Intel's P4 3GHz w/ 800MHz Bus & Canterwood Chips
OldGrayDave writes "Intel steps out today with their new Pentium 4 3GHz chip that runs on an
800MHz System Bus. They've also released "Canterwood", the chipset chipset
for the P4 that supports Dual Channel DDR400 memory, native Serial ATA 150, RAID 0,
AGP8X, USB2.0 and a host of other bells and whistles.
Check out this showcase and performance analysis at HotHardware, to see what
all the buzz is about. Intel distances themselves again from the Athlon." Or, you can read more at Hardavenue, mbreview, Tom's Hardware, hardware unlimited, or The Tech Report. I dunno...hardware gets faster, bus gets faster. Tide goes in, tide goes out.
I have to wonder what the point is with some of these new faster processors. At this point, almost no applications can really take advantage of the fastest chips available. My sister uses a 500 MHZ machine at home, and as far as I can tell she has no real issues with its speed. I have to wonder if Intel is just shooting itself in the leg, spending needlessly large amounts on R&D to produce chips that no one actually needs. PS - FP?
Alternatively, one could try a reply based on business models. Intel is an R&D-driven company. They don't want to be the next Zilog. If they don't continually introduce new products, that's what they will become, and it's really hard work competing in a low-margin commodity business.
Any sufficiently advanced technology is indistinguishable from a rigged demo
--Andy Finkel (J. Klass?)
Everyone knows that my 1GHz G4 is just as fast...right? right?!?!?!
I dunno...hardware gets faster, bus gets faster. Tide goes in, tide goes out.
ah slashdot, let ye profundity run far and wide.
That said, I'm disapointed that you only get 2 SATA channels. Remember, with SATA it's only one device per channel, unlike parallel ATA.
Comment forecast: Bits of genius surrounded by a sea of mediocrity.
Just out of curiosity why is there only 2 SATA controllers on all these new motherboards? No room? Too expensive? No need? Whats the point in having SATA RAID with only 2 devices? I'm looking at building a new UBER-Fileserver for my home and want to use SATA but I want at least 4 maybe 8 HD's in the thing.
This P.I.G. will walk on the water, This P.I.G. will walk on the sea, This P.I.G. will walk whereever he wants.
does anyone else think it's time to upgrade my k6-2 400?
Schrodinger's cat is either dead or really pissed off...
While faster processors are needed by a small group of people the general advice regarding upgrade has to be something like:
If you get at least 3 fold increase in performance upgrade, otherwise wait, because you can't "feel" the upgrade only measure it.
No matter how many MHz you have, broken Java code, lame screen redraws in your browser, compiles set to use "make -j4" and countless other programming adventures can pin the CPU at 100%. I want good, cheap, 2 or 4 way SMP on my desktop. I don't want one app to wait for another, and I don't want to have to wait for any of them. I switched to a dual Celeron board some years ago, and there's really no going back once you've gone duallie.
I want to delete my account but Slashdot doesn't allow it.
The possible uses for more computing power was explored recently in an article here. The article I am referring to is Paul Graham's "The Hundred Year Language" and should chill the "my 4.77MHZ XT with a 8087 FPU is all I'll ever need!" crowd a couple of degrees.
If you outlaw the law, only criminals will have laws
about quad pumped ddr or any ddr ram for that matter. i still only have normal sdram. that said any increase in performace is good for the industry itself since competitor (:P) will want to keep at least a step behind the pace.
I know you are psychotic, but please make an effort.
There's another good review of this in the latest issue of Maximum PC.
Stop by my site where I write about ERP systems & more
This isn't meant as a troll, but I'm sure many of the more... sensitive ... Mac users will take it as such anyway.
This speed boost is great for the x86 world. Speed keeps getting better. Intel and AMD keep competing and leapfrogging each other to greater heights. My sorrow is that Apple's offerings really are *years behind* right now. I know, I know, speed doesn't matter when Macs are slower, but when Macs had the speed advantage, the Mac users claimed speed was all-important and there was no problem attacking the PC users based on their sorry speed. Mac users, like everyone else in the world it seems, aren't objective - if the PowerBook is thinner, they claim size (ahem) is important. When the PC world shows us the Superthin Vaio, we say that Size doesn't matter, it's how you use it (ahem again). And that's the problem; that's why Apple doesn't feel the need to force speed increases out of Moto and IBM to keep up with the Joneses - Mac users are so damn faithful, that they don't apply any market pressure to Apple to force them to compete! Instead, the "Mac Faithful" DEFEND Apple's weaknesses, allowing Apple to slack off in the processor department.
