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IBM Announcements on Chip Design/Nanocommunications
mr was one of the folks who wrote about some IBM scientists who have discovered a way to transport information on the atomic scale that uses the wave nature of electrons instead of conventional wiring. The new phenomenon, called the "quantum mirage" effect, may enable data transfer within future nanoscale electronic circuits too small to use wires. Big Blue also unveiled some new chip technology, called "Interlocked Pipelined CMOS" that starts at 1 GHz, and will be able to deliver between 3.3 - 4.5 Ghz.
Perhaps I'm not seeing something, but I can think of very few situations in which 128-bits is a definite advantage over 64
what about adding 2 128-bit numbers? see, you do need 128 bits.
thank you
Its not the speed increase that impresses me, its the distributed clock. This opens the door to on chip parallel processing with different sections processing at their own respective rates. Clock delay doesn't become as big a problem. The gate densities offered by .13 micron process with copper can actually be used instead of just slapping more SRAM on the chip for cache. Even though the cache is really needed if the buses remain as slow as they are now.
Big Blue has already shown that they can put multiple processors on the same die. This technology will allow them to extend this idea even further by going multiproc on a finer grained scale. beowolf on a chip is not far off.
Where would I be with IBM? Off to the autobahn....
Isn't Clyde Drexler busy enough coaching the University of Houston basketball team? Dang, I didn't realize he was into nanotech too. Cool...
i would like to announce on-chip grits, because i poured a bowl of hot grits into my conmputer and down my pants. thank you.
Nota bene the guys doing the asynch are no longer with the UM and nb 2 the first modern digital computer was built in Germany in WWII by Konrad Zuse.
Why do you need the fastest CPU? I spend a lot of time compiling. If I can reduce that time by even 30 seconds per compile, that time adds up over the months and years.
Additionally, things like 3D rendering will always be able to make use of extra CPU cycles to get done faster. There are also a lot of tasks we simply cannot do today because we don't have CPU's fast enough (such as real-time photo-realistic image generation). Additionally, suppose you want to do multiple CPU bound tasks? Suppose you want continuous speech recognition at the same time you are generating real-time photo-realistic 3D images while searching your hard drive for information using natural language search algorithms?
Let's see you do that on a Celeron 300.
David Deutsch in his book The Fabric of Reality : The Science of Parallel Universes-And Its Implications discusses how to travel between parallel universes. Deutsch is a serious physicist who does research on quantum computing.
Michael Crichton's latest, Timeline is a fictional account of someone who figures out how to do it.
Both are worth reading.
Steve M
I had no idea microsoft was within arms reach of Linus Torvalds' ass.
duh. go here of course.
Ahh what would a slashdot article be without the obligatory potshot against MS?
Also, most of the high-performance computing is for scientific calculations, in which case more precision is necessary. This is why Alpha's blow the hell out of pentiums (32 vs 64 bits) in these applications. Of course, most of the public doesn't need 64 or 128 bit accuracy...
Not New. IBM has has quantum mem. and chip tech for 2 - 3 years. 4 years away from 4.5 chis so not to fret your LC II stills chug'en. n// nicknames are big with the Pampers set
There are certain news in life that make you very happy. This is one of them. For about 10 years, OS/2 has been dead. And yet, IBM has decided to update the OS/2 Warp client once more. It's all about business. IBM made $92 millions last year with the sale of OS/2 (how much did RedHat loose?) and the show will go on. Here is the link: http://www.zdnet.com/sr/stories/news/0,4538,243412 0,00.html
haha... BTW in your poll, you forgot the pro-MPAA guy, "Open Source guy" "BUNG" and "Operation Point Waster", and also your hot grit links to CNN and Natalie Portman are broken.
If you've got something to share with us, post a link to this news of a 1.1GHz Athlon.
... It's like SDH in a chip.
Usually You have one clock on a chip that has to
have enough power to control all your funtional
units properly. And it's somehow 'slow' because
the signal has to reach all funtional units
before the next cycle starts (proceccors are
large wrt the cycle time).
IBM now seem to have multiple clocks each
controling only a part of the functional units
located 'near' their clock.
