IBM's New Processors To Exceed 5Ghz 250
Jordin Normisky writes to mention the news, via ZDNet Asia, that IBM's new Power6 processor will be unveiled next month at a conference in San Francisco. They're also planning to announce a second-generation Cell, both of which are expected to run faster than 5GHz. From the article: "In addition, the [Power6] chip 'consumes under 100 watts in power-sensitive applications,' a power range comparable to mainstream 95-watt AMD Opteron chips and 80-watt Intel Xeon chips. Power6 has 700 million transistors and measures 341 square millimeters, according to the program. The smaller that a chip's surface area is, the more that can be carved out of a single silicon wafer, reducing per-chip manufacturing costs and therefore making a computer more competitive. Power6, like the second-generation Cell, is built with a manufacturing process with 65-nanometer circuitry elements, letting more electronics be squeezed onto a given surface area. "
And here I thought... (Score:4, Interesting)
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Re:And here I thought... (Score:5, Insightful)
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More cores means more threads, which is all fine and lovely, unless you really need a single thread to do something very quickly. Perhaps the algorithm that you are implementing doesn't parallelize well, for instance.
Re:And here I thought... (Score:5, Informative)
"I carry a 1 gallon bucket and run around in circles 5,000,000 times a second. I'm faster!"
"I carry two 1 gallon buckets and run around in circles 2,500,000 times a second. I'm faster!"
Re:And here I thought... (Score:5, Insightful)
Re:And here I thought... (Score:5, Funny)
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Interersting. I had assumed that this bucket analogy was referring to the number of instructions per clock that the CPU was able to do, which has traditionally been the counterpoint to the "OMG FAST CLOCK SPEEDZ!!!" argument that companies like intel made for a long time.
I suppose dual cores are sort of a crude way to try and double the IPC count for a chip, but with the added need for ambidextrous programmes.
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Re:And here I thought... (Score:5, Informative)
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If there's a translation then it's CISC, no translation - RISC
At least that was the original idea, I don't think there's any true RISC chips out there any more....
Re:And here I thought... (Score:4, Informative)
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In SPECint*, the G5's per-GHz performance is in the P4 range, maybe a little bit higher. Core 2's per-GHz performance is about 80% higher than that.
In general, more GHz means more performance for every processor, all else being equal. Any given design is the product of a set of trade-offs. Power is traded versus clockspeed, IP
Re:And here I thought... (Score:5, Funny)
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Re:And here I thought... (Score:4, Interesting)
IBM/s chips are very good performers / clock and the increased clock should do wonders.
Intel's P4 for instance was terrible on a per clock basis.
proc Ghz specint2000 specint/Ghz specfp2000 specfp/Ghz
opteron 3.0 2119 706.3 2365 788.3
Intel P4 3.8 1834 483.4 2091 550.2
Intel Core 2 2.66 2848 1070.6 2673 1004.8
IBM Power5 2.1 1747 831.9 3324 1582.8
please forgive the nasty table
Re:And here I thought... (Score:5, Informative)
Opteron 3.0 2119 706.3 2365 788.3
Intel P4 3.8 1834 483.4 2091 550.2
Intel Core2 2.66 2848 1070.6 2673 1004.8
IBM Power5 2.1 1747 831.9 3324 1582.8
I gave myself a headache trying to read your table, I hope you don't mind. I also apparently missed the 3GHz Opteron launch in '06...but things still don't look good for AMD.
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AMD is all about the platform now. That's why they purchased ATI. It's about bringing CPU, GPU, and other specailized processors together using a fast, flexible bus (HyperTransport).
AMD is also about low-cost. Remember that current Athlon 64 CPUs have about half as many transistors as their Core 2 Duo counterparts. CPU + GPU + Northbridge in a single CPU (AMD Fusion) will have huge impact in the low-end
Re:And here I thought... (Score:4, Interesting)
AMD wasn't very much about low-cost for the last couple of years - FX and X2 chips were historically overpriced until Core 2 hit the scene - there was a 40%-60% price drop on the X2 dual-core chips at about that time if you'll recall. That means two things to me: insane profit margin and no need to compete with the floundering NetBurst.