Next time a MacZealot defends Apple's 1 Ghz processors on a slow bus, tell him that he's NOT helping Apple. The way to help Apple is to absolutely demand faster processors, and threaten to switch to x86 if they don't deliver. If we give Apple a "Get out of Jail Free card" with regards to processor speed, we'll NEVER be competitive with Intel.
And yes, I've heard the RUMORS about the IBM chips. They'll still be far behind this, RISC or not.
I'm still hoping I can get my 3GHz G5 (TBA tomorrow). ;)
The "sixpack" refers to beer, not muscle. So, yes, I would say that Joe Sixpack really has a six-pack.
News.com just updated their article on the chip to state that "a possible problem with the 3GHz Pentium 4, discovered at the last minute, forced the company to delay the chip late on Sunday."
"Well, nobody needs a zillion Ghz anyway! vi and a compiler on my old 286 should be enough for anybody! Bah!"
Optimizing g++ would go a long way to increasing the speed of compiling KDE, and many other large C++ apps like Mozilla... Even just precompiled headers would help a lot!
:)
But why optimize when you can just tell everyone to go out and buy a new faster processor.
This means nothing. The PeeCee architecture is simply not suited for any real computational tasks. Memory bandwith is limited. System bus speed is limited. Graphics performance is poor. Just the other day I performed a task on my Sun SPARCstation 1 that took only 14 seconds...on my friend's 3.06GHz P4 system it took 14 hours!
Yes my friends...the UNIX workstation is still king! None of this PeeCee rubbish for me!
...delayed. Intel has noticed some anomalies and has decided to hold off shipping for the time being. I guess they'll (Intel) tell us more later.
Honestly, what's the alternative? Stopping with the technology we have because it's good enough? I think not. Even if there is no immediate need for more FLOPS and whatnot on the desktop, it's better to advance the state of technology than not. As Edward Gibbon observed, "All that is human must retrograde if it do not advance."
Flying is easy, just throw yourself at the ground and miss. -Douglas Adams
Someone else (Gothmolly) said 'I want cheap SMP, not more MHz.' earlier on. I thought about his reasoning for a while and have to suggest at least considering RAIC as a way to get cheap SMP. Redundant Array of Inexpensive Computers - similar in thought to the original purpose of RAID (RAI Drives) - use a few cheap pieces to get the same or better performance of one wickedly expensive piece of hardware.
... nice. Honestly though I am way more excited about the SATA/RAID 0 performance than I am the additional CPU horsepower. Sustained serial reads of 96MB/s and sustained serial reads of 86MB/s - not burst but sustained -:- DAMN. That is easily twice the performance of my current rig, possibly three times the performance. I care less about a CPU running 7% faster; I wouldn't even notice the extra 40fps on Quake3Arena going from 410fps to 450fps but the ability to move data back and forth to the hard drive three times as fast is going to make this one machine worth upgrading to.
Today, if you were to search around a little to scrounge up one of the 15% coupons floating around on the net (www.fatwallet.com for example) you could go to Dell and have a fully loaded system (Celeron 1.8GHz, 128M DDR266, 40G IDE, 8M onboard video, Intel Gigahertz NIC, 48xCD, keyboard and mouse) delivered to your house for $240 after rebate ($100 rebate but they are pretty good about paying them.) I think you can upgrade the hard drive to dual 80G drives (buy one get one free if you upgrade) for another $60, bringing the total price to $300. Add a $50 two port KVM (I use the Linksys, has build in cables) to your existing rig and now your monitor, keyboard and mouse can instantly switch between the two systems. Have a massive process that hogs the CPU, swap over to the other machine to do whatever you want while it runs. I have been doing this for a while and the ONLY drawback I have seen so far is not being able to cut and paste from one to the other. Other than that they are effectively one machine with two discrete workspaces.
As for the new hardware
IMHO the advances in hard drive performance are the real story here. Running the P4/3G on a 400FSB vs the old 333FSB is nothing compared to getting 3x the performance from the drive subsystem.
Glonoinha the MebiByte Slayer
"Bed Goes up, Bed goes down.