To make things work together all those clocks
are synchronized, like SDH(sonet in US)-equipment
that bring this comment to You.
Because Transmeta's new chip uses a 128-bit VLIW word length. And Linus works for them, so they must be right. I mean, duh.
There is a physical limitation of about 100,000 transactions per second with 32 bit machines, and most will not "cruise" nearly that high. Processor speed, bus speed, disc speed, all don't matter that much. This is no longer a problem with 64 bit. Then, there is the matter of address space. IBM is being driven by the server market when it goes to longer word length, but one of Moore's laws says the price of these chips will eventually drop and we will find them on the desktop. The initial market for these chips is mega-servers for dot com uses.
Try and read the article before commenting, they are using multiple syncronised clocks throughout the chip, the problem around 1Ghz is getting a single clock signal to whizz it's way around the hundreds of square millimeters that 26 million transistors require before the next one comes along. IBM scientists kick ass! FULL STOP!
Gee, hasn't this been done before? Like Intel and AMD running the cache ram at one speed and the cpu at twice that speed? Yep. So now IBM has figured out that instead of running the cache at 250Mhz and the CPU at 500Mhz, they could run the cache at 250MHz and the CPU at 1000MHz. Why am I not excited?
A 128 bit binary word length greatly simplifies the code for calculating the cross product of two 7-dimensional vectors in a vector space over a field of characteristic 2. This is related to the fact that 128 = 2^7.
For the small portion of the population who don't regularly calculate cross products of 7-D vectors, the main advantage is that "128 bit computer" sounds better than "64 bit computer".
Copyleft has this one.
WWJD? JWRTFM!!!
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This stuff is going to make our current PCs look like vacuume tube computers. There is no way such a fundamentan shift in `direction' is going to be only an incremental step. This will be like going from plates and grids and electron streams to silicon layers and fields. This has a lot of potential.
Bill - aka taniwha
--
Leave others their otherness. -- Aratak
Seriously though, all this new tech just plain rules. I can't wait to see what things are like when I'm 90!
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Don Rude - AKA - RudeDude
RudeDude
Perl/Linux/PHP hacker
Whoa, dude. I don't know which post you *thought* you were replying to, but you've got it all wrong.
The guy you're flaming was complaining that the technology moves too fast for the user to keep up, or be able to safely upgrade. And I, for one, agree with him.
I tend to upgrade every two years or so, but if I upgraded componentwise, I'd want a motherboard that lasted.
And you made a lot of assumptions about that guy, alright? Think about it. If I had a few computers lying around (I do), and I bought a new one, I might want to build a better second one out of the remaining components. I tend to reuse old hard drives, because there are standards that allow this. What about chips?
Regular pentium-style ZIFF sockets were standard for a long time. Now we have all kinds of weird proprietary cards, buses, RAM, whatever. I know enough not to mix random RAM, but the complexity has definitely gotten out of hand for all but the up-to-date hardware hacker, and that isn't me.
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Actually, I haven't messed with it, I went from a P133 to a K6/300, and my next purchase will be... well, whatever has the best price/performance ratio in x86-land by mid-summer, probably. But like I said, hardware hacking has gotten complicated enough for me to stay out of it, because I haven't been keeping up.
It used to be, you didn't miss much by not keeping up, like I said. IDE and SCSI, ATAPI cdrom drives, floppy controllers, ISA and PCI, Serial and Paralell Ports... and now they have to mess it all up with a bunch of proprietary, non-standard technologies.
If there were an open spec, I know I wouldn't have to wait this long for decent support under Linux. But no, we've got incompatible video cards, incompatible processor extensions, incompatible media, incompatible I/O... Obviously there's an advantage to standardizing the hardware platforms and the software interfaces. I'd be happy with maybe two, well-documented, competing standards in each separate domain. But no...
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pb Reply or e-mail; don't vaguely moderate.
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I know this reply is too late to catch the moderators eye, but I hope Mr. Hard_Code at least notices it.
Most commodity CPUs (and many other chips) are actually pipelined. They do some amount of work on the first clock tick, and send the results to another part of the chip, next tick they do the same amount of work on the new data, and another part of the chip works on the results of the the last cycle. A "modern" x86 CPU does that 8 to 18 times to handle each instruction. There are other wrinkles to it too.
