700 MHz Athlon
News.com is reporting that AMD will release a 700 MHz Athlon this week, pushing them even further ahead in the MHz race against Intel. I hope it works well, because the article also points out that AMD is still not doing well financially...
So what does it mean to AMD if VIA can't deliver on the Apollo KX133 chipset? It means that you give Intel a chance to get back in the market with 700 MHz Coppermines in November. It also means that you reaffirm the general sense that AMD can't deliver it's products in a timely manner. Although waiting for the KX133 rewards consumers with lower CPU prices as the OEM market has demonstrated drastic drops in Athlon CPU prices this month, it prevents AMD from signing lucrative OEM contracts at a critical time.
In the consumer markets, people a waiting for AGP 4x, and will settle for an Apollo Pro chipset and a Pentium 3 rather than wait 2 months for VIA to release the same product for the Athlon. Personally, I don't plan on buying any more Intel products due to their shameless attempts to strong arm Taiwanese manufacturers into not making Athlon motherboard, the bogus Rambus fiasco and Intel's bribery of Gateway to stop making machines with AMD CPUs.
Essentially, AMD is making mistakes that they _Could_Have_Learned_from Intel. For instance, Intel makes its own chipsets, and charges people royalties to use them. AMD has virtually out-sourced its chipset design and fabrication to VIA who recently acquired Cyrix. Now, you've got to ask yourself, how dumb can the execs at AMD be? And you have to be pretty suspicious about how long it's taking VIA (pre-earthquake estimate for the KX133 release was November) to get out a decent motherboard for the Athlon CPUs, as the changes they'll have to make are hardly drastic. Current Athlon boards already have the Alpha 200 MHz bus, already support PC133 SDRAM, all that VIA needs to do is slap on the AGP 4x components and onboard UDMA/66 which is technology they_already_have. You have to wonder if the aquisition of Cyrix has made them a little less eager to see AMD survive, after all should AMD go bankrupt, that would leave the entire low end PC market at their disposal.
AMD's moving of their main Fab to Dresden was a smart play, as is the production of Motorola G4 chips (and indeed the partnership with Motorola whereby AMD has access to Motorola's copper CPU technology), However, why not shift the whole operation to Germany? Why put yourself at the mercy of VIA, and the Taiwanese?
To be blunt, AMD could put out a 2 GHz CPU by Christmas and still be screwed if VIA is significantly late with the KX133. I for one will not wait forever for this board, especially with all the information out now on the Transmeta CPU.
Man, I didn't think they were in this much trouble. From the article:
"Last quarter, AMD reported a walloping $173 million in operating losses and revealed that Atiq Raza, one of its most highly regarded executives, had made a deal with Beelzebub and was recalled to the astral plane for punishment.
There was no word on how Andy Groves, CEO of Intel corp had managed to maintain his working relationship with the lord of the underworld.
Some cite his strict open door policy, while others think he may actually be the devil."
Hotnutz.com
My understanding is that microwaves start at 1 Ghz and with CPU speed approaching those frequencies, does this mean that the CPU's will start emitting microwaves.
I'm assuming that I don't know my physics that well, because I guessing that microwave emitting CPU's would be a bad thing!
Then again, you could always cook the evening meal while you read /.
No, this isn't a flame...
What holds my interest in the Athalons isn't the tit-for-tat clockrate match with Intel (I mean, who really cares who owns the fastest CPU this month?). What I'm far more interested in AMD producing is the SMP versions.
To me, the biggest pain-in-the-ass right now is the P3 / Xeon product split. The slot1 architecture limits me to 2 CPUs - if I want more, I have to get Xeons, which are a huge cost uplift. Here's a good example:
A Compaq 1850R and a 6400R are very similar machines in everything but the CPU architecture (yes, there are a couple of other important advantages in the 6400, but not that big). I pay about $4000 for a 1 CPU 1850R, and $1300 for an additional CPU. For a 1 CPU 6400R, it's $8000, plus $1800/CPU.
Now, if AMD can come out with a chipset/motherboard that has 4-8 slots, AND I can stick the "commodity" (ie non-Ultra) Athalons in it, well, then, GoodBye Intel! AMD needs to realize that there is a huge opportunity here at the P3 / Xeon split, a place that they can heavily exploit. All the better, since Intel will NOT be able to remedy the situation, other than lower the cost of Xeons, something they are loath to do.
Having an single architecture that will linearly scale up through at least 8 (and preferably to 12 or so) would be a real advantage to AMD. I would much prefer to see them press ahead with putting into production large SMP-capable chipsets and such than worry about getting the absolute highest megahertz CPU out.
Just in case I'm not totally clear here, what I want is to be able to use the SAME CPU from the low-end machines to the high end ones. Now, I know I'll get better performance by buying the Athalon Ultras (much more L2 cache), but I'd at least like the option of using the base Athalons, rather than be forced to use the more expensive chips, just because the manufacture want me to (that's the reason for the Slot1 vs Slot2 division - it's a pure Intel marketing decision).
