Newest intel pentium processor: Intel Kaby Lake 7th Generation Pentium Processors

Intel Kaby Lake 7th Generation Pentium Processors

7th Gen Pentium G4560 3.5GHz 54W HD 610 3MB Dual Core CPU

Discontinued

More variations available Show

Replaces the Intel Skylake 6th Generation Pentium Processors

With improved performance and power efficiency, the new Intel Pentium processors are an excellent choice for the home or office PC.

The new Intel Pentium processors provide you a reliable PC solution that can handle all of your everyday computing needs. With the capabilities of Intel’s newest micro architecture and 14nm process technology, new Intel Pentium processor-based PCs offer solid performance to run applications such as web browsing, HD video steaming and productivity software simultaneously and efficiently.

Features

  1. Intel’s latest 7th generation processors
  2. Compatible with socket 1151 motherboards
  3. Built-in Intel HD Graphics 610
  4. TDP (thermal design power) heat output, 54 watts *
  5. Pentium 3. 5 GHz with 4-threads and 3MB of Intel Smart Cache *
  6. Typical Passmark score 5049 *
  7. TDP (thermal design power) heat output, 35 watts &#8224
  8. Pentium 2.9 GHz with 4-threads and 3MB of Intel Smart Cache &#8224
  9. Typical Passmark score 4186 &#8224
  • *Pentium G4560 CPU only
  • &#8224Pentium G4560T CPU only

The new Intel Pentium processors offer great performance that end users can experience and appreciate. With the power and features of the new Intel® 200 Series chipset, this platform provides more high bandwidth I/O interfaces with increased flexibility, including support for the latest DDR4 memory technology and premium 4K content. Intel Hyper-Threading Technology (Intel HT Technology) is now available on the new Intel Pentium processors. Thanks to Intel HT Technology, your PCs can improve productivity by doing more simultaneously without slowing down. Intel HD Graphics makes casual game play snappy, enables smooth video streaming for all your online entertainment, and gives you enhanced video chatting for more personal online interactions with friends and family. The new Intel Pentium processors are also compatible with both Intel® 100 series and 200 series motherboards.

Specifications Pentium G4560 CPU
Clock speed stock 3.5 GHz
Cores / threads 2/4
Intel Smart Cache 3MB
Typical Passmark score 5049
HD Graphics speed (stock) 350 MHz
HD Graphics speed (max) 1.05 GHz
HD Graphics 610
Thermal Design Power (TDP), watts 54W
Hyper-Threading Technology Yes
Intel Virtualization Technology Yes
Socket type 1151
Codename Kaby Lake
Lithography 14 nm
Packaging OEM *
More information Here
Warranty 24 months
EAN barcode 5032037095693
  • *A suitable CPU cooler is required
Specifications Pentium G4560 CPU
Clock speed stock 3. 5 GHz
Cores / threads 2/4
Intel Smart Cache 3MB
Typical Passmark score 5049
HD Graphics speed (stock) 350 MHz
HD Graphics speed (max) 1.05 GHz
HD Graphics 610
Thermal Design Power (TDP), watts 54W
Hyper-Threading Technology Yes
Intel Virtualization Technology Yes
Socket type 1151
Codename Kaby Lake
Lithography 14 nm
Packaging OEM *
More information Here
Warranty 24 months
EAN barcode 5032037095693
  • *A suitable CPU cooler is required

See Also

CPUs (Processors)
Intel 7th Gen LGA1151 Processors

Product Resources

  • Intel website

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What Is An Intel® Pentium® Processor

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Dwight Pavlovic

|

April 28, 2022

Since 1993, Intel® Pentium® processors have played a big role in the company’s product line. The technology powering those processors has changed dramatically since the launch of early versions like Pentium Pro, Pentium II, and Overdrive. While they no longer rank as Intel’s top-tier processor, today’s Pentium processors remain powerful.

In this article, we’ll look specifically at the Pentium line of processors, particularly the Gold and Silver variants, while explaining why you need to know about this notable piece of tech.

Pentium processor’s key advantages

While you may have first encountered these processors on a desktop, the latest Pentium-powered devices are high-efficiency and often portable.

Balanced cost and performance

Intel Pentium processor speed represents a serious boost for mobile users, which helps balance costs and performance in laptops, tablets, and convertible 2-in-1 models. On a compact device that may be optimized for cloud computing, Pentium guarantees solid baseline performance and an accessible price point.

Lower energy consumption

Most Intel Pentium computers are designed for efficiency and are often recognized for their reduced energy consumption. For example, ENERGY STAR® or EPEAT® recognize all of the devices in this article. Some even incorporate recycled ocean-bound plastics during manufacturing.

Pentium Silver and Gold

The current generation of Pentium-branded hardware is divided into two types: Silver and Gold. Both processors offer advantages in their product categories, and each is associated with slightly different user routines.

Pentium Silver

Pentium Silver-powered devices are typically built for cloud computing, online use, and collaboration. This processor also works perfectly for Chromebooks and tablets, providing strong local performance and efficient online interactions. You’ll frequently see Silver alongside the Chrome OS in tablets, laptops, and other models.

Pentium Gold

Pentium Gold is the more common variety and provides an even bigger performance boost than Silver. According to Intel’s processor guide, devices with Gold are primarily intended for “everyday computing.” This can result in a slightly more expensive device, but it’s because you’re getting more power.

HP Pentium laptops

With an HP Pentium laptop, you can speed through projects online and count on your device to work well, even away from a connection. Let’s look at two standout options, or you can browse

HP’s entire Pentium laptop selection

.

HP Chromebook x360 14b-cb0097nr

The HP Chromebook x360 14b-cb0097nr is powered by an Intel Pentium quad-core processor from the Silver line. It features integrated UHD Graphics, 8GB of RAM, and a 128GB eMMC for local storage. Paired with the Chrome OS and a convenient USB Type-C® port, this device is built for both work and home use.

This Chromebook is also one of HP’s x360 models. It features a full keyboard for easy typing, or you can fold the display back to use it as a conventional tablet.

The micro-edge touch display is a true perk in either mode, and 13.5 hours of battery life makes it perfect for on-the-go use.

The 14-inch Chromebook even includes HP Dual Speakers tuned by Bang & Olufsen and a dual array microphone for streaming and collaboration.

Key Features:

  • Intel Pentium Silver processor
  • 8GB of RAM
  • 128GB eMMC storage
  • 2-in-1 convertible design

HP Tablet 11-be0097nr

Do you need a high-powered and portable mobile device? Look no further than the

HP Tablet 11-be0097nr

. It weighs only 1.32 lbs and features Intel’s Pentium Silver processor. It may be compact and lightweight, but the HP Tablet 11 boasts many of the same features of a standard Intel Pentium laptop.

This device comes with 8GB of RAM and a speedy 128GB PCIe® NVMe™ M.2 solid-state drive (SSD). With those specs, you’ll enjoy a fast startup and speedy response times. Plus, the fingerprint reader delivers extra security when you’re out and about.

The edge-to-edge glass makes for seamless interactions, and Corning® Gorilla® Glass 5™ provides even more confidence when you have to leave the safety of your couch or office.

The HP Tablet 11 is built for busy households, offices, or anyone using an online connection, with support for an MU-MIMO router so you can maximize efficiency.

Key Features:

  • Intel Pentium Silver processor
  • 8GB of RAM
  • 128GB PCIe NVMe M.2 SSD storage
  • MU-MIMO router support

HP Pentium Desktops

The HP Pentium desktop selection is equally suited for a range of routines and designed for efficiency. Our picks include one model with Chrome OS as well as a more compact, slim form factor PC for small office spaces and easy portability.

HP Slim Desktop S01-aF1005t PC

With a built-in optical drive and an extremely compact build, the HP Slim Desktop S01-aF1005t PC is the definition of good things in a small package. It’s equipped with an Intel Pentium Silver J5040 processor, UHD integrated graphics, and 8GBs of RAM. But where it really sets itself apart from other laptops with Pentium is storage, offering a hybrid configuration with both a 256GB PCIe NVMe M.2 SSD and 1TB SATA.

The slim form factor means you can fit this device into small or more unconventional workspaces. Measuring just 3.74-inches wide, it’s unobtrusive enough to store just about anywhere. You can also move it around easily because it weighs a mere 6.66 lbs.

The ports are plentiful, too, with 6 USB connections so you can connect all of your favorite peripherals. Even better, this PC has front access, which means you won’t fumble around the back of the tower when it’s time to hook everything up. You can also set up a dual monitor display with available VGA and HDMI ports, making this desktop perfect for spreadsheet crunchers or people who prefer extra screen real estate.

Key Features:

  • Intel Pentium Silver J5040 processor
  • 8GB of RAM
  • 256GB PCIe NVMe M.2 SSD + 1TB SATA storage
  • Compact design

HP Chromebase All-in-One 22 — aa0050t

With an Intel Pentium Gold 6405U processor, the HP Chromebase All-in-One 22 — aa0050t offers a higher bar for performance while maintaining a compact design. As an all-in-one PC, it combines the display and its hardware into a single unit to save lots of space. And did we mention how striking it is? You’ll love how clean and sharp it will look on any desk.

You can customize the HP Chromebase to meet your needs at checkout. You have several choices when it comes to RAM, topping out at a maximum of 16GB. It also starts with a 128GB SSD, which you can upgrade to 256GB. You can even pay a bit more for the Intel Pentium dual-core i3 processor if you need the additional power.

The HP Chromebase features a USB Type-C port, 2 USB Type-A ports, and an adjustable/rotating screen. It also boasts dual 5W speakers built into the base, with audio tuning by Bang & Olufsen for enjoying your favorite tunes and hearing everyone clearly on your next conference call.

Key Features:

  • Intel Pentium Gold 6405U processor
  • Up to 16GB of RAM
  • 128 or 256GB PCIe NVMe M.2 SSD storage
  • All-in-one style desktop

Summary

While you won’t find clock speeds as high as a dual-core i5 or a quad-core i7 processor from Intel, Pentium’s Silver and Gold processors aren’t built for that type of functionality. They instead deliver an impressive balance of performance with budget-friendly prices.

You’ll find these processors in PCs and laptops priced below $500, with some higher-tier options in the $500 to $600 range. They also have the advantage of energy efficiency, meaning your energy bill and the environment will benefit from one of these devices.

For portability, the HP Chromebook x360 14 provides a versatile x360 configuration, perfect for multiple use scenarios. And the HP Tablet 11 is even lighter, with a high-res camera and detachable magnetic keyboard.

For even better local performance and more customization options, consider one of the desktops. The HP Slim Desktop S01 is compact and offers hybrid storage in addition to its Intel Pentium Silver J5040 processor. Or, prioritize performance with the HP Chromebase All-in-One 22, featuring high RAM capacity (up to 16GB) and an Intel Pentium Gold 6405U processor.

About the Author: Dwight Pavlovic is a contributing writer for HP Tech Takes. Dwight is a music and technology writer based out of West Virginia.

Popular HP computers with Intel processors:

Disclosure: Our site may get a share of revenue from the sale of the products featured on this page.

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Design your industrial, embedded applications with Intel Pentium at Advantech! We offer Intel Pentium G and Legacy Intel Pentium Series built with dual-cores, 3 MB cache and mid-range frequency (GHz), delivering great performance, low power enhancements, and multitasking for everyday computing.

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Part Number Description CPU












Part Number Description CPU

96MPCLCO-3.2-4M12
PENTIUM 3.2G 4M 1200P 2C Gold G6400TE
2

Comet Lake

Embedded

FCLGA1200

96MPCLCO-3.8-4M12
PENTIUM 3.8G 4M 1200P 2C Gold G6400E
2

Comet Lake

Embedded

FCLGA1200

96MPP-2.3-3M10T
(DEL22)PENTIUM 2.3F 3M 1150P G3320TE
2

HASWELL

Embedded

LGA1150

96MPP-3.2G-3M10T
(DEL22)PENTIUM 3.2G 3M 1150P G3420
2

HASWELL

Desktop

LGA1150

96MPPC-3.1-4M-11T
PENTIUM 3.1G 4M 1151P 2 CORE G5400T
2

Coffee Lake

Desktop

FCLGA1151

96MPPC-3.7-4M-11T
PENTIUM 3.7G 4M 1151P 2 CORE G5400
2

Coffee Lake

Desktop

FCLGA1151

96MPPEA-3.0-6M17
PENTIUM 3G 6M 2C 1700P Gold G7400TE
2

Alder Lake

Embedded

FCLGA1700

96MPPEA-3.6-6M17
PENTIUM 3.6G 6M 2C 1700P Gold G7400E
2

Alder Lake

Embedded

FCLGA1700

96MPPS-2.4-3M11T
PENTIUM 2.4G 3M 1151P 2 CORE G4400TE
2

Skylake

Embedded

LGA1151

96MPPS-3.3-3M11T
PENTIUM 3.3G 3M 1151P 2 CORE G4400
2

Skylake

Desktop

LGA1151

Product List


  • 96MPPC-3.1-4M-11T

    Intel Pentium G5400T 3.1G 4M 2 Core Processor

    View Product



  • 96MPPC-3.7-4M-11T

    Intel Pentium G5400 3.7G 4M 2 Core Processor

    View Product



  • 96MPP-2.

    3-3M10T

    Intel Pentium G3320TE 2.3G 3M Processor

    View Product



  • 96MPP-3.2G-3M10T

    Intel Pentium G3420 3.2G 3M Processor

    View Product



  • 96MPPS-2.4-3M11T

    Intel Pentium G4400TE 2.4G 3M Processor

    View Product



  • 96MPPS-3.3-3M11T

    Intel Pentium G4400 3.3G 3M Processor

    View Product



  • 96MPCLCO-3.8-4M12

    Intel Pentium Gold G6400E 3. 8G 4M Processor

    New

    View Product



  • 96MPCLCO-3.2-4M12

    Intel Pentium Gold G6400TE 3.2G 4M Processor

    New

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  • 96MPPEA-3.0-6M17

    Intel Pentium Gold G7400TE 3.0G 6M Processor

    New

    View Product



  • 96MPPEA-3.6-6M17

    Intel Pentium Gold G7400E 3.6G 6M Processor

    New

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What’s the Best Budget CPU?