When you design a CPU (in my case a "play" CPU much like the really old PDP-8) you use software that does a layout and tells you the critical path (most any VHDL synt tool will do). That's the slowest part which forces the rest of the circut to be clocked slower. When you find it there are three choices:
I don't know if the 68000 was pipelined. The 68010 was, I think it had three pipe stages (and no cache, although the loop-mode was a lot like a 3 instruction I-cache). Some RISC CPUs have pretty long pipelines, but the moderen Intels tend to be longer, in part because decode takes as many as three pipe stages (it does on the K7, not sure if the PII/PIII does it in two or three). A RISC decode is only one pipe-stage, and frequently other crap is thrown in too (like branch prediciton forwarding logic). By way of contrast the IBM PowerAS (a PowerPC like CPU) has a very short pipeline, I think about 6 stages (and thanks to the branch forwarding logic, branch mis-predict penalitys are something like only 2 to 4 cycles).
P.S. I'm not a hardware guy. I'm a software guy, and a harware wannabe.
It's got to be more then that. The TI SuperSPARC did that in '95 or so. Most of the CPU ran at (I think) 50Mhz, but the register file at 100Mhz. In that case (and all similar cases I know of) all the clocks are multiples of each other (no relitavly prime clock rates).
More over if the decode unit runs faster then the dispatch unit there is no useful gain. The dispatch unit has to be fed decoded instructions. The same is true for many (but not all) other parts of the CPU.
I think (with no proof, and no help from that watered-down article) that most of the parts in this chip run at the same speed (say 1Ghz). They each have their own 1Ghz clock distribution net, and they are not sync'ed with each other (so the ALU could see start of clock while the decoder is half way through a clock, and the renamer has just seen the end of a clock pulse). The boundry between each clocked unit must have a small async buffer.
That would trade the pain of clock distribution for the pain of having a bunch of async buffering all over the place adding to latency. Given how painful clock distrubution is in really big chips this is probbably a positave tradeoff. At least for latency intolerent workloads.
Um...I think we already have quantum waveguides based on long chains of atoms in a crysal lattice. They're called "wires". (I don't know, though, maybe there's a different method that's better.)
WRT tunneling, you're correct that electrons spend a good deal of time in the "mirage" position - it's not a mirage at all, any more than any de Broglie wave is. For instance you could call the peak of the interference pattern in the classic two-slit experiment a "mirage" too since it has an high electron density.
The speed of the electrons between foci is definitely sub-light speed. The de Broglie waves themselves may travel FTL (the same old non-locality that gets everybody excited) but as in all of these situations it's not much use.
It seems to me if they used a pair of parabolic reflectors similar to microwave dishes, they could get current to flow between foci over relatively large distances, with no hardware needed in between (except for the copper substrate, which is already a conductor - oops). I believe that different beams could cross as well, with little interference. That would be a useful feature, since it could replace circuit traces. It's doubtful whether this arrangement would be very efficient, due to leakage, diffraction, etc., but it's though-provoking.
---- "If we have to go on with these damned quantum jumps, then I'm sorry that I ever got involved" - Erwin Schrodinger
OTOH, IBM has been noted for their research programs. About 20 yrs ago, there was the big three in terms of corporate research. They were AT&T, IBM, and Exxon. Well Exxon has greatly reduced their research efforts (as had the other major oil companies), AT&T has been split up and then again split up again (Bell Labs is part of Lucent), while IBM has redirected their researchers to perform more applied research. But IBM research is still very impressive. Low temperature super-conductivity was an IBM product that came out their Zurich research facility.
Off topic, but Thomas Watson many years ago had the now-famous Think posters put up. I used to have a cartoon in my office that showed the Think poster with a guy saying, "I'll like to, but I have too much work to do."
Ross Perot founded EDS (after being an IBM salesman) to provide software for IBM mainframes. Back then, IBM philosophy was to sell hardware, software was just an afterthought. Hmmm, I wonder if anybody else got rich for selling software that ran on IBM hardware.
