EPoX EP-9U1697-GLi: ULi M1697 Goes Mainstream
by Gary Key on March 15, 2006 12:05 AM EST- Posted in
- Motherboards
EPoX EP-9U1697 GLi: Features
EPoX designed a decently laid out board with all major connections easily reached except for the floppy drive connector. The EPoX layout provides excellent clearance for cards and components, and was easy to install in a mid-size ATX case. Although the board features a 3-phase voltage regulator power design, it provided excellent stability and allowed for an impressive level of overclocking for an entry-level board.
The DIMM module slots' color coordination is correct for dual channel setup. The memory modules are easy to install with a full size video card placed in the first PCI Express x16 slot. The ULi IDE port 1 connector is located along the edge of the board directly beneath the memory slots. The layout in this area could have been excellent if the 24-pn ATX connector or floppy drive connector would have been placed to the right of the first IDE port connector.
The ULi IDE port 2 connector is located below the ULi SATA ports. The ULi SATA ports are conveniently located below the M1697 chipset and to the left of the memory slots. The SATA ports feature the new clamp-and-latch design, but are not color-coded.
The chipset fan header is located below the ULi SATA ports. The ULi M1697 chipset is actively cooled with a fan and low rise heat sink that did not interfere with cards installed into a secondary PCI Express x16 slot. The fan was generally quiet during operation, although we believe that a well-designed passive heat sink could have been utilized on this board.
The CP80P post port debug LED along with the power on and reset buttons are located to the left of the IDE and SATA connectors and right of the floppy drive connector. The floppy driver connector is located in an unusual position, and if utilized the cabling could interfere with the SATA and IDE ports. The ULi USB connectors, chassis panel, and system fan header are located on the left edge of the board. The yellow CMOS jumper block is a traditional jumper design located to the left of the BIOS chip and below the battery.
The board comes with (2) physical PCI Express x16 connectors, (1) PCI Express x1 connector, and (3) 32-bit PCI 2.3 connectors. The layout of this design offers a very good balance of expansion slots for a mainstream board.
The first physical PCI Express x16 connector is located below the 24-pin ATX power connector. The configuration jumpers and the PCI Express x1 connector are located next. The additional slot space in this area easily accommodated our dual slot video cards and still allowed the PCI Express x1 connector to be utilized. The second physical PCI Express x16 connector is located next, followed by the three 32-bit PCI 2.3 slots.
We did not have any issues installing our EVGA 7800GTX 512MB or ATI X1900XTX video cards in the second x16 PCI Express slot. Of course, these dual slot cards will physically render the first 32-bit PCI slot useless. We did not have any issues utilizing the first PCI slot with video cards containing single-slot cooling systems.
Returning to the CPU socket area, we find ample room for alternative cooling solutions. We utilized the stock AMD heat sink, but also verified that several aftermarket cooling systems such as the Zalman CNPS9500 would fit in this area during our tests. However, the amount of room in this area for the installation of larger air or water-cooling solutions could be problematic due to the location of the 24-pin ATX connector.
Epox places the 24-pin ATX connector and four-pin 12v auxiliary power connector at the top of the CPU socket area. The power connectors are located in an unusual position and could hamper airflow with cabling that crosses directly over the CPU heat sink/fan; although, we did not have any issues in our case due to the stock heat sink and cabling of our power supply. Epox utilized high quality capacitors and a robust three phase power design that provided excellent stability in both stock and overclocked conditions.
The rear panel contains the standard PS/2 mouse and keyboard ports, parallel port, serial port, LAN port, and 4 USB ports. Located to the right of the parallel and serial ports are the first two USB 2.0 ports. Located next to this series of ports are the next two USB 2.0 ports with the RJ-45 LAN port on top. The audio panel is located next and consists of 3 ports that can be configured for 2, 4, and 6-channel audio connections. At the far left, just under the LPT port, you can also find a coax S/PDIF digital audio out port.
EPoX designed a decently laid out board with all major connections easily reached except for the floppy drive connector. The EPoX layout provides excellent clearance for cards and components, and was easy to install in a mid-size ATX case. Although the board features a 3-phase voltage regulator power design, it provided excellent stability and allowed for an impressive level of overclocking for an entry-level board.
The DIMM module slots' color coordination is correct for dual channel setup. The memory modules are easy to install with a full size video card placed in the first PCI Express x16 slot. The ULi IDE port 1 connector is located along the edge of the board directly beneath the memory slots. The layout in this area could have been excellent if the 24-pn ATX connector or floppy drive connector would have been placed to the right of the first IDE port connector.
The ULi IDE port 2 connector is located below the ULi SATA ports. The ULi SATA ports are conveniently located below the M1697 chipset and to the left of the memory slots. The SATA ports feature the new clamp-and-latch design, but are not color-coded.