Plenty of attention is given to Intel’s lineup of flagship CPUs. The Intel Core i9 is the most powerful, followed by the Core i7, Core i5, and the lower-end Core i3. But nowadays, it might be hard to remember that the Pentium and Celeron lineups are still around.

Yes, Intel is still making these legendary CPUs. These days, though, they’re relegated to ultra-budget CPUs. Still, the question remains: if you get an Intel Pentium Gold, Pentium Silver, or Celeron chip, can you expect it to be any good? And if the answer is yes, what’s the difference, and which one’s better?

Pentium Gold: Multithreading On The Cheap

You might remember the Pentium name from the Pentium 4 of old, or for the Pentium D, which was an absolute trainwreck. It’s probably not the first name you think about when you’re thinking about new CPUs. But if you have less than $100 in your pocket, a Pentium Gold CPU might not be entirely bad for $60.

You’ll come across two flavors of Pentium Gold: laptop and desktop.

The first one is the desktop version. They use the same architecture as the Core CPUs, so if you buy a new Pentium Gold, it’ll be based on Alder Lake, just like 12th gen CPUs. Except, instead of having multiple cores like higher-end CPUs, the Pentium Gold is just a dual-core CPU. That’s it. No frills, no fluff, not anything. Just two cores to get you by with basic tasks.

In the case of recent Pentium Gold chips, however, they have an ace up their sleeve—they’re hyperthreaded, meaning that while you effectively only have two cores, you actually have expanded threading capabilities with a total of four threads. This means you have extended capabilities for multithreaded tasks, even though you might not have a full set of four cores.

The latest Pentium Gold G7400T CPU goes up to 3.10GHz, which might not be as high as the 5GHz some Intel CPUs get, but it’s still pretty respectable nonetheless. Plus, it’s a chip that produces very little heat, with a Thermal Design Power of 35W.

The second flavor comes on laptops. As of Alder Lake, there are laptop versions of the Pentium Gold, and they’re a little more peculiar in comparison. The Pentium Gold 8500 on laptops is actually a penta-core rather than a dual-core. It’s still pretty conservative, though, coming with four efficient cores and one performance core.

Pentium Silver: Ultra Low Power for Cheap Laptops

With Pentium Gold out of the way, you might think Pentium Silver is instead a lower-end version of that. And you’d be partially right, but also wrong.

Unlike Pentium Gold, Pentium Silver is a range of chips almost entirely focused on one specific sector—thin and light laptops. More specifically, you’ll normally find it on small netbooks going as small as 11 inches, although they might also not be a rare sight on 15-inch laptops.

The Pentium Silver N5000 is a chip with four cores and four threads. While that seems pretty good on paper, those four cores are actually really power-efficient, running at a 1. 1GHz base clock. That seems pretty slow, but you also need to remember that the chip only sips a bare 6W, allowing for a pretty good battery life. The newer N6000 is a similar ordeal, with the improved N6005 bringing things up to 2GHz and 10W of power.

These chips won’t blow anyone away from their seats, but they’re good enough for internet browsing and light working on a small, easy-to-carry laptop.

Then, below everything else, we have Celeron chips. Since its inception, the Celeron lineup was conceived to be lower-end, unlike Pentium, which was once Intel’s flagship lineup. And new Celeron chips still carry that connotation well into this day and age.

Like Pentium Gold, you can find Celeron chips on both desktops and laptops. The new Celeron desktop chips are based on Alder Lake, and like the equivalent Pentium Gold, they have just two cores. The main difference here is that Celeron chips don’t come with hyperthreading. What you see is what you get—two cores and two threads. That’s it. However, it comes with cheap pricing, coming in at under $50. And it should still be a fairly respectable chip as long as all you’re going to do is browse the internet and do office work.

On the laptop side of things, they’re comparable to Pentium Silver. Really comparable, as a matter of fact. They also have four cores and run at a similar clock speed and TDP. So whether you get a Pentium Silver or a Celeron laptop, you can expect both to perform similarly.

Pentium Gold vs. Pentium Silver vs. Celeron: Which Should You Buy?

We’ll start by saying that we recommend going the extra mile and aiming for at least a Core i3. While Pentium and Celeron chips might look like a usable option at first glance, you’ll eventually feel pretty strapped on resources.

That being said, if your selection boils down to a Pentium Gold or a Celeron, definitely go for the Pentium Gold. While they’re both dual-cores, the Pentium Gold comes with hyperthreading, an important advantage that’ll allow your PC to perform better in multithreaded tasks.

In laptops, however, the line is blurrier. For most people, there’s no appreciable difference between Pentium Silver and Celeron chips. They’re both equally as powerful and power-efficient, so whatever differences there might be, they’re typically minimal ones. On Pentium Gold, though, you’ll have a better experience due to its unique penta-core setup.

Pentium Gold Is Best for Almost Everyone

If you’re strapped for choice and all you can get is either a Pentium or a Celeron, then definitely try to go for at least a Pentium Gold. In both a desktop PC and a laptop, it’ll give you a better experience.

We recommend you get at least a Core i3, even if you’re just doing office work. You’ll thank yourself later.

The History of Intel Processors

  • The first Intel processor debuted in 1971, 20 years before the World Wide Web provided a compelling reason to bring computers into our homes and offices.
  • Intel now offers four processor ranges, from the affordable Celeron to the network-focused Xeon.
  • Technology has helped Intel processors shrink in size, with today’s products made using process technologies of just 10 nanometers.
  • This article is for anyone who wants to learn more about the Intel processor range, its history and the rapid rate of technological progress.

Over the last 55 years, Intel Corporation has played a central role in the computing sector. Founded in California long before the state became the spiritual home of tech firms, Intel is now the world’s largest semiconductor chip manufacturer. However, the big numbers surrounding this global tech giant (120,000 employees, $213 billion net worth) are underpinned by tiny products – semiconductor chips that serve as computer processors.

Without processors, computers wouldn’t work. Intel has been the dominant force in developing the global computing industry, the growth of the internet and modern-day reliance on cloud services. But while Intel’s story is well known, the history of its processors is less extensively documented.

To celebrate the development of products that have literally changed the world, here’s a walkthrough of the history of Intel processors, starting with the first commercially available processor.

Did you know? Intel and AMD hold 99.9% of the global computer central processing unit (CPU) market.

1971-81: The 4004, 8008 and 8800

The 4004 was the first complete CPU on a single chip, packaged in a 16-pin ceramic dual in-line package. The 4004 was initially released with a clock speed of 108 kHz (and scaled up to 740 kHz). Produced in a 10 μm (10,000 nm) process, the 4004 had 2,300 transistors and delivered a performance of 0.07 MIPS.

The 8-bit 8008 replaced the 4004 in 1972 with 0.5 to 0.8 MHz clock speed and 3,500 transistors and was primarily used in the TI 742 computer. The 8080 followed in 1974 with 4,500 transistors in 6,000 nm with up to 2 MHz. It became famous for being used in the Altair 8800, as well as in Boeing’s AGM-86 cruise missile.

None of these chips sold in considerable volumes.

Tip: If you’re already feeling overwhelmed with technical jargon, check out our guide to key technology terms for explanations of some terms in this article.

1978-82: iAPX 86 (8086), 8088 and 80186 (16-bit)

The 8086, also known as the iAPX 86, was Intel’s first commercial 16-bit CPU and is considered the chip that launched the era of x86 processors. With 29,000 transistors built in a 3,000 nm design, the 8086 was clocked from 5 to 10 MHz and achieved up to 0.75 MIPS in computers such as the IBM PS/2.

The IBM 5150, the first PC, came with the 8088 (5-8MHz), which was identical to the 8086 except for its 8-bit internal bus. In 1982, Intel launched the 80186 CPU, which was also based on the 8086 but was built in 2,000 nm and hit more than 1 MIPS at a 6 MHz clock speed. The Tandy 2000 was among the first PCs that used the 80186.

1981: iAPX 432 

The iAPX 432 is one of the few Intel processor designs that flopped, and Intel does not talk about it anymore. Other future ill-fated processor designs include the i860/i960 of the early 1990s and the highly integrated Timna processor of 2000.

Introduced in 1981, the 432 was Intel’s first 32-bit design – an amazingly complex design for its time that integrated hardware-based multitasking and memory management features. 

Designed for high-end systems, the downfall of the 4-8 MHz 432 was that it was much more expensive to produce and slower than the emerging 80286 design.

While the 432 was initially designed to replace the 8086 series, the project ended in 1982.

1982: 80286

Intel’s 80286 debuted with memory management and wide protection abilities. It reached clock speeds up to 25 MHz with a performance of more than 4 MIPS in 1991. This processor was popular in IBM-PC AT and AT PC clones. The chip was manufactured at 1,500 nm and included 134,000 transistors.

The 80286 is remembered as the Intel processor that provided the highest performance gain over its predecessor and one of the most cost-efficient processors Intel ever produced. In 2007, Intel stressed that only the new Atom processor was about as cost-efficient as the 80286 25 years earlier.

1985-94: 386 and 376

The 32-bit era began with the release of the 386DX CPU in 1985. With 275,000 transistors (1,500 nm) and clock speeds ranging from 16 to 33 MHz, the CPU hit up to 11.4 MIPS.

In 1988, Intel followed up with the 1,000 nm 386SX, which had a narrower 16-bit bus to target mobile and low-cost desktop computing systems. Although the 386SX remained fully 32-bit capable internally, the data bus was cut to 16 bits to simplify the circuit board layout and reduce costs. Additionally, although not critical at the time, only 24 pins were connected to the 386SX’s address bus, which effectively limited it to addressing 16 MB of memory.

Both of the chips lacked a math coprocessor, and due to early problems with the i387 coprocessor not being production-ready in time for the 80386, both chips had to fall back to the 80287 as their math coprocessor until the 80387 was released to the market.

Intel’s first notebook chip, the 386SL, arrived in 1990 as a highly integrated design with an on-chip cache, bus and memory controller. The processor had 855,000 transistors and ran between 20 and 25 MHz. The 376 (1989) and 386EX (1994), both for embedded systems, completed the 376/386 processor family. 

Despite becoming obsolete as a personal computer CPU in the early ’90s, Intel continued to manufacture the 80386 family until September 2007 due to market demand for the chip to be used in embedded systems and the chip’s wide use by the aerospace industry.

1989: 486 and i860

The 486, designed under the guidance of Pat Gelsinger, former CEO of VMware, drove Intel through its greatest growth phase. The 1,000 nm and 800 nm design was launched as the 486DX with 25 to 50 MHz, included 1.2 million transistors and delivered 41 MIPS. The low-end 486SX (a 486DX with disabled math coprocessor) followed in 1991 with 16 to 33 MHz.

In 1992, Intel introduced an update as the 486DX2 (SX2) with up to 66 MHz, while the 486SL as an enhanced 486SX was offered for notebooks (up to 33 MHz, 800 nm, 1. 4 million transistors). The final stage of the 486 series was the 486DX4 with up to 100 MHz, which was marketed as an economical solution for those who did not want to spend more money on the new Pentium systems. The DX4 was built in a 600 nm process, had 1.6 million transistors, and was rated at 70.7 MIPS.

The year 1989 was also the release year of the i860, Intel’s attempt to enter the RISC processor race and the company’s second major shot at the high-end computer segment. The i860 and i960 never succeeded and were canceled in the early 1990s.

Tip: For those entering the IT field, the best computer hardware certifications include the CompTIA A+ certification, the ACMT (Apple) certification, and the BICSI Technician certification.

1993: Pentium (P5, i586)

The original Pentium was introduced in 1993. In 2005, there were rumors that Intel would drop the name in favor of the new Core brand, but the Pentium brand lives on. The brand is an essential part of Intel’s history and a departure from the 286/386/486 processor numbers; Intel reportedly chose a word to be able to protect the trademark against AMD, which also offered 486-labeled processors.

The P5 Pentium launched with 60 MHz in 1993 and was available with up to 200 MHz (P54CS) in 1996. The original 800 nm design had 3.1 million transistors but scaled to 3.3 million in the 350 nm 1996 design. The P55C was announced in 1997 with MMX (multimedia extensions) and expanded the processor design to 4.5 million transistors and a 233 MHz clock speed. The mobile version of the Pentium MMX remained available until 1999 and reached 300 MHz.

1994-99: Bumps in the road

Throughout the years, Intel has released many successful additions to its lineup of processors and architectures, but not without running into the occasional bump in the road.

In 1994, a professor at Lynchburg College discovered a bug in the Intel P5 Pentium floating-point unit that affected several models of the original Pentium processor. The bug, known as the Pentium FDIV bug, causes the processor to return incorrect decimal results in certain division operations, which stood to cause issues in fields like mathematics and engineering, where precise results were needed.  

Although rare, Byte magazine estimated that about one in 9 billion divides would produce incorrect results. Intel attributed the flaw to missing entries in the processor’s lookup table used by floating-point division circuitry.

In 1999, Intel released the Pentium III processor, the first x86 processor to feature a unique ID number dubbed the PSN, or processor serial number. The PSN could be readily accessed by software if not disabled by the user in the BIOS through the use of the CPUID instruction. 

After its discovery, the PSN caused Intel to come under fire from a number of groups, including the European Parliament, which cited privacy concerns over the ability of PSN to be used by surveillance groups to identify individuals. Intel subsequently removed the PSN feature from its future processors, including the Tualatin-based Pentium IIIs.

1995: Pentium Pro (P6, i686)

Upon its release, the Pentium Pro was a largely misunderstood processor. Many believed the Pro was intended to replace the P5. However, as a precursor to the Pentium II Xeon, the Pentium Pro was tailored to deal with workloads typical for servers and workstations.

Other than what the name implies, the Pentium Pro’s architecture was different from the regular Pentiums and supported out-of-order execution, for example. In addition to the different architecture, the Pentium Pro had a 36-bit address bus, which supported up to 64 GB of memory.