Yup, I'm just rambling. IBM is a "friend" of linux at this moment. They have been very good for the time being. However, as a person who has witnessed the might of IBM in the past, I'm scared of what IBM could potentially do to screw things up. Remember, the enemy (linux) of my enemy (MS) is my friend. Of course, we all live by the ancient Chinese saying/curse, "May you live interesting times."
to run quake4.
;) Now all of my machines are out of date, and I won't be able to play any new games at all.
Great.
This sig is false.
wasn't one of the old PDP's asynchronous?
My question is are the clocks phase locked to a master timing source or are they free running?
Mea navis aericumbens anguillis abundat
I've read some papers on research operating systems that use huge global virtual address spaces that are shared across multiple computers. Each object gets a globally unique virtual address that is never reused. That can use up a lot of address bits.
Mea navis aericumbens anguillis abundat
Nothing like real innovation, is there?
It excits me to see technology like this being announced.
-BrentI'm missing something. You can transmit data about a cobalt atom to another spot where there is no cobalt atom by using this eliptical coral. Sounds, neat. But...
Someone help me make the intellectual leap so that I understand how this can be used to help us build better circuits. Is the idea that we replace wires with really long, eliptical corals?
Fast is relative.
I'm running a Pentium Pro 233.. and it certainly doesn't *feel* outdated.
Now, if only I had a fast internet connection to match...
They are available at copyleft for $15. I just got mine today, in fact, it's a nice quality Tee.. www.copyleft.net
Is it just me, or has IBM made a real turnaround in the last 5+ years? It seems they understand the whole open source movement, they've pretty much ditched they're sorry aptivas, and they seem to be a leader in new technologies. On top of that they've changed the way people percieve them. I remember hearing stories about how they had to wear knee-high black socks to match their black suits long ago, and now I go to an interview with them, and the guy is wearing jeans and a Polo shirt!
Honestly, this is one large corporation I have respect for. And there aren't too many of those left now and days.
My grandma could do that in her sleep, and she's dead! Company A did nothing special. Besides, there was a paper written at an obscure university ten years ago which made reference to something like what is described
Hmmmm...
1: It's the "obscure university" that Alan Turing was a professor at.
2: It's the "obscure university" that built the world's first stored-program computer (the Manchester Mark I/"Baby")
3: It's either very similar or identical technology.
4: They've built the chips. They have prototypes.
5: Funny how everyone jumps up and down in defence of IBM, when they quite happily quote unrelated tech after unrelated tech to prove that Microsoft doesn't innovate...
Simon
Coming soon - pyrogyra
This was probably quite difficult to implement, but isn't exactly conceptually brilliant. Modern computers already run at different clock rates internally. Your disk I/O bus runs at one speed, your video processor runs at another speed and the CPU still spends a lot of time waiting for stuff to come down the system bus from memory.
;-)
It's even less conceptually brilliant, when you see what people elsewhere have been working on - namely wavepipelined architectures.
Funny... people just keep on reinventing the wheel... fire... and then they patent it to hell.
IIRC, the guys at Manchester University were working on this back in 1989/1990 (or at least they were when I went on a tour of the place...). Back then, it was just called the "wave pipelined RISC chip" - these days, it's the "Amulet". Check it out. It's based on ye olde ARM processor architecture - but the implementation is completely asynchronous -- that is, each individual logic element is clocked separately.
Sure, it's still experimental... sure, it's slower than other chips - but it also predates IBM's announcement by about 11 years. Just goes to show - academia ain't entirely useless
Links
Architectural Overview at Berkeley
The Amulet Asynchronous Logic Group at Manchester University
Who needs clocks? Bah!
Simon
Coming soon - pyrogyra
Just wanted to correct the typo. Boink!
#include "disclaim.h"
"All the best people in life seem to like LINUX." - Steve Wozniak
#include "disclaim.h"
"All the best people in life seem to like LINUX." - Steve Wozniak
What's really nice is that IIRC alot of Drexler et al's work on nanotech is concerned with avoiding quantum effects that would disrupt their atomic-scale gears, etc. Here the scientists are turning the problem on its head and using the quantum nature of matter at the nano scale for their nanocomputing device. However, obviously heat is still a problem (cooled to 4K - don't think Kryotech will cut it anytime soon ;-p)
#include "disclaim.h"
"All the best people in life seem to like LINUX." - Steve Wozniak
#include "disclaim.h"
"All the best people in life seem to like LINUX." - Steve Wozniak
How about a memory mapped file system that incorporates the ip address space? Hmmm.. perhaps we need to jump straight to 256 bit busses.