CPU performance matters tremendously. Application performance disk-bound? Don't make me laugh. My system has 2GB of system RAM, as I hope today's Vista-ready machines do - when I load a large program (like a game) that I've already loaded since my computer has been turned on, it doesn't even read the HDD, nor does it jitter when loading new areas in games like Oblivion. I turned off my page file a long time ago. User input bound? Maybe if you're writing INPUT N$ statements in BASIC. Don't forget that Vista is around the corner for most of the world, no matter how bad it is.
DDR2 didn't help or hurt AM2 very much so I don't think memory subsystem bandwidth (or latency) is your answer either. Don't forget that media encoding, scientific applications, CAD, and gaming are what sells the high-margin computers that both Intel and AMD care a great deal about, and what drives technology in general (they can't sell if it they can't market it). AMD still has a relative deathgrip on the 8-way server market but its hold on 2- and 4-way servers that it rightfully wrested from Intel's grasp is rapidly slipping away due to Woodcrest and Kentsfield's rather nice performance per watt.
HTX slots might be an interesting toy for the future, and perhaps wonderfully applicable to server/render farms, but I don't see a product or a killer app yet.
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Re:And here I thought... (Score:5, Insightful)
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" The entire chip consumes a maximum of 72 watts, considerably less than rivals such as Intel's Xeon, which consumes 110 to 165 watts."
That monster runs 32 threads btw.
Their customers seems to adopt when its available http://preview.tinyurl.com/y6z3z6 [tinyurl.com] (CNET story)
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Someone please explain cpu clockspeeds (Score:2)
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Anyway, here goes:
Basically they take a tiny wafer-thin piece of silicon, use chemical to scrape out millions of little transistor shapes onto its surface, and strap a buckin' bronco of a clock crystal on it that shakes it like a salt shaker, or like jello jigglers on free-based cocaine.
Thusly, the outrageous oscillating action of Mr. crystal causes the tiny transistorized ci
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Make's AMD's "Athlon XP 2400" marketing seem a little less deceptive when you realize that their GHz were getting more things done than Intel's GHz, doesn't it?
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So what are you suggesting? That we only optimize the "most important" aspect of a computer system? Please, could you define what that worthy aspect is?
Computing performance is based on many factors. Clock speed is WAY up there on the list of importance. Just because it might not be the most important in an objective sense is no reason to stop trying to improve it.
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How about licensing their innovation to Intel or AMD?
We've heard that before. (Score:4, Insightful)
Re:We've heard that before. (Score:5, Insightful)
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And be careful of labeling things as overkill here in
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These are the engineers, including at least one IBM Fellow (the second author)... this is not the PR department. I expect these folks would not take their reputations in the engineering community lightly.
Products (Score:3, Funny)
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You would be surprised where they are... (Score:2)
If you look at the direction AMD is going you will see the archietecture so common in the mini/mainframe areana is coming down to the home.
It was always hilarious to hear the network guys brag about their 4-way network tower with its 8gb plus
Or a pServer w/Linux (Score:2)
Work-per-clock cycle? (Score:4, Insightful)
--
Wi-Fizzle Research [wi-fizzle.com]
Re:Work-per-clock cycle? (Score:4, Informative)
Manufacturing Cost has little to do with it... (Score:3, Informative)
The smaller that a chip's surface area is, the more that can be carved out of a single silicon wafer, reducing per-chip manufacturing costs and therefore making a computer more competitive. Power6, like the second-generation Cell, is built with a manufacturing process with 65-nanometer circuitry elements, letting more electronics be squeezed onto a given surface area.
The cost of making chips, by far, is the R&D cost. The "first" chip costs hundreds of millions to make. Once the "first chip" is made the margin cost is VERY low. Beyond recovering R&D costs....the rest is just distribution channel costs....then....PROFIT!Size matters (Score:5, Insightful)
Boy, Howdy! are you out of the loop. I work on those suckers and believe you me, the chip cost is not trivial.