The Pentium Pro was built in 350 nm, had 5.5 million transistors and came in several variants with clock speeds ranging from 150 to 200 MHz. Its most famous application was the integration in the ASCI Red supercomputer, which was the first to break through the 1 teraflop performance barrier.

Key takeaway: The Intel Xeon range was designed for non-consumer products like servers and workstations. As such, Xeon products tend to have higher core counts, greater cache memory, and extra reliability, availability, and serviceability (RAS) features for stable operation.

1997: Pentium II and Pentium II Xeon

The Pentium II was a consumer-focused processor developed on top of the sixth-generation P6 architecture. It was the first Intel CPU delivered in a cartridge-like slot module instead of a socket device. The Pentium II had 2 million more transistors (7.5 million) than the P6, significantly improving 16-bit execution, which was a problem in the initial P6 release, and carried on the MMX instruction set that was introduced with the Pentium.

The Pentium II was released with the 350 nm Klamath core (233 and 266 MHz). Deschutes arrived as a shrink to 250 nm and clock speeds up to 450 nm in 1998. It was also offered as Pentium II Overdrive as an upgrade option for the Pentium Pro. Mobile Pentium II processors got the 250 nm Tonga and 250 nm and 250 nm/180 nm Dixon cores.

In the same year, Intel also offered the Deschutes core as a Pentium II Xeon with a larger cache and dual-processor support.

1998: Celeron

While Celerons are based on the company’s current processor technology, they usually come with substantial downgrades, such as less cache memory, which positions them as processors that are “good enough” for the most basic PC applications. Their presence allows Intel to compete at the bottom end of the PC market.

The first Celeron series was based on the 250 nm Covington core for desktops and the 250 nm Mendocino core (19 million transistors, including L2 on-die cache) for notebooks. The processors were available from 266 to 300 MHz on the desktop and up to 500 MHz on the mobile side. They were updated well into the days of the succeeding Pentium III. Today’s Celerons are based on Sandy Bridge architecture.

Key takeaway: Intel’s low-end consumer processor Celeron launched in 1998 as a variant of the Pentium II processor, and it remains popular almost 25 years later.

1999: Pentium III and Pentium III Xeon

Released in 1999, the Pentium III was Intel’s initial contender in the gigahertz race with AMD. The CPU also countered the low-power challenge from Transmeta in early 2000. The chip was initially released with the 250 nm Katmai core and was quickly scaled down to 180 nm with Coppermine and Coppermine T and 130 nm with the Tualatin core.

The transistor count jumped from 9.5 million in Katmai to 28.1 million in the following cores due to the integrated L2 cache. The initial clock speed was 450 MHz and eventually reached 1,400 MHz with Tualatin. Intel was criticized for rushing out the first gigahertz versions to compete with AMD’s Athlon, which forced the company to recall its gigahertz processors and re-release them later.

Also noteworthy on the consumer side was the announcement of the Mobile Pentium III in 2000, which introduced SpeedStep and a processor clock speed scaling ability, depending on its operation mode. The Mobile Pentium III was announced one day before the announcement of the Transmeta Crusoe processor, and many still believe that the Mobile Pentium III would not have been released without the pressure of Transmeta, which was famous for employing Linux inventor Linus Torvalds.

The Pentium III Xeon was the last Xeon processor tied to the Pentium brand. The chip was released with the Tanner core in 1999. Controversially, Intel introduced the PSN with the Pentium III. The feature caused several privacy complaints, and Intel eventually removed the feature and did not carry it over to future CPUs.

2000: Pentium 4

The Pentium 4 arguably took Intel on a path that led to the most dramatic transformation in the company’s history. Launched in 2000 with the 180 nm Willamette core (42 million transistors), the chip’s Netburst architecture was designed to scale with clock speed; Intel envisioned that the foundation would allow the company to hit frequencies of more than 20 GHz by 2010. Netburst, however, was more limited than initially thought, and by 2003, Intel knew the current leakage and power consumption was increasing too rapidly with higher clock speeds.

Netburst launched with 1.3 and 1.4 GHz, increased to 2.2 GHz with the 130 nm Northwood core (55 million transistors) in 2002, and to 3.8 GHz with the 90 nm Prescott core (125 million transistors) in 2005. Intel also launched the first Extreme Edition processors with the Gallatin core in 2003.

Over time, the Pentium 4 series became increasingly confusing, with Mobile Pentium 4-M processors, Pentium 4E HT (hyperthreading) processors with support for a virtual second core and Pentium 4F processors with the 65 nm Cedar Mill core (Pentium 4 600 series) in 2005. 

Intel planned to replace the Pentium 4 family with the Tejas processor but canceled the project when it was clear that Netburst would not be able to reach clock speeds beyond 3.8 GHz. Core, the following architecture, was a dramatic turnaround to much more efficient CPUs with a strict power ceiling that put Intel’s gigahertz machine in reverse.

2001: Xeon

The first Xeon that did not bring the Pentium brand along was based on Pentium 4’s Netburst architecture and debuted with the 180 nm Foster core. It was available with 1.4 to 2 GHz clock speeds. 

The Netburst architecture continued until 2006, when Intel expanded Xeon to a full line of UP and MP processors with the 90 nm Nocona, Irwindale, Cranford, Potomac and Paxville cores, as well as the 65 nm Dempsey and Tulsa cores.

Similar to its desktop processors, the Netburst processors suffered from excessive power consumption, which forced Intel to revise its processor architecture and strategy. The Netburst Xeons died with the dual-core Dempsey CPU with a clock speed of up to 3.73 GHz and 376 million transistors.

Today’s Xeons are still based on the technology foundation that is also used for desktop and mobile processors, but Intel keeps them in a tight power envelope. The 2006 dual-core Woodcrest chip, a variant of the desktop Conroe chip, was the first representative of this new idea. 

The current Xeons are based on 32 nm Sandy Bridge and Sandy Bridge EP architecture, and Westmere processor designs. The CPUs have up to 10 cores and clock speeds up to 3.46 GHz, as well as up to 2.6 billion transistors.

2001: Itanium

The Itanium has been Intel’s most misunderstood processor, yet it survived over a long period of time. While it follows the idea of the i860 and iAPX 432, it has found some powerful supporters and hasn’t been cut yet. The processor was launched as Intel’s first 64-bit processor and was believed to be Intel’s general idea for a 64-bit platform. However, the Itanium suffered in the 32-bit department and was heavily criticized for its lack of performance in this segment.

Itanium was launched with the 180 nm Merced core in 2001 as a mainframe processor with 733 MHz and 800 MHz clock speeds and 320 million transistors – more than six times the count of a desktop Pentium at the time. 

The Itanium 2 followed in 2002 (180 nm McKinley core, as well as 130 nm Madison, Deerfield, Hondo, Fanwood and Madison cores) and wasn’t updated until 2010 when Intel launched the Itanium 9000 with the 90 nm Montecito and Montvale cores, as well as the 65 nm Tukwila core with a massive 24 MB on-die cache and more than 2 billion transistors.

2002: Hyper-Threading

In 2002, Intel released the first modern desktop processor with simultaneous multithreading technology (SMT), known as Intel Hyper-Threading (HT) Technology. HT Technology first appeared in Intel’s Prestonia-based Xeon processors and later in the Northwood-based Pentium 4 processors. The operating system can execute two threads simultaneously by allowing one thread to run while the other is stalled, usually due to a data dependency.

At the time, Intel claimed a performance improvement of up to 30% over a non-hyperthreaded Pentium 4. In our previous tests, we’ve shown that a hyperthreaded 3 GHz chip can surpass the speed of a non-hyperthreaded 3.6 GHz chip under certain conditions. Intel has continued to include hyperthreading in various processors, including the Itanium, Pentium D, Atom and Core i-Series CPUs.

Key takeaway: Hyperthreading works by duplicating certain processor sections, allowing the operating system to address a single physical processor with two logical processors per core.

2003: Pentium M

The Pentium M 700 series, launched with the 130 nm Banias core in 2003, was targeted at mobile computers. It bore the philosophy of an Intel brand that did not focus its processors on clock speed anymore but rather on power efficiency. The processor was developed by Intel’s design team in Israel led by Mooly Eden, who held a key executive role at the firm for many years.

Banias dropped its clock speeds to between 900 MHz and 1.7 GHz, down from 2.6 GHz of the Pentium 4 Mobile. However, the processor was rated at just 24.5 watts TDP, while the Pentium 4 chip was at 88 watts. The 90 nm shrink was called Dothan and dropped its thermal design power to 21 watts. Dothan had 140 million transistors and clock speeds of up to 2.13 GHz.

The direct successor of Dothan was Yonah, which was released in 2006 as Core Duo and Core Solo but was not related to the Intel Core microarchitecture. The Banias core and its impact on Intel is seen in the same manner as the 4004, 8086 and 386.

2005: Pentium D

The Pentium D was Intel’s first dual-core processor. Still based on Netburst, the first version had the 90 nm Smithfield core (two Northwood cores) and was released as the Pentium D 800 series. It was succeeded by the 65 nm Presler (with two Cedar Mill cores) dual core.

Intel also released Extreme Editions of both processors and capped the maximum clock speed at 3.73 MHz and at a power consumption of 130 watts – the highest ever for any Intel consumer desktop processor (some server processors went up to 170 watts). Smithfield had 230 million transistors; Prescott, 376 million.

2005-09: Terascale Computing Research Program

Intel’s Tera-Scale Computing Research (TSCR) program started sometime around 2005 as a means to address the various challenges faced in scaling chips beyond four cores and to experiment with improving communication within the processors themselves. The TSCR program has yielded several notable devices, including the Teraflops Research Chip and the Single-Chip Cloud Computer (SCC), both of which became significant contributors to Intel’s Xeon Phi line of coprocessors.

The Teraflops Research Chip, codenamed Polaris, is an 80-core processor developed through the TSCR program. The chip features dual floating-point engines, sleeping-core technology and 3D memory stacking, among other things. The purpose of the chip was to experiment on how to effectively scale beyond four cores on a single die and to build a chip that was capable of producing a teraflop of computing performance.

The SCC is a 48-core processor developed through the TSCR program. The idea behind the SCC chip was to have a chip in which several sets of separate cores could communicate directly with each other, similar to the way servers in a data center communicate. 

The chip contains 48 Pentium cores in a 4 x 6, two-dimensional mesh of 24 tiles sharing two cores and 16 KB of cache each. The tiles allow the cores to communicate with each other instead of sending and retrieving data from the main memory, significantly improving performance.

2006: Core 2 Duo

Core 2 Duo was Intel’s strike back against AMD’s Athlon X2 and Opteron processors, which were highly successful at the time. The Core microarchitecture was launched with the 65 nm Conroe (Core 2 Duo E-6000 series) on the desktop, Merom on the mobile side (Core 2 Duo T7000 series) and Woodcrest in the server market (Xeon 5100 series). Intel quickly followed with quad-core versions (Kentsfield Core 2 Quad series for the desktop, Clovertown Xeon 5300 series for servers).

The Core microarchitecture was preceded by one of the most significant restructurings at Intel, as well as a substantial repositioning of the company. While Conroe was developed, Intel positioned its remaining Pentium and Pentium D processors to drive AMD into an unprecedented price war in 2005 and 2006, while the Core 2 Duo processor regained the performance lead over AMD in 2006. Conroe was launched with 1.2 GHz to 3 GHz clock speeds and as a chip with 291 million transistors. The CPUs were updated with a 45 nm Penryn shrink in 2008 (Yorkfield for quad cores).

While Intel always attempted to deliver a die shrink every two years, the arrival of Core 2 Duo also marked the introduction of the company’s tick-tock cadence, which dictates a shrink in uneven years and a new architecture in even years.

2007: Intel vPro

Around 2007, Intel introduced its vPro technology, which isn’t much more than a marketing term for a suite of hardware-based technologies included on select Intel processors produced since then. 

Mainly targeted at the enterprise market, vPro, which is often confused with Intel’s Active Management Technology (AMT), encompasses Intel technologies such as Hyper-Threading, AMT, Turbo Boost 2.0 and VT-x in a single package. For a computer to utilize vPro technology, it must have a vPro-enabled processor, a vPro-enabled chipset and a BIOS that supports vPro technology.

These are some of the major technologies vPro includes:

  • Intel Active Management Technology (AMT) is a set of hardware features that allows systems administrators to remotely access and manage a computer even when the computer is powered off. AMT’s remote configuration technology allows basic configuration to be performed on systems that do not yet have an operating system or other management tools installed.
  • Intel Trusted Execution Technology (TXT) verifies the authenticity of a computer using the Trusted Platform Module (TPM). TXT then builds a chain of trust using various measurements from the TPM, which are used to make trust-based decisions about what software can run. This allows systems administrators to ensure sensitive data is only processed on a trusted platform. 
  • Intel Virtualization Technology (VT) is a hardware-based virtualization technology that allows multiple workloads to share a common set of resources in full isolation. Additionally, VT removes some of the performance overhead incurred by solely using software virtualization.

2008: Core i-Series

Intel’s Core i3, i5 and i7 processors launched with the Nehalem microarchitecture and the company’s 45 nm production process in 2008. The architecture was scaled to 32 nm (Westmere) in 2010 and provided the foundation for Intel processors covering the Celeron, Pentium Core and Xeon brands. Westmere scaled to up to eight cores, up to 3.33 GHz clock speed, and up to 2.3 billion transistors.

Did you know? Westmere was effectively replaced by the 32 nm Sandy Bridge architecture in 2011, which shrank in 2012 to 22 nm in the Ivy Bridge generation (1.4 billion transistors for quad-core processors).

2008: Atom

Atom was launched in 2008 as a processor designed to power mobile internet devices and nettops. The initial 45 nm single chip was sold in a package with a chipset and a thermal design power as low as 0.65 watts. As netbooks became popular in 2008, the less power-efficient Diamondville (N200 and N300 series) core sold in far greater units than the Silverthorne core (Z500 series), which Intel envisioned to be its contender for the ultramobile market.