-Erik
There are always four sides to every story: your side, their side, the truth, and what really happened.
That actually also implies that SMP is also of relatively little merit for the same situations, as SMP is also a solution to the CPU Bottleneck problem.
What has more merit is the notion of trying to let system components be increasingly independent of the CPU. Things like:
(Some may think I jest... Check out the buffering specs on a 16450 versus 16550...)
This would be useful in providing a way to make journalled filesystems (of which two have recently made beta releases for Linux, namely ext2 and Reiserfs) both faster and more reliable, as they could have the metadata journals written out initially to this "relatively reliable cache" rather than having it vulnerable in ordinary RAM.
1MB of battery-backed RAM would be enough for Stephen Tweedy's ext3 implementation; doubtless other uses could be imagined for larger quantities...
The increasing availability of video cards with 32MB and more of RAM implies that there's some work being pushed off to the video card.
Extra coprocessors on the video card can't be too horrible an idea, and is consistent with things like Monster 3D boards that provide coprocessors to the "main" video card...
On the other hand, there's one notable fallacy here, which is that there is merit to moving to a system working with 128 bit memory space sizes. This is silly from at least three perspectives:
This is why the only systems that presently support more than 4GB of RAM on Linux are UltraSPARCs,
There is apparently a way to support a 64 bit data bus through a longer connector slot, but that does not make for a 128 bit extension.
Based on the rates of growth in the past, it seems reasonable to expect that 64 bit addressing will be adequate for all but highly unusual applications for the next ten to fifteen years.
And even then, it is reasonably likely that by that time, technology may have progressed back to using some of the memory segmentation technologies of the '60s ala MULTICS to obviate the need for linear growth of adddress space.
2^63 is approximately 4 billion billion, which is a very large value. A move to 128 bits squares that again, which provides an even more atrociously large space.
By moving to 128 bit addressing, the complexity of the memory addressing circuitry increases, as do the minimum amounts of memory that are likely to get addressed for instructions. This means that programs get bigger even if they do no more than they would on a 32 bit architecture.
If you're not part of the solution, you're part of the precipitate.
[rant]
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Are there STILL people out there that think their processor is the bottleneck of their system?
It's everything else!!!
Remember when the 486DX2 came out? You could have a 486DX2 running internally at 66Mhz on a bus of 33MHz...or choose the 486DX running at 50MHz on a bus of 50MHz? What did the benchmarks say? The all-50-MHz system was much faster.
But, instead of spending their time improving the speed and data width of the bus, chip makers tripled the internal speed...then quadrupled... now the minimum is quintuple the speed and AMD thinks we need septupal (notice I conveniently skip the dirty one).
I fail to see why the bus systems and processors can't make the speed transition at the same time. The extra time in the CPU cycle can be spent improving data pipes between components and increasing the number of processors. Imagine if the standard system today was four, 128-bit processors running at 133MHz on a bus of 133MHz?
I say end the madness...AMD and Intel need to spend their time working on cheap, stable 128-bit SMP instead of this overwhelmingly-fast single-point-of-failure! Why 128-bit? Because if I'm going to have to throw always all my existing technology and go through another period where everything I need to run is considered "legacy" then make it worth my while and jump right to 128-bits! 64-bit is obsolete,even for game consoles. Hell, there are Windows CE portables can have 128-bit Hitachi processors (although again, nothing else in the unit is 128-bit).
I want a nice fat data pipe running at a cool, stable 200-300 megahertz. Not some processor that is ready to go critical and burn a hole through my motherboard.
[/rant]
As always, my opinion...not yours. Remember that before when you post flamebait or troll replies.
- JoeShmoe
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-- I wonder which will go down in history as the bigger failure: the War on Drugs or the War on Filesharing
Ok, right now at home I am running a AMD K6-2 350.
.. in reality.. in a lot of applications my AMD 350 seems to be a bit pepier...
:) to upgrade?
... BUT, for the average user.. and the average applications.. it seems that the bottleneck is NOT the CPU..
128meg ram, 16meg TNT, IDE.. yada yada..
At work I am running a PIII 500 with about the same setup.
this is my questions, why am I not seeing a near double in my performance? I would guess that it was ram.. BUT.. I took ram out of one of the other machines, and I am not seeing a GREAT performance increase..
Sure, my computer at work can crunch SETI@ blocks a bit quicker, but
QUICK NOTE: I am not a big gamer or 3D freak..
THIS IS THE POINT.. has anyone actually used a computer that goes that fast? (700 Mhz).. is it even worth it for the average LinuxNerd(TM)
It seems like these superfast CPU's are GREAT if you have VERY spacific needs.. (3D Rendering (ie. Games))
For someone out there that has a lot of experience with a lot of different CPU's, which CPU configuration is the price to performance ratio?
Will I see more performance increase by purchasing a UW/SCSI-Controller / HD????
More Ram?
More CPU?
:) For some reason I feel like if I dump my current motherboard and go purchase a AMD-700 w/new ram.. etc. I will be disapointed....