Bed Goes up, Bed goes down. Weeehee!" - Homer Simpson
--Remove chicken to e-mail
AMD started naming their cores after horses (Palomino, Thoroughbred, etc). Now Intel has brought out the Canterwood. Is the Gallopwood next? :)
We hang the petty thieves, but appoint the great ones to public office. - Aesop
... thought wrong.
I've reclocked my Athlon 1700+ (TBred core) to 8x202MHz (404MHz DDR) on my ASUS nForce2 chipset board, using a single Corsair PC3200C2 DIMM (yes, two DIMMs would be better, but they were too expensive at the time). It's just a matter of selecting the right BIOS settings. I left the voltage levels at their defaults. MemTest86 verifies that the memory is stable at that speed. Red Hat Linux runs until I need to reboot for the usual kernel/glibc upgrades. I went this this approach because I wanted to optimize the performence/power consumption balance, what with the machine running 24x7 and all.
Of course, tweaking speeds like this is not guaranteed to work, yadda yadda, but it generally does if you built your system right.
If you want serious firepower, build a dual Athlon box, which should cost no more than the uniprocessor P4 being reviewed. time make reports a bit over 9 minutes when building Wine with MAKEFLAGS=-j2 on my dual 2400+ (not overclocked). Nice, especially when you forget the --with-nptl switch the first time around (d'oh!).
Of course, next week, the Opterons ship, starting with Opteron DP 240's and 242's. It's unclear whether there will be cheap workstation motherboards available right away or just the seriously nice (and expensive) Newisys-designed 1U rackmount servers. It appears that AMD is going to use the Opterons to slap the high-end P4's around, saving the Athlon 64 until they want a low-to-midrange 64-bit desktop platform. I'm surprised the various hardware site reviewers haven't picked up on this.
The newest edition of the T2 DVD will include an HD transfer of the movie that can be run with WMP9. I tried to run a sample HD clip ("Step Into Liquid") on my computer (Athlon XP 1600 w/ 512 MB RAM)--I got a nice slide show of still frames. It ran a little better on my laptop. MS's website recommends 2.4 GHz minimum, and I can see why. T2 will be higher rez than that clip, so I'd expect you'd need something even faster.
HDTV can also benefit, as new tuners like the Fusion HDTV card are inexpensive but have software-only decoding, putting a good strain on the CPU. I want one of these new chips. For the lust factor? Nope. There are applications I'm interested in that will actually benefit from the higher speed.
... every article I've seen to help you speed up your PC begins with the directive to "increase your memory" before all else (and at all levels memory is the bottleneck). Is it really cheaper to come out with a whole new CPU than to make sure you have squeezed maximum performance out of the last batch? Why not increase onboard cache size so you could swap out the old 1 Ghz with a new 1 Ghz that would have better performance but wouldn't need a chipset/mobo upgrade?
"Consensus" in science is _always_ a political construct.
All that stuff about huge speed increases and sackloads of extra memory bandwidth, reduced clock cycles, RAID...but when you eventually get to the performance testing it seems very little faster than top end current boards. Perhaps if you have a daily compute-intensive job that is slowly growing and currently takes 23hours, you would get excited, but as a developer I guess I might gain a few minutes off my build times (and that's staring into space thinking time anyway.)
I'm not knocking progress: the lower voltage and the ability to use a 4-layer board, plus the serial ATA on-board support look nice, but the number of people with more money than sense needed to get a fast R&D payback isn't that high at the moment.
Or is this a cunning plan to make money through selling compute farms to rogue states that have just decided they need WMDs really fast?
Panurge has posted for the last time. Thanks for the positive moderations.
Everytime there's an article about a new faster piece of tech on Slashdot lately there are a dozen comments that get modded up right away about 'Why do we need faster computers anyway?'.
Look, if 640K is good enough for you guys, fine, but let's stop the whining. The rest of us like to do things like compile code and compress video.
My God, it's Full of Source!
OUTSIDE_IP=$(dig +short my.ip @outsideip.net)
The computer runs my applications without noticable delay, is "user friendly", doesn't crash, and requires minimal maintenance. I'm happy with it.
Mea navis aericumbens anguillis abundat
I wonder... How many chips could a chipset set if a chipset could set chips?
What do you mean they cut the power? How can they cut the power, man? They're animals!
"But my 8088 scrolls text just fine! Why would anyone want something more powerful?"