Yes, it's great that IBM is thinking ahead to new designs and it all looks great on paper but... how about sticking the damn problem at hand. Even the guys at IBM are having a bitchass problem working with Motorola to get the PowerPC 7400 (?) G4 to climb over its current 500MHz wall. At the moment, the G4 evolution timetable is well over 6 months behind schedule and yields of _stable_ 500MHz chips are unacceptable to sell to Apple (or anyone who can get a hand on one). Until these fundamental chip fabrication problems can be solved, how can IBM even think of pushing the envelope on an even faster design?
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To increase speed, IBM researchers decentralized the clock, using locally generated clocks to run smaller sections of circuits. The design thus allows faster sections of circuits the freedom to run at higher cycles. It also significantly reduces power requirements.
/. a few days ago.
This was probably quite difficult to implement, but isn't exactly conceptually brilliant. Modern computers already run at different clock rates internally. Your disk I/O bus runs at one speed, your video processor runs at another speed and the CPU still spends a lot of time waiting for stuff to come down the system bus from memory.
As far as I can see, IBM have scaled this down to a single chip, which will increase overall throughput considerably. Difficult to do, very worthwhile, but conceptually all they have done is to get the latency issues into a smaller space.
OTOH, this could lead to an architecture with considerably lower power consumtion, which is definitely worth doing.
The bit about 'quantum mirages' has already been discussed on
I think you could get a sensible cross-product of six 7-dimensional vectors. Or, in general, n-1 vectors of n dimensions.
Remember how to get the cross-product manually? You make a matrix like this:
| i. j. k. |
| x1 y1 z1 |
| x2 y2 z2 |
...and take the determinant. To get a similar matrix with 7-dimensional vectors, you'd need six of them.
But I don't know how much use that would be.
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Patrick Doyle
Patrick Doyle
I mod down every jackass who puts his moderation policy in his sig. Oh, wait a sec....
What do you mean by a transaction? And what does word size have to do with how many of them you can do per second?
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Patrick Doyle
Patrick Doyle
I mod down every jackass who puts his moderation policy in his sig. Oh, wait a sec....
Doubling the word size of your processor instantly doubles the chip area you need for most parts of the chip. The extra area you would use for going from 64 to 128-bit could probably be better spent in other ways, like caching or speculative execution.
However, 64-bit is definitely worthwhile over 32-bit because 32 bits can only address 4GB. Under Linux, for instance, you only get 3GB of those because the last GB is reserved for the system. This places a hard limit on the size of things you can map into your address space.
64 bits can address 16EB (that's Exabytes), which should stave off Moore's law for another 50 years or so.
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Patrick Doyle
Patrick Doyle
I mod down every jackass who puts his moderation policy in his sig. Oh, wait a sec....
Now if someone could figure out how to arrange a ring of atoms to create 8 or 16 quantuum states, and arrange them so you could build a three or four bit adder with carry circuit out of two or three of these rings, then I'd be impressed.
:-)
I suspect scientists are working on it. 'Cause eventually, we're going to have to start using quantuum states and tweeking the fundamental nature of the universe to build processors fast enough keep up with the computational requirements of Windows 2020...
I'm a software guy and a hardware wannabe also...but I'm quite aware of pipelining. The fact remains that the pipeline is limited by the slowest component in it. If one of your pipeline stages is memory access, every other stage has to wait at least as long as it takes the memory access stage to complete, to continue on.
With multiple clocks, everything is working asynchronously at the limit of its own circuit. For simple circuits this will be very fast.
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They say they use multiple clocks to increase speed. Sometimes the best inventions are those that simply make sense. I mean, most commodity chips heretofore are locked down to one clock. That means the tiniest circuit still has to wait for clock to compute another value. That doesn't make any sense. Have independent smaller clocks, and make the computing asynchronous and have each component just fill up a queue. Match up the results with their ids/stamps and there you go. Without independent clocks, the slowest component will dictate the overall cpu speed.