The initial Atom lacked integration and did not succeed in markets other than netbooks. Even the updated Lincroft (released in 2010 as Z600) could not change that scenario. The current Atom generation for desktop and netbook applications is the 32 nm Cedarview generation (D2000 and N2000 series, released in 2011). Intel attempted to expand Atom into other application areas, such as TVs, but failed mainly due to the lack of integration of Atom.

Atom SoC was released in 2012 with the Medfield core. The Z2000 series is Intel’s first offering for devices such as phones and tablets since its ARMv5-based Xscale core, which the company offered between 2002 and 2005.

Tip: If your business is switching from a PC to a Mac, make sure your crucial business software solutions and apps are available in Mac form.

2010: HD Graphics

In 2010, Intel introduced its Westmere architecture featuring on-die graphics, known as Intel HD Graphics. Previously, any computer not utilizing a discrete graphics card made use of the Intel Integrated Graphics residing on the motherboard’s Northbridge chip.

With Intel’s continued move from its Hub Architecture design to the new Platform Controller Hub (PCH) design, the Northbridge chip was eliminated entirely, and the integrated graphics hardware was moved to the same die as the CPU. Unlike the previous integrated graphics solution, which had a poor reputation of lacking performance and features, Intel’s HD Graphics once again made integrated graphics competitive with discrete graphics manufacturers through major performance increases and low power consumption. 

Intel HD Graphics came to dominate the low-to-midrange device market, picking up an even more substantial share in the mobile device sector. The Intel HD Graphics 5000 (GT3) has a TDP of 15 watts, 40 execution units and a performance output of up to 704 GFLOPS.

In 2013, Intel launched its Iris Graphics and Iris Pro Graphics on a limited set of its Haswell processors as a high-performance version of HD Graphics. The Iris Graphics 5100 is largely the same as the HD Graphics 5000 but features an increased TDP of 28 watts, an increased maximum frequency of 1.3 GHz and a small increase in performance of up to 832 GFLOPS. 

The Iris Pro Graphics 5200, referenced as Crystalwell by Intel, is the first of Intel’s integrated solutions to have its own embedded DRAM, featuring a 128 MB cache for performance improvements in bandwidth-limited tasks. In late 2013, Intel announced that the Broadwell-K series of processors would feature Iris Pro Graphics in place of HD Graphics.

2010: Many Integrated Core Architecture and Xeon Phi

Initial work on Intel’s Many Integrated Core (MIC) Architecture began around 2010, drawing on technology from several earlier projects, such as the Larrabee microarchitecture, the SCC project and the Teraflops Research Chip. Intel’s various MIC Architecture products, which would later come to be known as Xeon Phi, are coprocessors, which are specialized processors designed to increase computing performance by offloading processor-intensive tasks from the CPU.

In May 2010, Intel debuted its first MIC Architecture prototype board, codenamed Knights Ferry, a PCIe card sporting 32 cores at 1.2 GHz and four threads per core. The development board also featured 2 GB of GDDR5 memory, 8 MB of L2 cache, power consumption of around 300 watts and performance exceeding 750 GFLOPS. 

In 2011, Intel announced an improvement to its MIC Architecture, codenamed Knights Corner. It was made using the 22 nm process with Intel’s Tri-Gate transistor technology and had over 50 cores per chip. Knights Corner was Intel’s first commercial MIC Architecture product and quickly was adopted by many companies in the supercomputer industry, including SGI, Texas Instruments and Cray. Knights Corner was officially rebranded as Xeon Phi by Intel in 2012 at the Hamburg International Supercomputing Conference.

Intel revealed its second-generation MIC Architecture, dubbed Knights Landing, in June 2013. Intel announced that the Knights Landing products would be built with up to 72 Airmont cores with four threads per core using the 14 nm process. Additionally, Intel stated that each card would support up to 384 GB of DDR4 RAM, include 8 to 16 GB of 3D MCDRAM and have TDPs ranging from 160 to 215 watts.

Xeon Phi products include the Xeon Phi 3100, Xeon Phi 5110P and the Xeon Phi 7120P, which are all based on the 22 nm process. The Xeon Phi 3100 is capable of more than 1 teraflop of double-precision floating-point performance, with memory bandwidth of 320 Gbps and a recommended price tag of less than $2,000. At the high end of the spectrum, the Xeon Phi 7120P is capable of more than 1.2 teraflops of double-precision floating-point performance, 352 Gbps memory bandwidth and a price tag north of $4,100.

2012: Intel SoCs

Intel’s venture into the system on a chip (SoC) market began around mid-2012 when the company launched its line of Atom SoCs, the earliest of which were merely a lower-power adaptation of earlier Atom processors, which didn’t see much success against ARM-based SoCs. Intel SoCs began to take off in late 2013 with the release of the Baytrail Atom SoCs based on the 22 nm Silvermont architecture.

Like the newly released Avoton chips for servers, the Baytrail chips are true SoCs, with all the components necessary for tablets and laptop computers. They feature TDPs as low as 4 watts. In addition to the Atom-based SoCs, around early 2014, Intel began a serious push to bring its more popular desktop architectures into the high-end tablet market by introducing the Haswell architecture Y SKU suffix ultralow-power processors with TDPs around 10 watts.

In late 2014, Intel started releasing chips based on the Broadwell architecture, further extending its venture into the SoC market with quad-core chips featuring TDPs as low as 3.5 watts and support for up to 8 GB of LPDDR3-1600 RAM.

Tip: When buying a secure business laptop, look for features like biometric security, smart card readers, and encryption.

2013: Core-i Series – Haswell

Intel updated its Core-i series of processors in 2013 with the debut of the 22 nm Haswell microarchitecture, which replaced the 2011 Sandy Bridge architecture.

With the introduction of Haswell, Intel also introduced the Y SKU suffix for its new low-power processors designed for ultrabooks and high-end tablets (10- to 15-watt TDP). Haswell scaled up to 18 cores with the Haswell-EP line of Xeon processors, which featured up to 5.69 billion transistors and clock speeds of up to 4.4 GHz.

In 2014, Intel released a refresh of the Haswell lineup called Devil’s Canyon, featuring a modest boost in clock speeds and an improved thermal interface material to alleviate heat issues faced by enthusiasts and overclockers. The Broadwell die shrink in 2014 scaled down the architecture to 14 nm but did not replace the full line of Haswell CPUs, instead forgoing the inclusion of low-end desktop CPUs.

Key takeaway: The Core-i series represented the point at which Intel began releasing generations of microprocessors, as opposed to separate models like the Pentium II, III, and 4.

2015: Broadwell

With its fourth generation of modern processors, 2015 was the year when 14 nm architecture became the default. After a period of downsizing from 45 nm in 2010 to 22 nm with Haswell, Broadwell was 37% smaller than its immediate predecessor. Battery life could also be expanded by 1.5 hours, with faster wake times.

Other benefits of Broadwell included improved graphics performance with two-channel DDR3L-1333/1600 RAM via 1150 LGA sockets.

2015: Skylake

In the same way Android used to have dessert-themed brands, each generation of Intel processor released since 2015 has had a lake-themed title. Skylake was the first, launched just seven months after Broadwell but returning a 10% improvement in instructions per clock (IPC) thanks to microarchitecture improvements.

These chips were considerably more expensive, limiting their appeal, and their cache was slightly smaller than Broadwell even though speeds could reach 4 GHz. They were used exclusively in Xeon processors, where Broadwell had been used in Celeron, Pentium, Xeon and Core M chips.

2016: Kaby Lake

The first Intel microprocessor to turn its back on the company’s iconic “tick-tock” manufacturing and design model, Kaby Lake was also significant for being the first Intel hardware incompatible with Windows 8 or older iterations.

Improvements over Skylake included faster CPU clock speeds and clock speed changes, though IPC figures were unchanged. It offered superior 4K video processing and was used in Core, Pentium and Celeron processors – but, significantly, not Xeon. A later refresh of Kaby Lake in early 2017 introduced R models, with support for DDR4-2666 RAM.

2017: Ice Lake

After the Core-based Coffee Lake generation, 2017’s third processor was the 10th-generation Ice Lake. Introducing a 10 nm process, this was the first CPU architecture equipped with Wi-Fi 6 and Thunderbolt 3 support, reflecting the move toward ever-faster transfer speeds and connectivity.

Ice Lake is available on Core and Xeon processors, with the SP variant launched in April 2021 with a 3.7GHz max CPU clock rate and up to 40 cores. Capable of executing over 1 teraflop of computing performance, it uses BGA1526 sockets. 

Xeon Silver, Gold and Platinum models have been launched since 2021, while the original range of Intel Core i3/i5/i7 processors from 2019 remains largely available.

2020: Tiger Lake

The most recent 11th-generation Intel Core mobile processors have been christened Tiger Lake. They’ve replaced the Ice Lake mobile processors, offering both dual- and quad-core models. This is the first processor since Skylake to be marketed with the Celeron, Pentium, Core and Xeon brands simultaneously.

As the third generation of 10 nm processors, Tiger Lake chips are specifically designed for lightweight gaming laptops. They offer refresh rates of 100 fps, while the Core i9-11980HK offers a maximum boost clock speed of 5 GHz.

Intel processor timeline

1971-81: The 4004
1978-82: iAPX 86 – 8086, 8088 and 80186 (16-bit)
1981: iAPX 432
1982: 80286
1985-94: 386 and 376
1989: 486 and i860
1993: Pentium (P5, i586)
1994-99: Bumps in the road
1995: Pentium Pro (P6, i686)
1997: Pentium II and Pentium II Xeon
1998: Celeron
1999: Pentium III and Pentium III Xeon
2000: Pentium 4
2001: Xeon, Itanium
2002: Hyper-Threading
2003: Pentium M
2005: Pentium D
2005-09: Terascale Computing Research Program
2006: Core 2 Duo
2007: Intel vPro
2008: Core i-Series, Atom
2010: HD Graphics, Many Integrated Core Architecture and Xeon Phi
2012: Intel SoCs
2013: Core-i Series – Haswell
2015: Broadwell, Skylake
2016: Kaby Lake
2017: Ice Lake
2020: Tiger Lake

Wolfgang Gruener and Christopher Miconi contributed to the writing and research in this article.

Top 18 Best Intel Pentium CPU Processors of 2022 (Reviews)

Mike Davis

Last Updated: Sep 21, 2022

Choosing the best intel pentium cpu processor can be difficult as there are so many considerations, such as Intel and more. We’re here to help you to pick out the top 18 Best Intel Pentium CPU Processors with our handy buying guide.

Our experts tested a variety of intel pentium cpu processors at all prices from $66.00 to $587.00 in the market. We picked Intel CPU Processor as our preferred option. Read on for a list of our top picks, as well as a buying guide on how to select.

* Our editing teams independently research, review, and recommend the best products based on extensive data analysis; if you click on the product links, we may earn a commission from qualifying purchases.

At a Glance: Our Top Picks

#TOP 1

Intel Pentium Gold G5420 Desktop Processor 2 Core 3.8 GHz LGA1151 300 Series 54W

9. 9

FTB Score

Intel Pentium Gold G5420 Desktop Processor 2 Core 3.8 GHz LGA1151 300 Series 54W

#TOP 1

#TOP 2

Intel Pentium Gold G7400 Dual-core 3.70 GHz Processor

9.8

FTB Score

Intel Pentium Gold G7400 Dual-core 3.70 GHz Processor

#TOP 2

#TOP 3

Intel Core i5-6500 Desktop CPU Processor- SR2L6

9. 6

FTB Score

Intel Core i5-6500 Desktop CPU Processor- SR2L6

#TOP 3

Top 18 Best Intel Pentium CPU Processors Reviews 2022

#TOP 1
Best Dual Core CPU Processor

Intel Pentium Gold G5420 Desktop Processor 2 Core 3.8 GHz LGA1151 300 Series 54W

Intel

BX80684G5420

4.57 x 2.76 x 3.98 inches

0.22 pounds

Reviews for Intel
(FTB Score)

9.9

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Customer Reviews


Features

3.8 GHz

2 Cores /4 Threads

Supports Intel Optane Memory

Compatible with Intel 300 Series Chipset Based Motherboards

Bios Update May Be Required for Motherboard Compatibility

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+

#TOP 2

Intel Pentium Gold G7400 Dual-core 3.70 GHz Processor

Intel

G7400

1.40 x 1.77 x 0.20 inches

Reviews for Intel
(FTB Score)


9.8

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Features

With 6 MB Integrated Level 3 Cache, Frequently Used Data Can Be Instantly Accessed

The Socket LGA-1700 Socket Allows Processor to Be Placed on the PCB Without Soldering

Built-In Intel UHD Graphics 710 Controller for Improved Graphics and Visual Quality. Supports Up to 4 Monitors.

Intel

BX80662I56500-cr

4.70 x 4.40 x 3.10 inches

0.33 pounds

Reviews for Intel
(FTB Score)


9.6

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Features

DDR4 & DDR3L Support

LGA 1151

Intel Turbo Boost Technology

Display Resolution Up to 4096×2304

Compatible with Intel 100 Series Chipset Motherboards

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+

Intel

CM8068403360112

0.01 pounds

Reviews for Intel
(FTB Score)

9.4

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Features

Weight: 0.300 Lbs

UPC: 715663075059

Intel

BX8071512900K

6.46 x 5.12 x 5.47 inches

0.97 pounds

Reviews for Intel
(FTB Score)


9.4

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Features

30 MB of L3 Cache Memory Provides Excellent Hit Rate in Short Access Time Enabling Improved System Performance

The Processor Features Socket LGA-1700 Socket for Installation on the PCB

Intel 7 Architecture Enables Improved Performance Per Watt and Micro Architecture Makes It Power-Efficient

10 Nm Enables Improved Performance Per Watt and Micro Architecture Makes It Power-Efficient

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+

#TOP 6

Intel Pentium Gold G5400 Desktop Processor 2 Core 3.

