Hardly. TAT (Intel's Thermal Analysis Tool) will get a dual core hotter than anything else can... but the bummer is it only works on dual cores. Gets The cores some 15C hotter than FAH can.
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Did you guys see this description?
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The Apogee™ GTZ is Swiftech's new flagship water-block. While it shares the same name with its predecessors, it also leaps beyond the GT and GTX performance charts thanks to an entirely new design that pushes and refines both thermal and mechanical specifications to the limits of today's technology. Thermal design of the cooling engine combines the benefits of direct coolant impingement over the CPU area with an entirely new copper base plate design which is primarily characterized by a pin matrix composed of 225 µm (0.009") micro structures. This results in a 20% improvement in thermal resistance compared to the Apogee™ GTX. Mechanical design of the copper base plate is optimized for Intel socket 775 and 771 and features a topographically mapped CPU contact area which results in a 75% and up to 300% improvement in TIM joint thermal resistance compared to the Apogee™ GT/GTX series. It should be noted that other types of sockets (AMD socket F, AM2, 940) may also benefit from the enhanced contact area to a lesser extent. An enhanced tool free retention system using thumb-nuts paired with a universal 775 motherboard back-plate also guarantees high quality, safe and repeatable mounts.
- The Apogee™ GTZ is shipped with an Intel® Core™ 2 (socket 775) compatible hold-down plate and complies with socket 775 keep-out specification, thus guaranteeing compatibility with all socket 775 type motherboards.
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interesting that they seem to have made the block for 775/771, I wonder how that will impact performance on Nehalem (can't see buying a block now that won't perform well with the next upgrade).
"topographically mapped CPU contact area"
What does this thing come bowed?
Any current blocks with comparable pin size, i.e. 0.009" ?
The thermalright XWB-01 probably has the finest pins of the blocks I have on hand, it's probably in the neighborhood of that dimension or under .010" anyhow. But the TR is made from what appears to me, some sort of copper sheet method, where they stamp out the ultra fine pins and stack alternating sheets of pins, no pins, pins, etc, and then it's soldered to the base.
Trying to machine or cast something that fine would be very difficult.
Where did you find that introduction anyhow? I can't find it on their site..
Whoa, something like this?
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"The clever bit is the layout of the channels. According to Big Blue boffins, the system uses a hierarchical network of pathways not unlike tree branches or human blood vessels. Bigger canals feed into smaller tributaries, down into a narrower rivers and streams.
http://regmedia.co.uk/2006/10/26/ibm_paste_1.jpg
IBM claimed the channels allow the thermal paste to spread more completely and more thinly (see above), improving its ability to conduct heat away from the chip and through to a heatsink, fan, cooling pipe or liquid-filled radiator. The paste is essential to allow the chip to maintain contact with its cooler even though the gap between the two devices changes as they both undergo thermal expansion and contraction."
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Looking around, I found this too: LINK
I think I just had an accident...
Ya, I was reading your review on your website and saw you mention that....interesting.
I found the GTZ description on this random website here: LINK
Woah i remember reading about that IBM thing but had forgotten about it. I wonder...
OCCT 2.x in CPU mode uses same algorithm as prime95, but it is much more optimized and better multithreading. The FFT are iterations from 8-64k in OCCT while Prime95 stops at 32k (could be a plus or less as 64k will be out of the CPU cache)
OCCT v2.x in CPU mode in my comparisions testing will give the same temp as Prime95 small FFT but it will be reached much quicker.
Using OCCT in custom mode is a bad idea. It will make iterations between the CPU mode and the RAM mode at regular intervals. You can see it with an oscilloscopic temp curve on the cores (OCCT 2.x I talk about)
F@H will make a stress on the whole system, including the RAM and NB. Hangs ups won't be CPU only related. And F@H can't load a CPU hotter than Prime95. Also, far better than F@H at loading the whole CPU-NB-RAM system is OCCT v2.x in RAM mode.
Linpack could be a great tool, but only in its 64bit edition. The 32bits edition, in my testings, doesn't stand up to OCCT or Prime95, even with the excessive heat generated.
Finally, I'm not sure TAT really gives so much heat. I thought it was some "software simulation" of a 100% TDP state of the CPU, where all other programs, including Prime95 won't exceed maybe the 80-85% TDP of the CPU
All this was largely discussed in the "Intel" subsection of the forum. Maybe it's better to continue debating there if you like. Just make a search before. there are great topics discussing all this and whereI also posted comparision curves
Is this going to be a Intel only block :shrug: Not one mention of anything AMD or how anything preforms on anything AMD is there absolutely no interest in AMD at all? :shocked:
How the might have fallen. :shakes:
No, it will iterate between 8-64k, I confirmed this with the author, no way to fix it. I participated in the beta debugging on HFR forums...
But as you can see, using small iterations won't affect temps of the CPU at all since the load on processing units will be the same with OCCT. It is optimized for that. I can confirm the CPU temps curves will be linear at a maximum heat