Jazilla.org - the Java Mozilla
It's 10 PM. Do you know if you're un-American?
That's ridiculous. Why do you want the fastest CPU on the market? Why do you honestly need it? What's that? You don't need it? You just want to brag to your other 13 year old friends that your computer is faster than theirs? Oh, tough luck to you. Other people, people who are trying to get REAL WORK DONE, are actually happy that technology is moving quickly. Maybe if you can't handle it, you should go buy a Apple Macintosh. I hear they don't innovate very often. You can have a top-of-the-line computer for years and years.
Geez... I have a dual cpu Pentium III 450 MHz system, and according to my research, there isn't anything out there much more than 50% faster than it (say, a 733 MHz Coppermine in an i820 motherboard). When dual and quad CPU Coppermine systems become available, I *might* upgrade to one of those. If I *need* the speed increase, that is. Why upgrade when all I could get is a 50% speed increase, though? It'd cost me hundreds of dollars.
All you need to do is buy a decent computer (Dual or quad CPUs, Ultra2 SCSI, Asus motherboard), and you'll be set for *years*. No need to upgrade every month. It might cost more in the short run, but it'll last a hell of a lot longer than that Celeron/EIDE based computer you bought for $100.
When, exactly are you going to add two 128-bit numbers? Is this a common occurance for you? It's not for me.
I'd rather see a 64 bit, 66 MHz PCI bus in consumer motherboards. There are increasingly more peripherals that exceed the bandwidth of the 32 bit, 33 MHz PCI bus. And they're getting cheaper every week. Adaptec Ultra 160 SCSI adapters are only ~$250. I'd buy one if I could actually handle the bandwidth...
Oh, come on. It's not that hard to keep up to date with new stuff. Slot 1 CPUs go in... slot 1! Slot 1 has been around for years now. Do you know why Socket 7 was around for so long? Because AMD used it for so long. Intel abandoned it a loooong time ago for their proprietary Slot 1 architecture. AMD couldn't make Slot 1 CPUs. But all you needed to do was buy any old Slot 1 CPU (from 233 MHz to 600 MHz), and it would work in virtually any Slot 1 motherboard. Is that so bad? No, it is not. Which Slot 1 CPUs don't work in Slot 1 motherboards? The new Coppermine CPUs, if you're unlucky. The Coppermind CPUs will work in many (but not all) Slot 1 motherboards! For years now, you could have used the same Slot 1 motherboard, just upgrading CPUs. What are you complaining about? That your 486 doesn't work in a Pentium II motherboard? Oh well.... time goes on.
It will be interesting to see if this results in a practical quantum waveguide to replace wiring. Just insert (or remove) an electron at the one end of the pipe and it will produce (or delete) a marage at the other end.
I wonder if the "mirage" could be interpreted as the electrons of the cobalt atom tunneling to the image location and spending a fraction of their time there? That less-than-half strength might be because the nucleus is still at the other location and makes the electron density "prefer" that region because it is lower energy, due to the attraction of the positive charge.
I also wonder what is the speed of propagation of the effect? Switch a gate's output by dropping an electon into an electron trap at one end of the waveguide, and it appears (at, say, 50% density) at the other end, and affects the logic there. How long does it take to happen? Does it exceed the speed of signals in a wire? (That's a very small fraction of lightspeed on a chip, where the wire resistance and stray capacatance form a delay line.) Does it approach that of light in vacuum? Does it EXCEED that of light in vacuum? (Even if the total system can't send signals faster than light in emptyness, which is a very slight improvement on light in quantum vacuum.)
Whatever it is, my bet is that it will happen at tunneling speed.
Bantam Dominique roosters crow a four-note song. Once you've heard it as "Happy BIRTHday" you can't NOT hear it that way
of course not
but the apple II e's that were in my highschool's computer lab might not be state of the are anymore
Need a Catering Connection
Perhaps I'm not seeing something, but I can think of very few situations in which 128-bits is a definite advantage over 64.