Do the math: the cost of a 300 mm wafer in a 65 nm process runs well over $5000 (how much is a Deep Dark Secret.) Ignoring geometric yield loss, that's about 70,000 mm of potential dice per. If one chip is 350 square mm, you're getting about 200 per wafer, or $25 per chip fab cost. Yield drops off steeply with size (think in terms of losing ten to twenty dice per wafer, regardless of die size) and that adds into the fab cost too.
That's bare minimum, assuming there aren't any bad lots etc. It adds up fast.
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I don't think he was every in the loop. It's been like this since the first Apple Lisa's came out and before. Material cost and manufacturing costs are far from trivial.
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* software for synthesis, implementation, timing/physical/formal verification, OPC, power/temp analysis and all the other stuff runs in the millions of dollars.
* 20 engineers working for 3 years + benefits/managers/other overhead ~10 million dollars.
* mask costs 100's of thousands of dollars.
so getting to the first chip runs at least 15-20 million dollars and for something like the core2 duo it's closer to 500 -1000 million.
the next wafer only costs a measly
Teach your grandmother to suck eggs (Score:2)
Yup. And your point is ... ?
And the next million wafers cost how much?
Nobody builds stuff like that with a run rate of a few measly thousand. No way to recover the NRE. If the variable costs don't dominate the bugetary numbers, then the project doesn't get authorized.
By the way:
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65 nm hardly to brag about (Score:5, Interesting)
Heck philips/motorola I believe have been producing 65nm microcontrollers, and samsung is producing 50nm flash chips.
And 5GHz should not be difficult considering it doesnt have the x86 overhead, is more RISC and that generally PPC has a simpler core. I'll be interested if it comes with quad cores or more.
Re:65 nm hardly to brag about (Score:5, Informative)
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Fair enough.
But do these chips come with 32Mb of L3 Cache, have the fastest Fiber Channel Bus Interconnect in the market, and allow for extremely flexible, multi-platform OS true hardware virtualization?
Performance comparisons between x86 and RISC chips in my opinion are really not valid. What you really want to look at is system workload. Scalability is where the POWER chips really perform and these chips are designed for the
So much for... (Score:3, Funny)
avoiding the obvious? (Score:5, Insightful)
Why don't they seem to be making any kind of performance comparisons? Talking about physical size, power consumption as compared to intel & AMD are great, but it seems weird that there's no mention of real-world performance against those same competitors. Even a rough estimate would be interesting.
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Why don't they seem to be making any kind of performance comparisons?
There've been no firm figures since the Frieza chip reached end-of-line. Exactly how much higher Cell-2 rates than Cell-1 is hard to say, although Piccolo/Kami in an SLI configuration falls somewhere between. The Bejita-SSJ+ beats both on all benchmarks, and Cell-3 'Perfect' beats everything unless you overclock a Gohan to the undocumented and unsupported SSJ2 setting.
Sweeeeet! (Score:2)
There should be some really interesting stuff this year on how they kept the power down.
Of course, a chip nearly 2 cm on a side is going to be a beast no matter what. This is going to be fun!
Yeah! (Score:5, Funny)
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Next generation Cell into PS3? (Score:5, Funny)
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(Though now I remember the RAM expansion pack for the N64...)
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And PS2, PS1 just don't apply any more. I love my PS2 and still think it's the best console on the market right now if you were only going to own one. I thought Sony was great and was looking forward to the PS3. But it's been a year of such stupidity from them that all bets are off. Now that they think they own the mar
Perpetuating myths (Score:2)
So what if IBM's new chips run at 5GHz or more? What about gigaflops?
I had hoped the majority of slashdotters would be able to see past the megahertz myth by now.
Apparently not.
Re:Perpetuating myths (Score:4, Funny)
Keep in mind, this is a promise (Score:3, Insightful)
Chip is more reality than you may realize (Score:2)
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I just went through the IBM site and it seems their shipping architecture is Power5+ at about 2.0 to 2.5? Ghz. While I'm not disputing that IBM is capable of jumping to 4Ghz on the first series of Power6, I take a very skeptical approach to performance promises. Given the delays on the first series of the Cell, I'd definitely take a wait and see on that one.
I'm also extremely skeptical of (production) 80 core x86_64 chips, BTW.