7GHz LGA1151 300 Series 54W/58W BX80684G5400

Intel

BX80684G5400

4.57 x 2.76 x 3.98 inches

6.04 kilograms

Reviews for Intel
(FTB Score)


9.2

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Features

BX80684G5400

Intel

BX8070110700K

7.09 x 6.30 x 3.94 inches

0.18 pounds

Reviews for Intel
(FTB Score)

9.1

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Features

Socket Type LGA 1200

8 Cores / 16 Threads

Up to 5.1 GHz Unlocked

Intel Turbo Boost Max Technology 3.0 Support

Intel Optane Memory Support

Graphics Base Frequency: 350 MHz

Compatible with Intel 400 Series Chipset Based Motherboards.Bus Speed: 8 GT/s

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+

#TOP 8

Intel BX80662G4400 Pentium Processor G4400 3.3 GHz FCLGA1151

Intel

BX80662G4400

4.60 x 4.40 x 2.90 inches

0.01 pounds

Reviews for Intel
(FTB Score)


9. 1

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Features

Design That Delivers High Availability, Scalability, and for Maximum Flexibility and Price/performance

Boxed Intel Pentium Processor G4400 (3M Cache, 3

Made in China

Instruction Set Is 64 Bit. Instruction Set Extensions Are Intel Sse4.1 and Intel Sse4.2

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Intel

BX8071512600K

4.57 x 1.73 x 3.98 inches

0.18 pounds

Reviews for Intel
(FTB Score)


9.1

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Customer Reviews


Features

The Socket LGA-1700 Socket Allows Processor to Be Placed on the PCB Without Soldering

Intel Core I5 Deca-Core (10 Core) 3. 70 GHz Processor Offers Hyper-Threading Architecture That Delivers High Performance for Demanding Applications with Improved Onboard Graphics and Turbo Boost

Intel 7 Architecture Enables Improved Performance Per Watt and Micro Architecture Makes It Power-Efficient

Built-In Intel UHD Graphics Controller for Great Graphics and Visual Quality

16 MB of L3 Cache Rapidly Retrieves the Most Used Data Available to Improve System Performance

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+

Intel

BX80677I77700

14.48 x 5.07 x 4.92 inches

0.53 pounds

Reviews for Intel
(FTB Score)


9.1

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Features

3. 60 GHz Up to 4.20 GHz Max Turbo Frequency / 8 MB Cache

4 Cores / 8 Threads

Intel UHD Graphics 630

Intel Optane Memory Supported

Compatible Only with Motherboards Based on Intel 100 Or 200 Series Chipsets

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#TOP 11

Intel Core i9-10900K Desktop Processor 10 Cores

Intel

BX8070110900K

3.54 x 5.24 x 6.10 inches

0.95 pounds

Reviews for Intel
(FTB Score)


9.0

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Features

10 Cores / 20 Threads

Socket Type LGA 1200

Up to 5. 3 GHz Unlocked

Compatible with Intel 400 Series Chipset Based Motherboards

Intel Turbo Boost Max Technology 3. 0 Support

Intel Optane Memory Support

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Intel

BX8070811700K

4.57 x 1.73 x 3.98 inches

0.15 pounds

Reviews for Intel
(FTB Score)


8.9

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Features

Intel Turbo Boost Max Technology 3.0 Support

Compatible with Intel 500 Series & Select Intel 400 Series Chipset Based Motherboards

PCIe Gen 4.0 Support

No Thermal Solution Included

Intel Optane Memory Support

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+

Intel

BX8070110400F

2.80 x 4.17 x 4.69 inches

0. 22 pounds

Reviews for Intel
(FTB Score)


8.7

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Features

Socket Type LGA 1200

6 Cores / 12 Threads

Up to 4.3 GHz

Intel Optane Memory Support

Cooler Included

Compatible with Intel 400 Series Chipset Based Motherboards

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+

#TOP 14

Intel® Core™ i5-11400F Desktop Processor 6 Cores

Intel

BXC8070811400F

4.57 x 2.76 x 3.98 inches

0.64 pounds

Reviews for Intel
(FTB Score)

8.7

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Features

Intel Optane Memory Support

Compatible with Intel 500 Series & Select Intel 400 Series Chipset Based Motherboards

Thermal Solution Included

PCIe Gen 4.0 Support

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+

Intel

BX8070110400

2.91 x 4.17 x 4.72 inches

0.58 pounds

Reviews for Intel
(FTB Score)


8.5

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Customer Reviews


Features

Socket Type LGA 1200

6 Cores / 12 Threads

Up to 4. 3 GHz

Intel Optane Memory Support

Cooler Included

Compatible with Intel 400 Series Chipset Based Motherboards

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+

Intel

BX80684I39100

4.57 x 2.76 x 3.98 inches

0.22 pounds

Reviews for Intel
(FTB Score)


8.3

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Features

Up to 4.2 GHz

4 Cores /4 Threads

Supports Intel Optane Memory

Compatible with Intel 300 Series Chipset Based Motherboards

Bios Update May Be Required for Motherboard Compatibility

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Intel

BX8070110600K

1. 73 x 4.09 x 4.65 inches

0.22 pounds

Reviews for Intel
(FTB Score)


8.2

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Features

Socket Type LGA 1200

6 Cores / 12 Threads

Up to 4. 8 GHz Unlocked

Intel Optane Memory Support

Compatible with Intel 400 Series Chipset Based Motherboards

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+

Intel

BX8071512400

1.77 x 1.77 x 0.20 inches

1.00 pounds

Reviews for Intel
(FTB Score)

8.0

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Features

The Processor Features Socket LGA-1700 Socket for Installation on the PCB

Intel Core I5 2.50 GHz Processor Offers Hyper-Threading Architecture That Delivers High Performance for Demanding Applications with Improved Onboard Graphics and Turbo Boost

Its 18 MB of L3 Cache Is Good Enough to Carry Routine Data and Process Them in a Flash Giving You Fast and Smooth Performance

Built-In Intel UHD Graphics 730 Controller for Improved Graphics and Visual Quality. Supports Up to 4 Monitors.

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Sorting Out the Intel Pentium CPU Processors That Are Right for You

Editor’s Notes

During our intel pentium cpu processor research, we found 521 intel pentium cpu processor products and shortlisted 18 quality products. We collected and analyzed 40,850 customer reviews through our big data system to write the intel pentium cpu processors list. We found that most customers choose intel pentium cpu processors with an average price of $230.97.

The intel pentium cpu processors are available for purchase. We have researched hundreds of brands and picked the top brands of intel pentium cpu processors, including Intel and more. The seller of top 1 product has received honest feedback from 17 consumers with an average rating of 3.6.

Written by

Mike Davis

Mike Davis is a professionally trained electrician with six years of working experience in the electronics industry. He has written an array of web and mobile-based articles for e-magazines and blogs. He loves trying out some novel and popular gadgets and his expertise is in the areas of electronics and computers which is built over many years of working and personal experiences.

nearest common ancestor / Habr

Perhaps I should have written this article a month earlier, because it was on November 1, 1995 that the latest Intel® processor for servers and workstations, the Pentium® Pro, saw the light of day, which eventually became a legend. Based on the name, you might think that this is just an advanced version of the good old Pentium, which at that time had just begun to enter the mainstream segment.

Progress in those days was at a rapid pace, and not as it is now — crawling like a wounded snail. The new «stone» had so many innovations that neither before nor after it can be compared with it. However, this is not what made him legendary. He became a legend due to the fact that, despite the fact that many people heard about him, not everyone had a chance to see the processor live.

The reason for this is simple: all this time the line has been developing in parallel with the classic Pentium®. Yes, later there were Pentium® II Xeon®, Pentium® III Xeon®, hereinafter simply Xeon®, but they were all based on the same microarchitecture as their contemporary desktop processors, not fundamentally different from them.

Perhaps only Itanium® was as “out of touch with the people”. Although top desktop computers (especially branded ones) based on these processors were released, they rarely got into the home environment, and not even because of the price. Most of them worked under Windows NT or OS / 2, which were not very popular among ordinary users.

Installing Windows 95 didn’t make much sense — Pentium® Pro was the first processor optimized for executing 32-bit code, and showed very modest results in 16-bit applications. However, there will be no tests in the text — there will be many letters and beautiful pictures.

A bit of mythology

Perhaps, in this place it is worth digressing and returning to the beginning of the 2000s, when the hero of the article was no longer young (now we can safely sit for 5-7 years without replacing the processor, and then the average period of relevance of the platform was 2-3 years). It was around this time that I first heard about the Pentium® Pro and was surprised. The cool description of the processor seemed strange to me, because at that time I did not know the whole sequence of the history of its creation.

It did not have MMX support, platforms for it only supported FPM DRAM (Fast Page Mode Random Access Memory) and EDO DRAM (Extended Data Out Random Access Memory). For me then it was just “sims”, I didn’t know about DIMMs with FPM and EDO chips then. Such platforms could not work with disk drives even in UDMA/33 mode. Although all this was in ordinary (the key word is “late”) Pentiums. I’m already silent about the lack of AGP.

As a result, the main myth associated with the hero of the day is that Intel allegedly “squeezed” MMX and provided its top processor with a frankly weak platform. If we consider the facts with the gaze of a historian of technology, then everything looks different.

Fact Pack

Before turning to history, let’s face the facts about our hero.

Official specifications:

  • Frequency — 150 to 200 MHz. There were also engineering samples at 133 MHz and «overdrive» (it will be discussed separately) at 333 MHz.
  • System bus frequency — 60 MHz (150 and 180 MHz models) or 66 MHz (all others).
  • L1 cache — 16 KB.
  • L2 cache — 256, 512, or 1024 KB running at core speed.
  • Process technology — 0.6 (133 MHz), 0.5 (150 MHz) or 0.35 (166-200 MHz) for the core, 0.5 (256 KB) or 0.35 (512 KB) for the L2 cache.
  • Connector — Socket 8 (387 SPGA pins, some of the pins are staggered), ceramic or plastic (for the 200 MHz model with 1024 KB cache) case.

But these are just dry numbers. Let’s go over some more interesting facts:

  • At the moment (November 2020), this is the physically largest x86 processor. The dimensions of the case are as much as 63×68 mm. That’s more than the Intel® Xeon® Scalable and AMD EPYC/Ryzen™ Threadripper™.
  • This is the first x86 processor with a full-speed L2 cache connected to the core by a separate bus (Pentium 60/66 formally had a full-speed cache, but it was located on the system bus outside the processor package).
  • This is the first x86 processor with an integrated (in-chassis) L2 cache.
  • This is the first x86 processor with a multi-chip layout: core and cache dies were located in one package, and 2 cache dies were used in the top version.
  • Not really about the processor, but about the chipset for it: the first x86 system with multi-channel RAM (the 450KX/GX chipsets supported FPM memory with 2 or 4-way Interleave).
  • First x86 processor with out-of-order execution.
  • And finally, the most important thing: this is the first x86 Intel processor with a RISC core and translation of native x86 instructions into microcode (NexGen was a year ahead of Intel, introducing its Nx586 in 1994).

With the exception of the NetBurst microarchitecture (Pentium® 4/Pentium® D) and the descendants of Atom®, all other x86 Intel® processors are a direct (albeit very serious) development of the P6 core used in the Pentium® Pro. This fact, together with the last item on the list, allows us to call it the “common ancestor” of most modern Intel® CPUs.

There were major innovations after: multi-core, transition to 64-bit architecture. But the key points that gave the x86 architecture access to the «heavy equipment» segment — servers and workstations, were precisely the transition to an internal RISC core and the introduction of Out-of-order execution.

Main course — history

One of the purposes of history is to dispel myths. This is what we will do. So, it’s autumn 1995 in the yard. The 486 processor is not outdated yet — the latest new processors from Intel® (486DX4-100) and chipsets came out a year and a half ago, AMD updated its 5×86 (not to be confused with K5, which was already an analogue of Penitum®!) quite recently. Many still use 386 and earlier machines. Pentium® seems to be the pinnacle of progress — superscalar architecture, 64-bit external bus. Only in June a 133 MHz model, a real Hi End, was released. No more MMX, processors with it will be released only in 1997 year.

The top chipset at that time — 430NX (Neptune, 4-5 chips) — supports up to 512 MB of FPM memory with parity, but without the ECC error correction mechanism, allows you to combine up to two processors on one board, supports PCI and EISA buses ( optional). And at the same time, it still does not have its own IDE controller (probably not so scary — all the same, serious machines were made with SCSI).

It was only in January 1995 that a mid-level Pentium® chipset appeared — 430FX (Triton I, 2 chips, up to 128 MB FPM / EDO memory, of which only 64 are cacheable, IDE maximum PIO4 with speeds up to 16.6 MB / sec). And yet, the prices for Pentium machines are still very high.

Features and prices

And on November 1, Intel is the light of our hero. Frequencies — up to amazing 200 MHz (150, 180 and 200 MHz versions with 256 KBytes of cache were presented), the cache moved from the motherboard to the processor case (but still on a separate chip). Only the Digital (DEC) Alpha 21164 was faster, reaching an incredible 333 MHz in October of that year, but it was also much more expensive.

This was already a real RISC for high-end workstations. But the Pentium Pro prices were by no means for the economy class — from $ 974 to $1325 in quantities of 1000 or more. Later models with large amounts of cache were even more expensive — up to $ 2675 for a model with 1 MB of cache.

The accompanying chipsets were no less interesting — 450KX (Mars) and 450GX (Orion). Mars supported 2 processors and up to 1 GB of dual-channel FPM memory with ESS and was designed for workstations. Orion aimed at the server market and already supported 4 processors (officially) and up to 8 GB of RAM in four channels.

Both chipsets could work with memory in multi-channel mode, while imposing certain restrictions on memory selection — dual-channel mode required 4 SIMMs or 2 DIMM modules, quad-channel mode required 8 SIMMs or 4 DIMMs.

Please note that DIMM does not mean SDRAM, there were also original “sim” FPMs in this format. As you can see, the characteristics are more than up to the mark — of the newfangled chips, there was only EDO support, and then — in fact, EDO memory works on at least a part of the boards, of course, with the performance of a regular FPM. Thus, the myth about the backwardness of the platform in terms of memory support and external buses, in my opinion, has been dispelled.