The chipset fan header is located below the ULi SATA ports. The ULi M1697 chipset is actively cooled with a fan and low rise heat sink that did not interfere with cards installed into a secondary PCI Express x16 slot. The fan was generally quiet during operation, although we believe that a well-designed passive heat sink could have been utilized on this board.
The CP80P post port debug LED along with the power on and reset buttons are located to the left of the IDE and SATA connectors and right of the floppy drive connector. The floppy driver connector is located in an unusual position, and if utilized the cabling could interfere with the SATA and IDE ports. The ULi USB connectors, chassis panel, and system fan header are located on the left edge of the board. The yellow CMOS jumper block is a traditional jumper design located to the left of the BIOS chip and below the battery.
The board comes with (2) physical PCI Express x16 connectors, (1) PCI Express x1 connector, and (3) 32-bit PCI 2.3 connectors. The layout of this design offers a very good balance of expansion slots for a mainstream board.
The first physical PCI Express x16 connector is located below the 24-pin ATX power connector. The configuration jumpers and the PCI Express x1 connector are located next. The additional slot space in this area easily accommodated our dual slot video cards and still allowed the PCI Express x1 connector to be utilized. The second physical PCI Express x16 connector is located next, followed by the three 32-bit PCI 2.3 slots.
We did not have any issues installing our EVGA 7800GTX 512MB or ATI X1900XTX video cards in the second x16 PCI Express slot. Of course, these dual slot cards will physically render the first 32-bit PCI slot useless. We did not have any issues utilizing the first PCI slot with video cards containing single-slot cooling systems.
Returning to the CPU socket area, we find ample room for alternative cooling solutions. We utilized the stock AMD heat sink, but also verified that several aftermarket cooling systems such as the Zalman CNPS9500 would fit in this area during our tests. However, the amount of room in this area for the installation of larger air or water-cooling solutions could be problematic due to the location of the 24-pin ATX connector.
Epox places the 24-pin ATX connector and four-pin 12v auxiliary power connector at the top of the CPU socket area. The power connectors are located in an unusual position and could hamper airflow with cabling that crosses directly over the CPU heat sink/fan; although, we did not have any issues in our case due to the stock heat sink and cabling of our power supply. Epox utilized high quality capacitors and a robust three phase power design that provided excellent stability in both stock and overclocked conditions.
The rear panel contains the standard PS/2 mouse and keyboard ports, parallel port, serial port, LAN port, and 4 USB ports. Located to the right of the parallel and serial ports are the first two USB 2.0 ports. Located next to this series of ports are the next two USB 2.0 ports with the RJ-45 LAN port on top. The audio panel is located next and consists of 3 ports that can be configured for 2, 4, and 6-channel audio connections. At the far left, just under the LPT port, you can also find a coax S/PDIF digital audio out port.
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Marlin1975 - Wednesday, March 15, 2006 - link
Again with the cheap sound and fan heatsink. When I see Realtek sound i think jubk. But then ui see a NON-HD ALC-655 I think even less of the board. I mean what did they save a whole quarter by going to the cheap non-hd sound? Let alone the pOS that is realtek.Then instead of juts putting a large passive heatsink they put a small one with a fan. Fans will wear out and even when working 100% still make noise.
Good chipset but another example of the bean counters killing decent sound, PCIe ethernet, good heatsink, etc...
jimveta - Wednesday, March 15, 2006 - link
One quibble: the onboard Nforce4 ethernet controller is NOT a PCIe device. None of the onboard devices are in fact.kb3edk - Wednesday, March 15, 2006 - link
I was thinking about building my first SLI rig off the ASRock 939SLI32 board reviewed here a few days ago but I'm glad I held off... it seems like the EPoX is a better overclocker. I already own two ASRock 939Duals with M1695, they overclock pretty decent but are held back by the vcore... I even tried one of the volt mods and it didn't work out for me. And yes, the BIOS on the M1695 board is the wackiest I have ever used, there's all sorts of hardware it still won't recognize. I think this is the most I've ever flashed a BIOS on any mobo I've owned. But I think things are under control now... ;)Why does the EPoX M1967 board beat the ASRock M1697 board in most of the gaming benchmarks despite the fact that the EPoX's PCI Express lanes are only x8 in SLI? According to the review of the ASRock board here that board is supposed to be running x16 in both lanes in SLI mode. Is it just that there are no PCIe cards out there yet that are maxing out PCIe x8 bandwidth?
Anyway as long as my gaming isn't going to be held back by x8 PCIe (and it sure loks that way now) I think this EPoX board is a winner... thanks AnandTech for the great benchies!
-Adam in Philly
Araemo - Wednesday, March 15, 2006 - link
How long do you run prime95/superpi on an overclock to verify stability?I ask because I've just RMAd a board and CPU that could not run prime95 for more than about 5 hours at stock speeds, but it does run for about 5-6 hours before it shows an error. The replacement board and CPU have not arrived yet, so I haven't been able to check on a similar system yet.