Because there is neat new shit that takes more power. Receant example: HD multimedia. The Windows Media 9 HD demos kill a P4 1.6 and really take at least a P4 2.4 to play well. Means that if you have a 2.4, which is pretty good these days, that is about ALL your system can do, not much room for bacground tasks.
Or how about speech recognition? There are some nifty new technologies in speech recognition the integrate it better with text parsing for far more accurate recoginition. One problem: they take loads more power than normal speech recog, which takes a bit itself. Given that ideally this should happen in the background as a normal part of the OS, more power become critical.
Or how about better game AI? I am so sick of 3d bots that get "good" by becomming aimbots or RTS AI that attacks you in teh same predictable way every time. I want smarter AI. Well, to do that it is going to take more processing power. Teh smarter the AI, the more CPU time it needs. all this while still doing all the other calcuilations a game needs (like physics and game logic).
We are not even close to expending the need for more computer power. As power grows, we'll simply find new and creative way to use it that were not before possable.
After all, my 8088 scrolled text like a champ, but I much prefer my P4.
It amazes me, but the first spreadsheet software, VisiCalc, was 27,520 bytes.
I find it really funny how the people of this forum react to the release of a new proceesor and mobo architecture. When AMD releases something new, some of the people of this forum would like to declare a national holiday, but when Intel releases something obviously superior in quality and processing capability (possibly revolutionizing the industry), all you people do is bitch and moan about the lack of necessity for something that is so powerful and expensive. I've got news for you, by the time AMD comes out with something that can hold its own with this new Intel release, the Intel version will be half the price of the AMD. So as far as I see it, just be happy that technology is advancing, even if it is "THE MAN" (Intel) that is making it happen
Thankfully the AMD Hammer chips will not use a FSB so Intel can race itself instead.
Intel found a last minute bug on Sunday night, and will not relase a processor that can take advantage this chipset until further notice!
d _t op
http://news.com.com/2100-1006-996611.html?tag=f
Ok I didn't mention the noise from all the fans and drives. I didn't say it was a perfect solution, merely a cheap solution. I have to admit that if I need to concentrate for some serious coding I generally pop in ear plugs (the yellow squishy ones you use when shooting guns.)
... - all piped through to the same keyboard/mouse/monitor.
.AVI way faster than a 1.8GHz Celeron ... but if I needed to rip and compress a dozen different DVDs ... I would put my money on the Celery farm (no pun intended.) The SMP box is going to show way more fps in a game like Unreal2, but if I had to render 300,000 frames of graphics for the next Pixar flick I would much rather have the farm of mid range machines.
As for easy to switch between machines, all I do is hit the Scroll Lock key twice and my screen flashes. I have the desktops of both machines pretty much configured the same but the wallpaper is different so I can differentiate between them.
They have become (in my mind) two discrete workspaces of the same machine. If you view 'the computer' as the keyboard/mouse/monitor combo used to interface the machine then adding another machine behind that interface merely adds another dimension to your existing computer.
Granted you can't simply shift the same session you are working on between machines, that isn't what this is about. It is about division of labor. A multi-processor system isn't going to allow you to continue to surf the web or edit code during a reboot and a blue screen pretty much brings all processes to a stop; the SMP box will still be disk bound (sluggish) during very disk intensive activities (ie system backups or DivX ripping / encoding / burning sessions, or whatever ties up your disk subsystem.) A single CPU is dedicated to a single process (even though that process may involve many programs, editor sessions, and apps running) but rather than shared resources (besides the CPU) each CPU gets dedicated RAM, disk I/O, network connectivity, video, CD-ROM, etc
It also serves way more useful when creating client / server applications that need to take into account network access, or apps that have multiple simultaneous users accessing the system, particularly multiple users with different levels of access.
Each has its pros and cons, I was just saying that with the exception of single task operations (ie. FPS games, PGP cracking, DVD ripping, etc...) your best bang for the buck is multiple machines. For the cost of a single SMP Dual Xeon 3.06GHz machine (?? $3k) you could set up a dozen of the machines I described earlier. Which is a faster rig? Depends on what you are doing. The Dualie is going to rip and compress a single DVD to
For your particular needs it doesn't sound like the solution, but you did consider it - which was my goal.
Glonoinha the MebiByte Slayer
In this heise-article from 15 minutes ago, Intel has withdrawn the release of the new CPU. A google-crappy translation can be found here.