Portable market? (Score:2)
Some more information (Score:5, Informative)
The Power6 processor will run between 4GHz and 5GHz and it has been proven to chew away data at a speed of 6GHz in the lab.
IBM see things a little differently and they decided to raise the frequency in both cores of the processor.
For high-end models, four POWER6 MPUs will be packaged in a single multi-chip module, along with four L3 victim caches, each 32MB.
On the management side, IBM is also improving their virtualization capabilities in the POWER6. In particular products, a single processor may be able to host 2-300 virtual instances, although theoretically up to 1024 VMs are possible. Memory partitioning and migration have been added as well, which reduces system down time for repairs.
IBM is claiming a factor of two performance increase, which would be consistent with the vastly higher clockspeeds and increases in raw system bandwidth.
IBM's roadmaps currently include the POWER6+, which is presumably a 45nm derivative product. Judging by past practices, the POWER6+ will debut in the second half of 2008, probably just in time to dash the hopes of rivals.
The Power and PowerPC lines will grow one step closer together with Power6, which incorporates the AltiVec instruction set that speeds up many multimedia tasks. AltiVec, also known as VMX, increases efficiency by letting a single processing instruction be applied to multiple data elements. That's helpful for video and audio tasks on desktop machines, but servers will benefit as well in, for example, high-performance computing tasks such as genetic data processing, McCredie said
Where Power5 can transfer data on and off the chip at a rate of 150 gigabytes per second, Power6 can do so at 300GBps, McCredie said.
Oh, and it is also good for BCD's (binary coded decimals) which obviously points to the expected customers (high end financial firms, presumably).
Sources:
http://news.softpedia.com/news/New-Power6-IBM-Pro
http://realworldtech.com/page.cfm?ArticleID=RWT10
http://news.zdnet.com/2100-9584_22-6124451.html [zdnet.com]
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I think Apple is perfectly happy with the Intel move at this point. One of the reasons for the migration (if you can get past Jobs' reality distortion field of blah blah per watt or whatever) was that IBM wasn't able to keep up with demand, either with getting the speeds up, or with delivering the slow crappy ones they already had.
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Well, no, Apple never used POWER6 specifically, but they did use PPC, and IBM
Comparisons as well (Score:2)
At PPC was often a disadvantage and only occasionally an advantage for Apple, they get
Mac OS 9 (Score:2)
Even if IBM had a 5 GHz quad-core Power PC that
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For the OS it may be a bit of a challenge but far less than moving from the PPC to Intel.
It is often used in mid-range systems and work stations. It is big, fast, and usually expensive. This is a step to keep the power line above the X86 not really to catch up.
Apple didn't use the Power line it used the PPC line of CPUs.
I do agree that this will not make any difference to Apple which i
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Re:Macintoshes (Score:5, Insightful)
The issue is that IBM makes supercomputers, and Motorola makes cellphones, and they design their chips accordingly. Apple, making neither of these things, couldn't persuade either of them to make a low-power, fast, cheap CPU useful for a laptop and continue updating it with such a small market. Intel, on the other hand, spends most of their engineering effort trying to solve exactly this problem, and so has its business interests aligned with Apple's, as opposed to IBM or Motorola, who didn't really care about them at all, and would happily spend their R&D money on designing things like this chip instead of making a G5 that would fit in a laptop.
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For scientific and database apps, sure. But for integer and multimedia code, there's nothing faster than the Core. I wonder what kind of code Macs are running...
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-Steve Jobs
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Silicon On Insulator or Silicon On Saphire would remove a lot of leakage paths.
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IBM didn't CARE (Score:3, Interesting)
Motorola/Freescale lives happily in embedded processor market and telecoms market too.
I guess such stories should have "power-not-powerPC department" tag.
Also, yes , our grea
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Lets see IBM actually roll out those babies, and look what yields they get, how cool they really run and in what ways the design has suffered to allow them to reach that kind of clockspeeds.
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Apple DID switch because of Intel's better roadmap, as the Core 2 Duo and upcoming technologies prove. IBM's inability to get the heat down is just evidence of their inferior roadmap compared to intel, and I don't understand why you think it refutes Apple's motives when it actually proves it.