Gary Key - Wednesday, March 15, 2006 - link
We typically run the following or a combination thereof for both stock and overclocked conditions. We might utilize additional components or various combinations not listed in our test system and use such applications as Office2003, Nero, or Photoshop depending upon the situation.
A. Prime95- Priority 1 - 30 minutes (if it passes go to step B, if not, tune until it can pass, this includes memory/voltage/fsb settings)
B. Prime95- Priority 10 - 4~12 hours (depends on the board and target market)
1. SuperPI - 3 iterations with settings at 32m generally, sometimes less.
2. 3DMark01 - Demo Loop 2 hours
3. 3DMark05 - Demo Loop 2 hours
4. Prime95/3DMark05 - Prime set at priority 1 - 3DM05 Loop - 4 hours
5. WorldBench 5 - 3 iterations (optional, depends on board, target market, or new chipset)
6. Standard test suite - 3 iterations of each application.
7. Game Testing - 4~8 hours of actual gameplay, AOE III, BF2, GTR/Legends, Guild Wars or others depending upon the software image.
8. MemTest86 - 2~6 hours (depends on board, target market, or new chipset)
Please realize that a combination of components, drivers, bios settings, and software loads can all account for failures that are outside of the true capability of the board. Our test systems generally use premium components that assist in the ability of the board to pass these tests along with constant climate control settings. The amount of hours required to debug a system is sometimes staggering. Of course we cannot test every combination of components or software available so at times a certain combination that fails for a user is not seen by us. I hope this answers your question.
Araemo - Wednesday, March 15, 2006 - link
Thats slightly better than I expected, but I have one last question: During the extended prime95 test, are other things done on it in the meantime(the 3dmark runs or gaming or some such?).In personal use I like to see at least 24 hours of prime95, but I FULLY understand that that would be even more time consuming for you guys, since you have to verify stability at multiple settings per board per review... 12 hours is welcome to me.
Araemo - Wednesday, March 15, 2006 - link
Nevermind, I saw you answered my own question in #4(thats what i get for skimming the list)kb3edk - Wednesday, March 15, 2006 - link
I like to run prime95 or other burn-in programs (like Sandra, etc) overnight just to be on the safe side, but in my experience if I am pushing an OC too hard I have always had burn-in fail within half an hour. Of course from reading countless other postings on OC message boards, YMMV :)To keep things topical here, my ASRock M1695 boards can bump an A64 Winnie 3000+ from 1.8 to 2.25 GHZ (250 HTT), and an A64 X2 Manchester 3800+ from 2 GHz to 2.4 GHz (240 HTT). After that the boards just run out of volts. If I try to push the HTT any higher the system doesn't even boot.
Did you make sure to check your RAM before RMAing that mobo and CPU? Sometimes if you have a bad register somewhere, a burn-in program will take a little time to reach it and conk out. Especially something like superpi which has such a low memory footprint. You might wanna run Memtest86 on your box as soon as you get a chance, if you haven't already.
Araemo - Wednesday, March 15, 2006 - link
My RAM passed memtest86+ on both this motherboard, and my old NF7-S(Once I found out one ram slot on that board was bad and moved the second stick to the other slot, I left it running memtest86 all day and it never errored. But I wanted dual channel memory again, so I ordered the ASRock 939DualSata2 and a 3200+, and memtest86 passes, but prime95 dies eventually.)Technically, registers are in the CPU, and I think ram uses a different terminology, but I know what you meant. As far as I can tell, my RAM is fine, and I don't believe it is a windows problem(I've only had one crash in the week I've had the board: Winamp crashed on me randomly last night.. UT2k4 and NS/TS(Half-life mods) run fine)
My PSU should be plenty for this board(According to people in the ASRock thread in the forums, my PSU is higher end than others who have this system running well, and voltages are stable according to the mobo)... Sooo... I have no way of knowing if it was the board or the CPU, since I don't have any other S939 boards around. I'm just glad newegg let me return it with no hassle. (And I was smart enough to order the opteron 146 this time around instead of the 3200+.. but I never even got around to touching the overclocking on the 3200+. I don't start overclocking until I know prime95 is stable at stock settings)
On my mobile barton I experienced similar symptoms of a too-high overclock: Prime95 would error out relatively quickly, sound would start screwing up(I went the quick way, I'd load prime95, and the 3dmark03 demo.. nice heavy stress and audio(and sometimes video) would start going weird well before a hard lock.) And that CPU and ram still handle memtest86 and prime95 fine.
Araemo - Wednesday, March 15, 2006 - link
I'm also curious how you know a system is 'super pi' stable?As far as I can tell, it's more a speed test than a stability test in the sense that prime95 is..
Super Pi seems to be calculating a fresh value for pi, but not comparing it to the known value? Is there an easy way to compare its output to the known value?