This ZDNet story
says that Intel has stopped shipping the 3 Gig P4 with the 800 mhz FSB due
to "anomalies."
Actually very close, but different. With a Beowulf all the machines actually are working as a single coherent entity, and are throwing all of their processing power at a single process - hopefully a process coded to take advantage of the distributed processing of the cluster. Adding more machines will make the process faster (in theory.)
... no matter how fast your SMP box is you are pretty well screwed (have to close your game to do those things) but you can easily do it on one of the other 2.4GHz boxes by double tapping the scroll lock key, swapping back and forth between the two.
... but nothing I run benefits from a SMP box, much less even knows how to cooperate with a Beowulf cluster.
With RAIC each machine is doing its own thing although they generally all have identical drive mappings to the same places so they can share files back and forth and regardless of which machine is running a program they can all be configured the same way. Adding more machines will not speed up any one process, it just lets you run more (different) processes at the same time.
Compare a single uberSMP box (dual HT 3.06GHz CPUs) with two mid range regular (single 2.4GHz CPU) machines. The uberBox is going to run Q3A, UT2003, and EverQuest way faster, zero video lag, etc... than the 2.4GHz box and adding boxes to the cluster simply can't help the performance in this case. But what if you wanted to bring up a map, or a web page with all the console commands, or Google for instructions or whatever
I would eagerly Beowulf the RAIC if I could only figure out how to actually apply that power to the stuff I am running
Glonoinha the MebiByte Slayer
I see the usual replies claiming that 1GHz is more than fast enough and the usual critical replies citing video editing and speed recognition. Now while I can agree that more speed is often good, are these really examples where it makes a lot of sense to buy hot, expensive, and power hungry general purpose CPUs to handle special purpose tasks? 3D graphics didn't wait for processors to hit 20GHz, but a 300MHz graphics processor can outrun any general purpose CPU. Video editing is another good example. Why is it so slow? Because it involves compressing lots of data. A team of graduate students could create an FPGA that runs rings around a P4 for video compression (by, say, a factor of 20). Speech recognition is the same way.
In short, paying $1000+ for a processor that's 9% faster and uses 15% more power is not a good solution for "I need more power for video editing," especially when you should be able to get 20x-50x performance increases for 10% of the cost.
I'd like to see speed/power specs advertised, and not just for laptops.
-mse
Fiat Lux.
To add to the list of inconveniences: Shitty programs that for whatever reason, take 100% regardless of their usage (in windows). I mean, lots of games, encoders, oldy-but-goody 16 bit programs, you name it. If people really threaded what needed to be threaded and coded properly, then I would not need a 2nd core.
Another reason is IDE. Sure, it's fast enough, but it's pretty dumb compared to SCSI's capabilities of offloading processing and data transfer. If all desktops had good SCSI connections, massive processor speed would be less of a need.... I still love my 8x SCSI CD-RW :-)
Make sure everyone's vote counts: Verified Voting
will my floppy drive still be really slow?
This
A small number of processors had "unexpected results" in FSB800 mode, that Intel has to check out more carefuly now.
Lars T.
To the guy who modded me down from perfect to terrible Karma - Apple haters still suck
Apple execs comment on the recent chipset from Intel, their fastest to date: "We at Apple feel that computing experience is more important than raw computing speed. Therfore, we have decided that 1.42GHz is fastest that G4 processors ever need to be. In fact, we think 1.42GHz is too fast. Therefore, we will be re-introducing our 600 and 700Mhz lines. Thank you."
It's mostly 160x100 avi's.
Oh, and it's a 386DX, not SX. Runs at 33Mhz smooth as shit.
Windows 3.1 boots in a mere 19 seconds.
While I don't agree with the poster's first point (by and large the zealots' postings are original), I love the last bit about "The Emperor's New Clothes". Apple users should sit and up and think about that.
Quote from Intel:
"Due to recent analysis, and given our commitment to quality, Intel will be placing the Pentium 4 processor at 3.00 GHz with an 800MHz bus on ship hold temporarily. In the course of our final testing in our validation lab environment, we have observed an anomaly on a very small number of the 800MHz bus processors. We are working to understand and resolve the issue and we hope to ship this new processor as soon as possible."
Help fight continental drift.
odd, PII's topped off at 400Mhz. You don't have to lie to kick it. Loser.