Bits != total computational power, people.
-bugg
truely amazing... 5 days later and the mirage
appears again... but perhaps what is scarier is:
slashdot + (anti)slashdot -> geocities +14.3 KeV
Shouldn't you be off pouring grits down your pants while watching a statue of a certain Star Wars related actress?
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That site is not mine :-) Some troll poster posted it the other day. It's also been on a few other message boards.
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Internet Explorer (n): Another bug -- that is, a feature that can't be turned off -- in Windows.
Well, crusoe isn't the fastest processor at all. It's just the lowest power using (wrt to speed) x86 compatable chip.
I'd much rather have a cluster of P3 or Athlons.
No you don't. It'd be faster, but you could do it with just 4 32bit numbers.
Maybe if AMD started releasing computers with Linux pre-installed my news submission about AMD demonstrating a 1.1GHz Athon using copper-interconnect technology wouldn't have been rejected.
Sigh.
Esperandi
-lol- You obviously haven't been keeping up with the news. Apple's G4s are among the fastest things out there.
Kean
Ok the reference for this work is:
H. C. Manoharan, C. P. Lutz & D. M. Eigler, Nature403, 512-515(2000).
In this experiment a few Cobalt atoms were deposited on a Copper surface. Using a scanning tunneling microscope the Co atoms were gently dragged into an elliptic(coral) structure, and one Co atom was placed at the focus of the ellipse. (The images of this stuff are gorgeous and more cool STM images of atoms and atomic maniputation can be found at the STM Image Gallery).
Due to the magnetic nature of the Co atom electrons near the atom tend to align their spins with the Co magnetic field screening the magnetic moment. This local phenomina can be imaged by the STM, the surprising result is that another mirage image appears at the second focus of the ellipse. This suggests some sort of long range electon ordering.
These experiments are being done with a low temperature ultra-high vacuum stm (this stuff is damn hard) and to reproduce these same results in a next generation processor as a means to transport data is unlikely in the near future. Nevertheless, these results will have a great effect in our understanding of macroscopic quantum systems and ordering.
Actually, you couldn't just get new cpu's for the same slot1 board. If you bought one of the original slot1 boards you would have had to go get a new mobo based on a bx chipset to use a p2 350 or higher.
--Have a Johsonville brat.
I can think of a number of cases where this would make code run 2x as fast. Pretty much any time where you would want to move data around in memory you could now do it in 128 bit chunks, rather than 64 (or, heaven forbid 64). Memmove/Memcpy would be much faster...
Using the 'quantum mirage' process, previously posted Slashdot stories magically reappear at another time and place.
Nick Messick
nick@trendwhore.com
Hollow words will burn and hollow men will burn.
Moores law is taken out of context too much. IT is 18 months not 12 and it was not meant literal. If he had been speaking literally and on a 12 month scale we would have like 400 GHz computers right now.
Item: Company A introduces new technology which is X years ahead of any competition; will have commercial product which Y times better than anything available ever before in Z months /. Response My grandma could do that in her sleep, and she's dead! Company A did nothing special. Besides, there was a paper written at an obscure university ten years ago which made reference to something like what is described.
If you will excuse me, I have a computer lab to attend to.
Moore's Law sucks it took less then a year for my 400mhz and 500mhz computers to be outdated.
This stuff is kinda of cool though, maybe we'll get to see some nice VR stuff and better speech recognition. Eventually the hardware will be fast enough to run windows.
I would have liked to have seen intel go to a 128 bit architecture instead of 64 it would have lasted longer.
Environmentalists are their own worst enemy. ~tricklenews.com
Let me know if they plan on getting rid of them... I'm looking for a couple of text terminals to hook up to my linux box.
I'm looking for something that can emulate a DEC vt100... but I can't find any in my area (north Jersey).
q
"PROFANITY is the inevitable literary crutch of the inarticulate MOTHER FUCKER." -- some PC user
Here's a link to some work on Asynchronous processors at the University of Manchester, UK ;)
(Place where the first computer was built 51 years ago)
Really cool stuff
Amulet Processors
Didn't we see this a few days ago in this story? I was wondering why it sounded so familiar.