Chipsets: monster corporation

The chipsets themselves were monstrous — the standard kit included not the usual two chips, but as many as … eight. Let’s count? PCI bus bridge — one, memory controller of two chips (DRAM Control and Data Path) — two and three, four physical memory interface chips (already 7) and the classic PIIX south bridge — eight! Such a kit, for example, was placed on the first board announced by Intel for new processors, the Intel® Performance/AU «Aurora».

This was one of the first (second, by my count, after Intel® Advanced/ATX «Thor» on the i430FX) boards in the new ATX form factor. All this “goodness” barely fit on a full-size board, leaving room for only four memory slots. And this is the standard set. Each memory controller in the 450GX set supported up to 4 GB of memory, to support the full amount it was necessary to add one more controller and physical interfaces for it — plus six more chips. Total — fourteen!

Some companies soon introduced servers with six or even eight processors — ALR Revolution 6×6 (it was also sold under the Unisys and Gateway 2000 brands), Axil Northbridge, NCR OctaScale. NCR and Corollary introduced their chipsets (probably extensions for Intel® chipsets — so far I have not been able to find information about them) to implement eight-processor machines.

Moreover, Corollary introduced the famous Profusion, which many sources confuse with Intel 450NX — these are different products. The 450NX supported up to four Pentium® II/III Xeon® processors, Profusion supported up to eight. By the time the Xeon® Corollary was released, it was already owned by Intel, but that’s another story.

Updates

In 1996, an update arrived — models with 512 KBytes of cache and a new chipset appeared — Intel 440FX, replacing the previous 450KX. There were only two fundamental innovations in it: support for EDO/BEDO memory and USB bus (not implemented in all boards), while the memory controller lost its multichannel mode of operation. But something else was more important — the reduced cost of boards based on the new set, because it was located «only» in three chips:

  • Data Bus Accelerator,
  • PCI and Memory Controller,
  • Southbridge PIIX3.

«Large» servers weren’t supposed to upgrade (and didn’t really need to!) — the new Xeon® also got the 450 chipset in the slightly updated version of NX.

Note that the new 440FX is functionally close to the high-end Pentium® 430HX. While the simpler 430VX received support for SDRAM, this did not improve its performance. In April of the same year, VIA Technologies announced its plans to release the Apollo chipset (690) with SDRAM support, but only one board model is known that was released on it, which did not see large-scale production. I haven’t even been able to find a photo of her yet.

Other chipset manufacturers, numerous at the time, also announced support for the Pentium® Pro, but all these chipsets were released after the announcement of the Pentium® II, and all boards on them were already manufactured with the Slot1 connector. The reason is simple: the Pentium® Pro remained in the upper market segment and the more budgetary chipsets for it were not of interest to the target audience.

Pentium® II Coming

And so, the eventful year 1997 struck. In January, the new Pentium® MMX for multimedia PCs and the new 430TX chipset (with more adequate SDRAM support than the VX, but still unable to cache more than 64 MB of memory, which clearly indicated its niche) appeared. Also, the processors lost support for SMP (some sources claim that it was still available in processors with a frequency of up to 166 MHz).

A few months later, in May, the new Pentium® II (Klamath core) was released — with MMX support and slightly higher frequencies. Importantly, it demonstrated much higher performance when executing the usual 16-bit code. At the same time, to reduce the cost, he received a new layout, a SECC cartridge, inside of which there was a printed circuit board with a soldered processor core and cache memory chips.

The cache size was kept at 512 KB, like the latest Pentium® Pro at that time, but the speed was cut to half the core frequency. The cacheable amount of RAM was 512 MB in the first Pentium® II versus 4 GB in the Pentium® Pro and later Pentium® II on the Deschutes core.

Support for multiprocessor configurations is also limited in the new processor — the maximum number of processors in the system was two. He also inherited only one chipset from the Pentium® Pro — 440FX. On the one hand, it seemed that Pentium® Pro’s song had been sung, on the other hand, there was some kind of understatement in its history.

In August 1997, Intel releases two related products that are not meant to be used together. The first was the 440LX chipset, which brought full support for SDRAM (EDO support remained, but the maximum memory size was halved to 512 MB!), fast UDMA/33 drives, and a new bus for video cards — AGP.

Theoretically, it could work with our hero (the bus was updated slightly — 66 MHz GTL+ instead of 60/66 MHz GTL), but there were practically no boards with a Socket 8 connector released, software support for Pentium Pro with a Slot1-Socket8 adapter was not implemented by board manufacturers . This was done much later by retrosystem enthusiasts.

Meet the Pentium® Pro

The second product of August was… the new Pentium® Pro! The same coveted by many option at 200 MHz with 1 MB of L2 cache. He received a new plastic case containing as many as three chips, two of which were crystals with 512 KB of cache memory. It also became the hottest x86 processor at that time — as much as 47 W TDP! At the same time, he did not receive MMX support.

With this maneuver, Intel split the processors into niches — the universal version of the Pentium® II, the budget Pentium® MMX (after which it was replaced by Intel® Celeron) and the server Pentium® Pro (there was almost no talk of workstations — in many cases Pentium® II became preferable , only when 512 MB of RAM was not enough, he could not replace his predecessor).

Thus, our hero remained the «king» of the x86 world for almost a year — until April 1998, when his real successor Pentium® II Xeon® appeared — with a full-speed cache (from 512 KB to 2 MB), a faster 100 MHz bus and, of course, new chipsets. But the end of the Pentium® Pro story has not yet been played.

Front of Intel® Pentium® II OverDrive™ Processor

Back of Intel® Pentium® II OverDrive™ Processor
On June 12, 1997, the ASCI Red supercomputer was launched, based on a set of servers with Pentium Pro processors, united in a cluster. After a while, on August 10, 1998, the last Socket 8 processor appeared, designed specifically to update this system. It was given the name Pentium® II OverDrive™ and was the last «OverDrive» released by Intel.

The processor was released in a limited series, part of which went on sale to the general public. It was based on the Deschutes core, running at 333 MHz, accompanied by 512 KB of full-speed cache from the Pentium® II Xeon®. It was a specialized compromise solution with a very original layout — a small board housed the core, cache and VRM module, which lowered the power supply from the standard Pentium Pro 3. 1-3.3 V to the 2.0 V required by Deschutes.

A plastic mating connector with 387 legs was placed at the bottom of the board. From the Pentium® II, he inherited support for MMX instructions and a limitation on the maximum number of processors in one system, but this was enough for the customer — ASCI Red consisted of two processor modules. This is where the history of the Pentium Pro as a platform ends.

In the hands of a collector

It’s hard for me to say when the hero of this article moved from the category of obsolete technology to the area of ​​​​interest for collectors of retro technology. I started my collection back in 2008. Perhaps some of you know the name «Digital Vintage». Initially, I dealt exclusively with mobile equipment, and thanks to the cooperation with Selectel, it became possible to place full-size exhibits.

Even then it was not easy to find these cars, although they were often given away at symbolic prices. I started my search three years ago, by that time it was already believed that “every self-respecting collector” should have at least a processor in his collection.

Getting processors was no problem, but I didn’t have much luck with the platform for a long time — I missed some interesting announcements for the sale of complete machines and motherboards. The aura of the legend, the relatively small number of released components, and the beauty of the ceramic processor with a golden cover played a cruel joke — many people ripped out only the processor from old machines, and the rest was sent for recycling.

It wasn’t until this summer that I got my hands on the Venus, the Intel® Performance/VS «Venus» board, and a little later, the early Aurora, the Intel® Performance/AU «Aurora» mentioned earlier. Based on them, two machines were assembled (for joy, I came up with my own self-assembly brand “SERVERGHOST” in honor of my first home server). Both computers are assembled from authentic components of those years and are equipped with appropriate software — they «pretend» to be a developer’s workplace under Windows NT and OS / 2 Warp, respectively. We also managed to borrow a rare Pentium® II OverDrive™ from a colleague for the photo session.

Characteristics of two retro machines:

«Early» machine — SERVERGHOST Constellation P6/SE Big Tower:

  • Intel® Pentium® Pro 180 MHz with 256 KB L2 cache.
  • Intel® Performance/AU «Aurora» based on the Intel 450KX chipset.
  • 128 MB RAM (4×32 MB SIMM).
  • Adaptec AHA-2940U SCSI controller.
  • 2.1 GB Quantum SCSI hard drive.
  • Video card 4 MB Matrox Millennium.
  • Yamaha sound card.
  • Intel Pro/100 PCI Network Card.
  • 8x CD-ROM LG with slot loading.
  • Installed OS/2 Warp 3.0 (Connect), Sybil 2.0 development environment and everyday software suite.

Late machine — SERVERGHOST Constellation P6/SE Desktop:

  • Intel® Pentium® Pro 200 MHz with 256 KB L2 cache.
  • Intel® Performance/VS «Venus» based on the Intel 440FX chipset (also known as the Intel VS440FX).
  • 128 MB RAM (4×32 MB SIMM).
  • BusLogic Flashpoint LT SCSI controller.
  • 4.3 GB Seagate SCSI hard drive (7200 rpm).
  • Video card 4 MB Matrox Millennium.
  • Sound card Creative Sound Blaster 16 PnP ISA
  • Intel® Pro/100 PCI Network Card.
  • 12x CD-ROM Vuego.
  • Installed Windows NT 4.0 Workstation, Delphi 3 development environment and everyday software suite.

The plans include assembling a two-processor machine (the board is being searched) and purchasing a four-processor server or, if you’re lucky, an ALR 6×6.

Naturally, there has been no talk of any daily use of these machines for a long time — you can go online, but only a few sites are available for viewing, especially if you use authentic software. The main problem is the abundance of JavaScript and modern encryption algorithms that Netscape 1996 does not support.

The office software of those years is quite functional, but, of course, it does not have any cloud functions, 3D graphics are in their infancy, video viewing is available, but with great limitations — these machines do not pull out the same DivX or MPEG-2. But you can listen to music, even in parallel with other tasks. In the server version, it is quite possible to implement a web server, but it will be effective, perhaps, only when hosting a website in a retro style and with a minimum of dynamic pages.

Instead of a conclusion

Unfortunately, the status of a legend does not prolong the active life of its owner and does not help to keep this legend in its complete form. Retrocomputing (and especially retrogaming) is now in vogue, raising the price of old hardware to obscene. But if “gaming” hardware is relatively common and not so difficult to find (although prices are sometimes completely inadequate), then “heavy” equipment is an order of magnitude more difficult to find.

In the 90s, not many companies could afford serious workstations and servers, and after the service life, much was not dragged home (because it was often useless at home), but disposed of. And yet, the “heavy retro” business lives on and, I hope, will live on!

Intel® Pentium® Pro — 25 Years Old: Nearest Common Ancestor

On November 1, 1995, the latest Intel® processor for servers and workstations, the Pentium® Pro, was released and became a legend over time.

Based on the name, you might think that this is just an advanced version of the good old Pentium, which at that time had just begun to enter the mainstream segment.

Progress in those days was at a rapid pace, and not as it is now — crawling like a wounded snail. The new «stone» had so many innovations that neither before nor after it can be compared with it. However, this is not what made him legendary. He became a legend due to the fact that, despite the fact that many people heard about him, not everyone had a chance to see the processor live.

The reason for this is simple: all this time the line has been developing in parallel with the classic Pentium®. Yes, later there were Pentium® II Xeon®, Pentium® III Xeon®, hereinafter simply Xeon®, but they were all based on the same microarchitecture as their contemporary desktop processors, not fundamentally different from them.

Perhaps only Itanium® was as “out of touch with the people”. Although top desktop computers (especially branded ones) based on these processors were released, they rarely got into the home environment, and not even because of the price. Most of them worked under Windows NT or OS / 2, which were not very popular among ordinary users.

Installing Windows 95 didn’t make much sense — Pentium® Pro was the first processor optimized for executing 32-bit code, and showed very modest results in 16-bit applications. However, there will be no tests in the text — there will be many letters and beautiful pictures.

A bit of mythology

Perhaps, in this place it is worth digressing and returning to the beginning of the 2000s, when the hero of the article was no longer young (now we can sit quietly for 5-7 years without replacing the processor, and then the average platform relevance period was 2-3 of the year). It was around this time that I first heard about the Pentium® Pro and was surprised. The cool description of the processor seemed strange to me, because at that time I did not know the whole sequence of the history of its creation.

It did not have MMX support, platforms for it only supported FPM DRAM (Fast Page Mode Random Access Memory) and EDO DRAM (Extended Data Out Random Access Memory). For me then it was just “sims”, I didn’t know about DIMMs with FPM and EDO chips then. Such platforms could not work with disk drives even in UDMA/33 mode. Although all this was in ordinary (the key word is “late”) Pentiums. I’m already silent about the lack of AGP.

As a result, the main myth associated with the hero of the day is that Intel allegedly “squeezed” MMX and provided its top processor with a frankly weak platform. If we consider the facts with the gaze of a historian of technology, then everything looks different.

Pack of facts

Before turning to history, let’s face facts about our hero.

Official specifications:

  • Frequency — 150 to 200 MHz. There were also engineering samples at 133 MHz and «overdrive» (it will be discussed separately) at 333 MHz.
  • System bus frequency — 60 MHz (150 and 180 MHz models) or 66 MHz (all others).
  • L1 cache — 16 KB.
  • L2 cache — 256, 512, or 1024 KB running at core speed.
  • Process technology — 0.6 (133 MHz), 0.5 (150 MHz) or 0.35 (166-200 MHz) microns for the core, 0.5 (256 KB) or 0.35 (512 KB) for the L2 cache.
  • Connector — Socket 8 (387 SPGA pins, some of the pins are staggered), ceramic or plastic (for the 200 MHz model with 1024 KB cache) package.