My setup at work is exactly what you describe. It works great for me. I think you really have a good idea, and you get out much cheaper. Also, if you have dual boot on the machines you can be rebooting one while using the other. It really is terrific.
collection of linux boxens: check
add compiled kernel with mosix patch to grub: check
remote display pointing to system with monitor, kb & mouse: check
reboot.
"Are you a code cracker hacker leet dude with porn?..it's all about the...pentiums?"
"You can just turn the other cheeck, Dare to be stupid. Yeah it's ok it's like saying: You gata buy one if you wana get one free."
They suck don't use them AMD's are compatible and better. So are macs.
A total newbie question, mostly cause I never even tried it...
But could you buy an extra IDE PCI card to supplement the existing on-board IDE controller?
Or would the card "take over" that functionality from the motherboard, like an extra video card "overrides" the on-board video?
Would Linux (Redhat) see all 8 HDs in that case?
Anybody out there tried it?
Nope, he's right, the P2 topped out at 450MHz.
3 657.htm
http://www.intel.com/design/PentiumII/datashts/24
I join my esteemed colleagues in their evaluation of this software: it f***ing kicks ass :)
"If you could only see what I've seen with your eyes..." - Roy Batty
Ask the important question: What color is it?
See Ya - AMD!
... that we took this energy and put it back into writing really small, tight, compact code. It seems to me that we've become too dependent upon slopping software together in this day and age that the artistry, mastery, and elegance of slinging code is long-gone from most code that a consumer will see.
... why not actually look at it from a pipeline / instruction setup: "oh yeah? Well *my* code can pull off the equivalent of 12 operations per second with *no* pipeline bubbles, AND shadow the RAM" (just like the C-64 was shadowed to get the "128K" later on in the product cycle.
... twice ... by someone else ... and this week looks no better.
:|
Instead of touting a new 3Ghz CPU with an 800Mhz FSB
Crap, it's another case of, "born 15-20 years too late". Last week (or was it 2 weeks ago?) started with an idea of mine (that I was coding up to get a patent for) being slashdotted
*sigh*
PS: Anyone know of a FREE C or C-like PIC chip programming software? Yeah, OT-away.
Modify your expression:
float x = 3.14159; float y = 1.0/2.0 * x;
Redid the link.
I forgot about the dreaded space in the middle of the url 'feature'.
Glonoinha the MebiByte Slayer
Aparently they've already halted shipments...
Here's the link.
I have had the opportunity to use SMP machines in production but that involved little more than moving my programs there and letting them run ... no day to day experience and I am curious :
I know what throttles a single CPU box - swapping to disk when RAMbound, a full page of flash animations, a disk subsystem that is too busy moving massive files around to acknowledge my petty http requests, but what have you found that can throttle your SMP Athlon machine?
As for 410fps you are right, that was a server with crap video - not a particularly good choice for games. It does come with the GigE NIC though, built right onto the mobo. I also agree about the Celeron chip, when I ordered mine they were offering free CPU upgrades so my machine came with a P4/2.4GHz.
Glonoinha the MebiByte Slayer
Its called Hyper Threading. This is why all CPU's with HT are actually detected as 2 CPU's by Windows and Linux alike. It is not completely 2 CPU's, but the execution of instructions in the pipeline can be "bypassed" in a sense by allowing other instruction threads to execute while other threads are waiting on things like I/O.
Also, there was no performance increase in the CPU (well sort of, but not really). Just that the bus speed was boosted. This only changes the speed at which data and instructions can be sent to the CPU, but the CPU itself is still limited to the same amout of theoritical instructions per second as it was origionally (in fact, its a little slower 3.0 GHz vs 3.06 GHz). The increase in bandwidth will really only affect operations which are data heavy (wasting CPU cycles while waiting for the data). Anything that was CPU cycle dependent will actually perform slightly worse on the new 3.0 Ghz chip compaired to the 3.06 GHz (since we lose 60 cycles per second, that is 60 more operations that it can not complete).
A real SATA implementation is one of the real benefits to the Canterwood systems. Tests are showing RAID0 systems using SATA are scaling at almost 70-85% performance of each disk in the raid volume. Non-raided SATA disks are also benefitting from the south bridge integrated controler. Initial tests are showing the new Maxtor disks to reaching over 100MBps vs 80-88MBps when used on a PCI bus based SATA controler.