Not only that, if it crashes and you lose data, can you go into the other universe and get the data back? If so, how do you get into the other universe to do so ;-)
<sigh> Look, Moore's law is an observed phenomenon, not a fundamental rule, and it is observed in the industry as a whole, not necessarily within individual companies. If Intel doesn't come up with technologies allowing them ot go to 3.2 GHz within 3 years, then no, they won't have a 3.2 GHz then. It's by no means inevitable that they will come up with such technologies.
Here's a thought on this 'multi-clock' CPU of IBM's: What clock will they advertise it at? Presumably the clock of the fastest part. Still - maybe, just maybe, we'll start seeing marketing move away from clock speed as a meaningful measurement of chip performance. We can always hope.
IBM says 1 GHz will be available in a year, but Intel will definitely ship 1 GHz Willamette CPU's in under 12 months. So in the near term, this isn't a Big Deal. IBM also says that the 3.3 to 4.5 GHz chips are 3 to 4 years out. Intel is currently shipping 800MHz chips. So by Moore's law, they should have 3.2 GHz in about 36 months. If IBM had a 3.3 GHz CPU shipping in exactly 36 months (3 years), Intel would only be 3% slower. So maybe this isn't such a Big Thing?
Just because the speeds of processors are running so fast does not mean that the latest and greatest today will be outdate tomorow. Outdated is when the processor will no longer run the latest programs at an acceptable speed. Personaly, I don't care if my chip is the fastest or the slowest on the market, as long as it runs my programs at a good speed.
I can see the error messages for Win2010 now:
"Error - user32.exe performed an illegal operation in this universe - please continue in another universe or restart..."
Just as cool as hearing about RNA doing calculations that are beyond my knowledge.
'don't stop the roX'
Yeah, this won't light an even bigger fire under AMD and Intel's asses. As if new chips arent rolling out too fast as it is.Sharkey
http://www.badassmofo.com
For cryin' out loud, its not flaimbait. You can read my opinion of the matter on my site. Chips are already moving out too fast to reach the GHz mark, why accelerate the process? The major chip vendors are taking a big hit from all this, and the consumer is getting an influx of worthless chips. Why buy if it'll be outdated next week, literally?I agree that new technology needs to be pursued, my point wasn't that IBM shouldnt move forward with this. In fact, I feel just the opposite. My point is that someone should tell AMD and Intel to chill with the chip wars.Sharkey
http://www.badassmofo.com
I aggree, I have a Macintosh IIci that just barely runs linux, and I haven't upgraded to a new computer. However, my dad works for a large company that does very math oriented stuff ie Orbit calculations. For him, he brings home a laptop that runs at about 600 mHz and he uses all of the cpu for intensive floating point calculations. For most anything you could possibly do at home other than web hosting, the most you could possibly need is around 200 mHz. Assuming your running an OS that doesn't waste cpu.
Behold the power of ONE
Believe in the power of one.
yes, that is EXACTLY what this means. ;-)
- AZ
this is very true, the technology is being upgrade so fast that none can keep up and it's regoddamdiculous to even try to buy the fastest CPU on the market, not only will it be out of date tomorrow, you won't be able to use it for lack of a supporting mobo (motherboard for those of you who don't know). this is making many more clock speeds available, but making a stable and longlasting system less likey. think about it, they're making quantity, not quality now. sure, i want a gighertz processor as much as anyone, but i think i'll wait a year before i get one so i know it works and there's a motherboard for it, but than, it will no longer be available nor will supporting motherboards. Well, I guess I'd just like to share my opinion that things are moving TOO fast now, and the race needs to slow down or... well, there has to be a way that the end user doesn't get screwed. - AZ
- AZ
So does this mean that the IBM 1-piece 386 dos based terminals in my highschool's computer lab aren't state of the art anymore?
-- Just the FAQs Ma'am.
if quantum mirage is further refined this technology could potentially break all current computing paradigms. one can only begin to imagine the sorts of complex structures made utilizing quantum mirage. imagine a beowulf cluster of handhelds containing crusoe processors fabricated using quantum mirage technology!
Philosophy will clip an angel's wings. -- John Keats