But these are just dry numbers. Let’s go over some more interesting facts:

  • At the moment (November 2020), this is the physically largest x86 processor. The dimensions of the case are as much as 63×68 mm. That’s more than the Intel® Xeon® Scalable and AMD EPYC/Ryzen™ Threadripper™.
  • This is the first x86 processor with a full-speed L2 cache connected to the core by a separate bus (Pentium 60/66 formally had a full-speed cache, but it was located on the system bus outside the processor package).
  • This is the first x86 processor with an integrated (in-chassis) L2 cache.
  • This is the first x86 processor with a multi-chip layout: the core and cache dies were located in one package, and the top version used 2 cache dies.
  • Not really about the processor, but about the chipset for it: the first x86 system with multichannel RAM (450KX/GX chipsets supported FPM memory with 2 or 4-way Interleave).
  • First x86 processor with out-of-order execution.
  • Finally, and most importantly, this is Intel’s first x86 processor with a RISC core and translation of native x86 instructions into microcode (NexGen was a year ahead of Intel with its Nx586 in 1994).

With the exception of the NetBurst microarchitecture (Pentium® 4/Pentium® D) and Atom® descendants, all other x86 Intel® processors are a direct (albeit very serious) development of the P6 core used in the Pentium® Pro. This fact, together with the last item on the list, allows us to call it the “common ancestor” of most modern Intel® CPUs.

There were major innovations after: multi-core, transition to 64-bit architecture. But the key points that gave the x86 architecture access to the «heavy equipment» segment — servers and workstations, were precisely the transition to an internal RISC core and the introduction of Out-of-order execution.

Main course — history

One of the tasks of history is to dispel myths. This is what we will do. So, it’s autumn 1995 in the yard. The 486 processor is not outdated yet — the latest new processors from Intel® (486DX4-100) and chipsets came out a year and a half ago, AMD updated its 5×86 (not to be confused with K5, which was already an analogue of Penitum®!) quite recently. Many still use 386 and earlier machines. Pentium® seems to be the pinnacle of progress — superscalar architecture, 64-bit external bus. Only in June a 133 MHz model, a real Hi End, was released. No more MMX, processors with it will be released only in 1997 year.

The top chipset at that time — 430NX (Neptune, 4-5 chips) — supports up to 512 MB of FPM memory with parity, but without the ECC error correction mechanism, allows you to combine up to two processors on one board, supports PCI and EISA buses ( optional). And at the same time, it still does not have its own IDE controller (probably not so scary — all the same, serious machines were made with SCSI).

It was only in January 1995 that a mid-level Pentium® chipset appeared — 430FX (Triton I, 2 chips, up to 128 MB FPM / EDO memory, of which only 64 are cacheable, IDE maximum PIO4 with speeds up to 16.6 MB / sec). And yet, the prices for Pentium machines are still very high.

Characteristics and prices

And now on November 1, Intel reveals the light of our hero. Frequencies — up to amazing 200 MHz (150, 180 and 200 MHz versions with 256 KBytes of cache were presented), the cache moved from the motherboard to the processor case (but still on a separate chip). Only the Digital (DEC) Alpha 21164 was faster, reaching an incredible 333 MHz in October of that year, but it was also much more expensive.

This was already a real RISC for high-end workstations. But the Pentium Pro prices were by no means for the economy class — from $ 974 to $1325 in quantities of 1000 or more. Later models with large amounts of cache were even more expensive — up to $ 2675 for a model with 1 MB of cache.

The accompanying chipsets were no less interesting — 450KX (Mars) and 450GX (Orion). Mars supported 2 processors and up to 1 GB of dual-channel FPM memory with ESS and was designed for workstations. Orion aimed at the server market and already supported 4 processors (officially) and up to 8 GB of RAM in four channels.

Both chipsets could work with memory in multi-channel mode, while imposing certain restrictions on memory selection — dual-channel mode required 4 SIMMs or 2 DIMM modules, quad-channel mode required 8 SIMMs or 4 DIMMs.

Please note that DIMM does not mean SDRAM, there were also original «sim» FPMs in this format. As you can see, the characteristics are more than up to the mark — of the newfangled chips, there was only EDO support, and then — in fact, EDO memory works on at least a part of the boards, of course, with the performance of a regular FPM. Thus, the myth about the backwardness of the platform in terms of memory support and external buses, in my opinion, has been dispelled.

Chipsets: monster corporation

The chipsets themselves were monstrous — the standard package included not the usual two chips, but as many as … eight. Let’s count? PCI bus bridge — one, memory controller of two chips (DRAM Control and Data Path) — two and three, four physical memory interface chips (already 7) and the classic PIIX south bridge — eight! Such a kit, for example, was placed on the first board announced by Intel for new processors, the Intel® Performance/AU «Aurora».

This was one of the first (second, by my count, after Intel® Advanced/ATX «Thor» on the i430FX) boards in the new ATX form factor. All this “goodness” barely fit on a full-size board, leaving room for only four memory slots. And this is the standard set. Each memory controller in the 450GX set supported up to 4 GB of memory, to support the full amount it was necessary to add one more controller and physical interfaces for it — plus six more chips. Total — fourteen!

Some companies soon introduced a server with six or even eight processors — ALR Revolutoin 6 × 6 (it was also sold under the Unisys and Gateway 2000 brands), Axil Northbridge, NCR OctaScale. NCR and Corollary introduced their chipsets (probably extensions for Intel® chipsets — so far I have not been able to find information about them) to implement eight-processor machines.

Moreover, Corollary introduced the famous Profusion, which many sources confuse with Intel 450NX — these are different products. The 450NX supported up to four Pentium® II/III Xeon® processors, Profusion supported up to eight. By the time the Xeon® Corollary was released, it was already owned by Intel, but that’s another story.

Updates

In 1996, an update arrived — models with 512 KBytes of cache appeared and a new chipset — Intel 440FX, replacing the previous 450KX. There were only two fundamental innovations in it: support for EDO/BEDO memory and USB bus (not implemented in all boards), while the memory controller lost its multichannel mode of operation. But something else was more important — the reduced cost of boards based on the new set, because it was located «only» in three chips:

  • Data Bus Accelerator,
  • PCI and Memory Controller,
  • PIIX3 Southbridge.

«Large» servers weren’t supposed to be upgraded (and didn’t really need to!) — the 450 chipset in the slightly updated NX variant also went to the new Xeon®.

Note that the new 440FX is functionally close to the high-end Pentium® 430HX. While the simpler 430VX received support for SDRAM, this did not improve its performance. In April of the same year, VIA Technologies announced its plans to release the Apollo chipset (690) with SDRAM support, but only one board model is known that was released on it, which did not see large-scale production. I haven’t even been able to find a photo of her yet.

Other chipset manufacturers, numerous at the time, also announced support for the Pentium® Pro, but all these chipsets were released after the announcement of the Pentium® II, and all boards on them were already manufactured with the Slot1 connector. The reason is simple: the Pentium® Pro remained in the upper market segment and the more budgetary chipsets for it were not of interest to the target audience.

The advent of the Pentium® II

And so, the eventful year 1997 struck. In January, the new Pentium® MMX for multimedia PCs and the new 430TX chipset (with more adequate SDRAM support than the VX, but still unable to cache more than 64 MB of memory, which clearly indicated its niche) appeared. Also, the processors lost support for SMP (some sources claim that it was still available in processors with a frequency of up to 166 MHz).

A few months later, in May, the new Pentium® II (Klamath core) was released — with MMX support and slightly higher frequencies. Importantly, it demonstrated much higher performance when executing the usual 16-bit code. At the same time, to reduce the cost, he received a new layout, a SECC cartridge, inside of which there was a printed circuit board with a soldered processor core and cache memory chips.

The cache size was kept at 512 KB, like the latest Pentium® Pro at that time, but the speed was cut to half the core frequency. The cacheable amount of RAM was 512 MB in the first Pentium® II versus 4 GB in the Pentium® Pro and later Pentium® II on the Deschutes core.

Support for multiprocessor configurations is also limited in the new processor — the maximum number of processors in the system was two. He also inherited only one chipset from the Pentium® Pro — 440FX. On the one hand, it seemed that Pentium® Pro’s song had been sung, on the other hand, there was some kind of understatement in its history.

In August 1997, Intel releases two related products that are not meant to be used together. The first was the 440LX chipset, which brought full support for SDRAM (EDO support remained, but the maximum memory size was halved to 512 MB!), fast UDMA/33 drives, and a new bus for video cards — AGP.

Theoretically, it could work with our hero (the bus was updated slightly — 66 MHz GTL+ instead of 60/66 MHz GTL), but there were practically no boards with a Socket 8 connector released, software support for Pentium Pro with a Slot1-Socket8 adapter was not implemented by board manufacturers . This was done much later by retrosystem enthusiasts.

Meet the Pentium® Pro

The second product of August was… the new Pentium® Pro! The same coveted by many option at 200 MHz with 1 MB of L2 cache. He received a new plastic case containing as many as three chips, two of which were crystals with 512 KB of cache memory. It also became the hottest x86 processor at that time — as much as 47 W TDP! At the same time, he did not receive MMX support.

With this maneuver, Intel split the processors into niches — the universal version of the Pentium® II, the budget Pentium® MMX (after which it was replaced by Intel® Celeron) and the server Pentium® Pro (there was almost no talk of workstations — in many cases Pentium® II became preferable , only when 512 MB of RAM was not enough, he could not replace his predecessor).

Thus, our hero remained the «king» of the x86 world for almost a year — until April 1998, when his real successor Pentium® II Xeon® appeared — with a full-speed cache (from 512 KB to 2 MB), a faster 100 MHz bus and, of course, new chipsets. But the end of the Pentium® Pro story has not yet been played.

Front side of the Intel® Pentium® II OverDrive™ processor Back side of the Intel® Pentium® II OverDrive™ processor

On June 12, 1997, the ASCI Red supercomputer was launched, based on many servers with Pentium Pro processors, united in a cluster . After a while, 10 August 1998, the latest Socket 8 processor was born, designed specifically to upgrade this system. It was given the name Pentium® II OverDrive™ and was the last «OverDrive» released by Intel.

The processor was released in a limited series, part of which went on sale to the general public. It was based on the Deschutes core, running at 333 MHz, accompanied by 512 KB of full-speed cache from the Pentium® II Xeon®. It was a specialized compromise solution with a very original layout — a small board housed the core, cache and VRM module, which lowered the power supply from the standard Pentium Pro 3.1-3.3 V to the 2.0 V required by Deschutes.

A plastic mating connector with 387 legs was placed at the bottom of the board. From the Pentium® II, he inherited support for MMX instructions and a limitation on the maximum number of processors in one system, but this was enough for the customer — ASCI Red consisted of two processor modules. This is where the history of the Pentium Pro as a platform ends.

In the hands of a collector

It’s hard for me to say when the hero of this article moved from the category of obsolete equipment to the area of ​​interest for collectors of retro equipment. I started my collection back in 2008. Perhaps some of you know the name «Digital Vintage». Initially, I dealt exclusively with mobile equipment, and thanks to the cooperation with Selectel, it became possible to place full-size exhibits.

Even then it was not easy to find these cars, although they were often given away at symbolic prices. I started my search three years ago, by that time it was already believed that “every self-respecting collector” should have at least a processor in his collection.

Getting processors was no problem, but I didn’t have much luck with the platform for a long time — I missed some interesting announcements for the sale of complete machines and motherboards. The aura of the legend, the relatively small number of released components, and the beauty of the ceramic processor with a golden cover played a cruel joke — many people ripped out only the processor from old machines, and the rest was sent for recycling.

It was only this summer that I got the Venus — the Intel® Performance/VS «Venus» board, and a little later the early Aurora — the Intel® Performance/AU «Aurora» mentioned earlier. Based on them, two machines were assembled (for joy, I came up with my own self-assembly brand “SERVERGHOST” in honor of my first home server). Both computers are assembled from authentic components of those years and are equipped with appropriate software — they «pretend» to be a developer’s workplace under Windows NT and OS / 2 Warp, respectively. We also managed to borrow a rare Pentium® II OverDrive™ from a colleague for the photo session.

Characteristics of two retro machines:

«Early» machine — SERVERGHOST Constellation P6/SE Big Tower:

  • Intel® Pentium® Pro 180 MHz with 256 KB L2 cache.
  • Intel® Performance/AU «Aurora» based on the Intel 450KX chipset.
  • 128 MB RAM (4×32 MB SIMM).
  • Adaptec AHA-2940U SCSI controller.
  • 2.1 GB Quantum SCSI hard drive.
  • Video card 4 MB Matrox Millennium.
  • Yamaha sound card.
  • Intel Pro/100 PCI NIC.
  • 8x LG CD-ROM with slot loading.
  • Installed OS/2 Warp 3.0 (Connect), Sybil 2.0 development environment and everyday software suite.

Late machine — SERVERGHOST Constellation P6/SE Desktop:

  • Intel® Pentium® Pro 200 MHz with 256 KB L2 cache.
  • Intel® Performance/VS «Venus» based on the Intel 440FX chipset (also known as the Intel VS440FX).
  • 128 MB RAM (4×32 MB SIMM).
  • BusLogic Flashpoint LT SCSI controller.
  • 4.3 GB Seagate SCSI hard drive (7200 rpm).
  • Video card 4 MB Matrox Millennium.
  • Creative Sound Blaster 16 PnP ISA sound card.
  • Intel® Pro/100 PCI Network Card.
  • 12x CD-ROM Vuego.
  • Installed Windows NT 4.0 Workstation, Delphi 3 development environment and everyday software suite.

Plans are to assemble a two-processor machine (the board is being searched) and purchase a four-processor server or, if you’re lucky, an ALR 6×6.

Naturally, there has been no talk of any daily use of these machines for a long time — you can go online, but only a few sites are available for viewing, especially if you use authentic software. The main problem is the abundance of JavaScript and modern encryption algorithms that Netscape 1996 does not support.

The office software of those years is quite functional, but, of course, does not have any cloud functions, 3D graphics are in their infancy, video viewing is available, but with great limitations — these machines do not pull out the same DivX or MPEG-2. But you can listen to music, even in parallel with other tasks. In the server version, it is quite possible to implement a web server, but it will be effective, perhaps, only when hosting a website in a retro style and with a minimum of dynamic pages.