The CSA bus is also a great improvement with the use of gig-ethernet. Only a few of the canterwood manufacturers are actually using the CSA bus (Gigabyte, Abit, MSI, and IWILL), all the others are not using this new bus. The necessity for the CSA bus will become very apparent with the use of math. If a gig-ethernet solution is placed onto a system on the PCI bus, you will actually max the PCI bus itself with this card, and that is not taking into account all the other devices that share this bandwidth (sound cards, RAID cards, etc). The only reason not to use CSA is price. The CSA bus was designed to use Intel chips. The Intel chips are more expensive then some other gig-ethernet chips out there, but anyone who has used the Intel chips will easily see the performance/value of their solution (this is even without the CSA bus, Intel's ethernet chips are by far one of the best available). The motherboard manufacturers who are not using the CSA bus will try and tell people that it is really not needed as the overall bottleneck will be your hard drive for transfering data, but this is really not the case with reguards to the systems this motherboard will be used. Almost all of these systems will have large amounts of RAM that will easily be able to cache the data communications for streaming to the hard drives (the intended use of the Canterwood chipset is for workstation and small server class systems, hence the support for ECC checked RAM) and these systems will usually have at least a few gig's of RAM (mine will have 2).
Basically this chipset fixes SEVERAL bottlenecks in the overall system (integration of SATA to remove it from the PCI bus, use of CSA to remove ethernet from the PCI bus, increase of bandwidth between CPU, RAM and hard disks). The main bottleneck that was not addressed by this chipset was the use of the PCI bus. Even though the PCI bus's usage was offloaded to other buses, the PCI bus is very much outdated and should have been replaced with a new bus. PCI Express is a new viable option, and including it would have been a very good move on Intel's part. It should have done what they did when the ISA bus became outdated, included the PCI bus along with the ISA bus on the board, thus allowing people to still use their old PCI cards for the next few generations of systems while all the hardware manufacturers can start migrating to the new bus architecture (can't remember if PCIX is backwards compatible or not, or if it was another bus which was not compatible). In any case, this should have been included in this chipset to start pushing the hardware manufacturers to start changing their production.
We were all warned a long time ago that MS products sucked, remember the Magic 8 Ball said, "Outlook not so good"
if you have dual boot on the machines you can be rebooting one while using the other
;)
That's what I use VMware for.
The ratio of people to cake is too big
I know that one of the biggest problem facing the place I worked this summer (a truely enlightened place for programmers) was trying to teach "old" programmers not to spend so much time trying to write concise, small, effeicient programs. Their time and resources can be better allocated in other ways. Not to say that lazy and bad programming is good of course (wow, that's convincing), but it ceases to be AS important since the hardware is far beyond the software. But this is just one isolated example.
Lose the battle. Win the war.
vmware is great, I really like it, but considering I can buy a new computer for the price of the license, I think I will stick with having a second computer.
Someday there will be a list containing just a few of the things done by people with really fast computers. That list won't contain web surfing, word processing, and recipe file management. It will contain things like protein folding, simulation of computer chips, market modeling, database searches, virtual reality games, creating 3D annimations at home, multimedia editing, and other similar things. That list will be used to reduce the incidence of posts that say, "My ten year old computer does everything I want and that invalidates the need for any faster computer by anyones else." Someday that list will exist and be posted on popular discussion sites.... but not today on Slashdot.
While backups are the obvious solution, is someone that is slapping together a raid 0 system from cheap IDE or Serial ATA drives going to be able to afford a Tape drive that can hold 200GB of data? thats a hell of alot of CD-R's, or a damn long time to download, even off a T-1.. Hell, thats a handfull of 80/40GB tapes for DLT, and the drives aren't too cheap either..
What are we going to do tonight Brain?
Considering... of course? Singularity.
If Joe Smoe can't use it then nobody else needs it either. I always hated that idea. Thanks for mentioning my field. I'm into music production and that's one area that will always need more power. In order to run high end pro reverbs a great deal of CPU power is needed. I never seem to have enough and the native reverbs never seem to be as good as the dedicated boxes from TC Works or Lexicon. If the CPU power is there then someone will find a use for it.
These "IBM" chips you are speaking of have been used in everything post 68040 you ass clown. They are all RISC and kick the crap outa x86. x86 just keeps wanting to make the cycles quicker and quicker without doing things more intellgently.
Dumbass
...everything on this earth has a purpose, every disease an herb to cure
it, and every person a mission. This is the Indian theory of existence.
Mourning Dove, (Salish 1888-1936)
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