i7, Core i5, Core i3

Turbo Boost

Allows the processor to intelligently overclock themselves so long as thermal and electrical requirements are still met.

Core i7, Core i5

Intel QuickPath Interconnect (QPI)

A new Intel technology which replaced Front Side Bus (FSB) -- similar in purpose to AMD's competing HyperTransport technology.

Implemented in some fashion in all Intel core iX series processors

Execute Disable Bit

Prevents certain viruses from infecting the system by labeling some data "executable."

Current Intel processors

vPro

Best for IT people trying to maintain several workstations. It is able to detect systems, even in powered-off states. Synchronizes remote desktop, security, and other multi-station support features. Decreases desk-side maintenance visits.

Core Duo, Core 2 Duo

ViiV technology

Intel's bundle for enhancing multimedia. Supports HD resolutions 720p up to 1080i.

Pentium D, Extreme, Core Duo, Core 2: Duo, Extreme, Quad.

AMD Features

Hyper Transport

Feature that allows for faster processing speed and better energy efficiency.

Current AMD processors

Cool'n'Quiet

Reduces heat and noise of processors allowing for increased energy efficiency.

Phenom I & II, Athlon, Sempron (with exceptions)

Turbo Core

Turbo Core allows for contextual overclocking of the processor to optimize performance subject to electrical and thermal requirements/specifications.

Phenom II X6

CoolCore

Limits unused elements of the processor such that power is conserved -- allows for increased notebook battery life on a single charge.

Phenom I & II, Turion

Dynamic Power Management

Allows for dynamic power management to optimize energy consumption while maintaining performance levels.

Phenom I & II, Turion