Instead of a conclusion

Unfortunately, the status of a legend does not prolong the active life of its owner and does not help to keep this legend in its complete form. Retrocomputing (and especially retrogaming) is now in vogue, raising the price of old hardware to obscene. But if “gaming” hardware is relatively common and not so difficult to find (although prices are sometimes completely inadequate), then “heavy” equipment is an order of magnitude more difficult to find.

In the 90s, not many companies could afford serious workstations and servers, and after the service life, much was not dragged home (because it was often useless at home), but disposed of. And yet, the “heavy retro” business lives on and, I hope, will live on!

Intel Pentium M Processor: A New Member of the

Communications Processor Family

MTK

The optimal combination of high performance, powerful power management and low power consumption — these are the hallmarks of the Intel Pentium M processor for communications equipment with an ultra-dense modular layout. Processor architecture optimization for communications provides faster data processing and routing when used as part of ultra-dense modular network equipment. The trend towards further merging of communication and computing means dictates the need to saturate processors based on Intel architecture with functions that can expand the capabilities of network equipment, on the one hand, and PCs and servers, on the other.

The announced release of the new processor is in line with the general line of Intel Corporation for the expanded use of modular components in network equipment. Saturation of the market with high-performance, publicly available hardware and software components, including a wide range of semiconductor devices manufactured by Intel Corporation, along with a rich selection of software development tools and the ability to reuse program code to create new applications, further reduces the cost of designing new equipment, reducing the time to market. , the emergence of more and more new services.

«Our efforts are focused on helping equipment and communication service providers develop modular solutions across the entire spectrum of networking products while reducing their cost and operating costs,» said Howard Bubb, corporate vice president and general manager of its Intel division. Network Processing Group. “A key area for expanding the range of unified structural components of communication systems is service, control and network processors, in terms of output and variety of which the corporation occupies an industry-leading position.”

Scope of application

The new processor is designed to control the operation of network processors, line cards and other components of equipment such as switching and control equipment of radio networks and gateways of various data transmission media. At the same time, it can also work as a service processor as part of security tools such as firewalls, virtual private networks (VPNs), and intrusion detection systems. In addition, the processor can be used as part of mid-range telecom servers based on the plate layout principle, which require high-performance components with low power consumption due to size, power consumption and heat dissipation restrictions.

Nokia Networks plans to use the new processors in a broad range of its communications infrastructure products. «Intel Pentium M processor thermal optimization enables the design of high-density mobile infrastructure solutions with maximum performance per footprint,» said Ari Virtanen, vice president and head of its Network Platforms division. .

A wide range of hardware and operating system developers using the Intel Pentium M processor have already formed around Intel. These include, for example, Advantech , American Megatrends , Axiom , Diversified Technology , Force Computers , Radisys , Momentum Computer and QNX .

Processor performance

The Intel Pentium M processor has a number of features that, combined with a low heat dissipation range (about 12-25 watts), provide a high level of performance when processing data in ultra-dense packaging equipment. The high efficiency and speed of processing data in the application of the processor in firewalls, servers serving the transmission medium, and in signaling devices is due to the increase in performance indicators and power consumption optimization due to the power-managed 1-MB L2 cache, along with improved command prediction algorithm. With Enhanced Intel SpeedStep Technology, the processor can run in a power-down mode, automatically reducing power consumption when applications are less demanding on computing resources. This is especially important for equipment such as servers serving the transmission medium, for example, at telephone exchanges, where the load is usually reduced at night. In addition, the Intel Pentium M processor has a design that is ideal for CompactPCI boards and Advanced Telecom Computing Architecture (AdvancedTCA).

Pricing and Availability

The Intel Pentium M processor is available in two versions for longer life cycles: the 1.60 GHz version is priced at $625 and the 1. 10 GHz low power version is available priced at $257. The prices of processors of both versions already on sale are indicated for shipments in batches of 10,000 units.

News

Intel Pentium II Processor — The Next Level of Computing

Intel Pentium II Processor — The Next Level of Computing

•7.5.97 (Intel) — Intel introduced the Pentium II processor. It combines the latest and proven technologies to bring a new level of performance and visual computing capabilities to business desktop and workstation users.

The Pentium II processor—available at 300, 266, and 233 MHz—combines the advanced technologies of the Pentium Pro processors with the expanding capabilities of MMX technology. This combination gives enterprise customers the computing power they need to run their enterprise computing, empowers small businesses, and delivers the fastest Intel workstation processor ever.

«With the expansion of visual computing in business, the performance of both processors and personal computers should increase more than ever before,» said Paul S. Otellini, executive vice president of Intel. «raw» data types into expressively rich 3D models, helping users to absorb information better and faster. Interactive business applications will combine video, realistic graphics and sound to educate or demonstrate new products or services to potential customers.»

266MHz and 233MHz Pentium II processors are available today in desktop systems from more than a dozen leading PC manufacturers. The 300MHz processor will hit workstations in the third quarter.

«To meet their [applications — Ed.] requirements, personal computers must rely on three key elements of microprocessor performance: floating point, multimedia, and integer computing,» Otellini added. «The Pentium II processor has superior performance on all three counts. «.

The Pentium II integrates high-performance technology enhancements to help improve the speed of floating point, integer, and multimedia calculations. These are:

is the latest dual independent bus architecture originally implemented in the Pentium Pro, aimed at eliminating bandwidth limitations inherent in previous generation processor architectures;

is an MMX technology added to the Pentium II processor to increase the performance of audio, video, and graphics applications, as well as to speed up encoding and data compression;

— dynamic execution technology that increases the overall performance of the processor by allowing more data to be processed in parallel over a period of time;

— S. E.C cartridge. (Single Edge Contact) with a single contact edge, which has become a vehicle for delivering these technologies to consumers, ensuring the widespread availability of the Pentium II and paving the way for even more powerful processors.

Dual independent bus architecture

The bus architecture of the Pentium II processor aims to eliminate CPU-to-memory bus bandwidth limitations by providing 3x the bandwidth of single-bus processors in Socket 7. This carries over to overall system performance.

The dual-bus architecture of the Pentium II processor includes a L2 cache bus and a system bus between the processor and main memory. The speed of the bus with the cache memory in the Pentium II is related by a factor to the frequency of the processor itself. For example, the cache bus on a 300 MHz processor runs at 150 MHz, more than twice as fast as the Pentium processor’s cache bus, which is fixed at 66 MHz.

The processor-to-main memory bus allows multiple transactions to be carried out in parallel instead of single sequential transactions in previous processor generations, which also significantly improves performance.

S.E.C cartridge.

In the Pentium II processor, Intel introduced the S.E.C. — an innovative packaging technology that replaces the old PGA (Pin Grid Array) technology. With this new technology, the components are mounted on a substrate and completely encapsulated in a plastic/metal cartridge that defines the shape of the processor.

Cartridge S.E.C. will allow Intel to continue to supply high-performance processors in high volumes at chip-level prices for mainstream personal computers.

Like the Pentium Pro, the Pentium II processor design includes an integrated L2 cache to help achieve faster performance. The Pentium II’s L2 cache is based on commercially available packet SRAM.

Bringing MMX technology to the business world

Introduced by Intel in January, MMX multimedia performance enhancement technology has benefited millions of home users worldwide. Intel is working with a variety of independent software vendors (ISVs) to bring high-speed MMX applications to the entire business world.

The types of applications that can benefit from MMX technology include scanning, imaging, videoconferencing, Internet browsers and add-ons, video editing and playback, printing, facsimile, compression, encoding, and office suites.

Features, price and availability

The Pentium II processor core with 7.5 million transistors is based on the advanced Intel P6 architecture and manufactured using 0.35 micron technology. Versions with operating frequencies of 266 and 233 MHz, with a 512 KB L2 cache are available now. The price when shipped in batches of 1,000 units is $775 and $636 for the 266 and 233 MHz chips, respectively. 300MHz workstation processor priced at $1.981 when delivered in quantities of at least 1,000 pieces.

Pentium II based systems have the highest performance among Intel based systems when running under Windows NT and Windows 95. The 300 MHz processor is rated 11.6 by SPECint95 and 7.20 by SPECfp95. For the 266 MHz chip, these scores were 10. 8 and 6.89, and for the 233 MHz chip, 9.49 and 6.43, respectively.

Intel continues to provide the industry with various levels of system integration. For computer manufacturers, it offers «computing building blocks» including processors, chipsets and motherboards. For reseller channels, the company supplies individually packaged Pentium II processors and motherboards available through the Processor in a Box program. Separately available motherboards are also bundled with LANDesk Client Manager software to provide enhanced client management in support of Intel’s «Wired for Management» initiative to reduce the overall cost of business computing.

Photo — Intel Corp.

Computer newspaper. The article was published in issue 18 of 1997 under the rubric del :: news

Intel announced new processor families at CES 2021

Intel announced new processor families at CES 2021. They will become the basis for future business platforms, educational, mobile and gaming computer systems.

In particular, the corporation released the 11th generation of Intel Core vPro processors and talked about the Intel Evo vPro platform, which together will provide the highest performance and the most powerful hardware data protection. In addition, the announcement of the 10-nanometer Intel Pentium Silver and Intel Celeron N series took place.

To help people navigate this incredible time, Intel has introduced new processors for business, education, mobile and gaming computing platforms — all designed to offer users the most advanced premium PCs — Intel.

Intel Core vPro and Intel Evo vPro

The 11th generation of Intel Core vPro are 10nm chips that will power thin and light laptops. One of the first new processors received new products from HP.

New solutions, among other things, support Intel Hardware Shield technology, which provides comprehensive data protection at the hardware level. There is also Intel Control Flow Enforcement Technology, which helps stop a whole class of attacks on the system. The

Intel Core vPro includes Intel Iris Xe graphics and Intel Wi-Fi 6/6E (Gig+) that allows you to upload and download files faster than the previous generation of Wi-Fi. In addition, increased performance in AI tasks and up to 2.3 times greater performance in creating and editing video are announced. Performance in office applications has also increased markedly.

Along with the Intel Core vPro, Intel also announced the next generation of the Intel Evo vPro platform, which will feature responsiveness, instant wakeup and long battery life, the company said.

More than 60 new laptops from the world’s leading manufacturers based on Intel Core vPro will go on sale this year. They will offer all the features of the Intel Evo vPro platform.

Intel Pentium Silver and Celeron N 9 Series0077

To meet the growing needs of students, Intel introduced the new Intel Pentium Silver and Celeron N-series processors, which are designed for educational solutions.

The processors are designed on Intel’s 10nm architecture and provide performance gains of up to 35% in applications and up to 78% in graphics over previous generations, Intel said.

11th Gen Intel Core H-series Mobile Processors

Intel has launched a new line of 11th Gen Intel Core H-series mobile processors for gaming. The processors expand the 11th generation product family for ultra-portable devices.

The flagship of the line is the 4-core Intel Core i7 Special Edition clocked at up to 5 GHz. These processors feature the new Gen 4 PCIE architecture required to support the latest discrete graphics and fast storage systems, and provide low latency data transfers.

For enthusiasts looking for even more performance, Intel announced the release of its 8-core H-series processors, which will begin shipping later this quarter. The solutions will offer operating frequencies up to 5 GHz, Gen 4 PCIE x20 architecture and Intel Wi-fi 6E (Gig+).

At CES 2021, Acer, Asus, MSI and Vaio announced new systems based on the 11th generation Intel Core h45 series processors.

Rocket Lake and Alder Lake for desktop and mobile platforms

Intel also showcased next-generation desktop technologies for gamers and enthusiasts in the 11th generation Intel Core S-series (Rocket Lake-S) processors .

With Intel Core i9-119 processor00K, the PC market and enthusiasts will get even better performance in the first quarter of 2021.

Rocket Lake-S processors will be able to deliver up to 19% IPC (Instructions Executed Per Clock) gains over the current generation of Comet Lake desktop chips. Core i9-11900K will receive 8 cores and 16 threads, which can operate at up to 4.8 GHz with a full multi-threaded load. The maximum frequency provided by Thermal Velocity Boost technology in single-threaded mode will be 5.3 GHz.

Core 11th generation will offer support for DDR4-3200 memory and 20 PCIe 4.0 lanes for connecting a graphics card and an SSD. For new CPUs, motherboards based on 500-series chipsets will be released, however, backward compatibility with existing boards based on older 400-series chipsets will be released.

GeForce RTX 3080 video cards have a 2 to 8% gap between the new product and the AMD solution in modern games in Full HD resolution with Ultra quality settings.

And if we compare the Core i9-11900K with the current generation Core i9-10900K processor, Hitman III in the Rocket Lake-S built-in benchmark was able to provide an FPS advantage of about 7%. We are talking about Full HD resolution and Ultra quality settings.

Intel also showed off Alder Lake, a next-generation processor that represents a «significant breakthrough» in the x86 architecture and what the company claims is Intel’s most powerful system-on-a-chip.

The

Alder Lake will be the first Intel processor to feature a new, improved version of 10nm SuperFin technology. The chips will be released in the second half of 2021.

Intel drops Pentium and Celeron brands for its processors after nearly 30 years

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Intel is phasing out the Pentium and Celeron brands. They will be replaced by Intel Processor , which will be called chips in laptops from 2023 .

The change should make it easier for customers to choose budget devices. At the same time, Intel will continue to use the Core, Evo and vPro brands for flagship products.

«Intel is always committed to innovating for the benefit of users, and our entry-level processor families have played a critical role in raising PC standards at all price points. The new Intel Processor branding will make our offerings clearer so users can focus on choosing the right processor for their needs Josh Newman, Vice President and Interim General Manager, Intel Mobile Client Platforms, explained.

The end of the Pentium brand comes almost 30 years after its introduction . Processors under this name were first released in 1993 and were first used in top-end desktop PCs, after which they moved to laptops. Since 2006, Intel has mainly used the Core brand for its flagship chips, while the Pentium line has been repurposed into the mid-range segment.