System Builder Marathon, June 2011: $2000 Performance PC

Hardware Installation

We began our installation by clipping the CPU into its interface and applying paste, as described in our How To guide. Next, we moved on to the CPU cooler.

The Xigmatek Gaia uses four long screws above the board to secure a support plate beneath it. The screws are pushed from beneath the board, up through the backplate and motherboard, and then secured with four barrel-shaped nuts. Fiber washers prevent the nuts from making contact with any motherboard circuits.

Two included brackets are then screwed to the bottom of the Gaia heat sink, and the sink drops in place with the protruding ends of the screws fitting holes in the bracket ends. Four more nuts hold the sink and brackets securely against the CPU.

Note that we already installed the memory. This was followed by attaching the motherboard and power supply to the case. Again, both are easy-to-follow steps in the linked How To story.

Lian-Li uses shoulder screws and rubber grommets to mount 3.5” drives on slots in the drive cage. The rubber grommets reduce noise from vibrating drives, while the screw shoulders prevent the grommets from being crushed.

A-Data’s included brackets are threaded at the sides for M3 screws, which are normally used by floppy and optical drives. Most hard drives use larger #6 UNC screws, and Lian-Li’s hard drive attachment hardware is made exclusively to this standard. Yet, because A-Data’s adapter trays are made of soft aluminum, it’s possible to force the larger screw into the smaller hole.

This actually thickens the metal surrounding the hole, making it less likely to strip (as long as it doesn’t crack). Furthermore, traditional #6 case screws have a tapered end that allows them to start in the smaller M3 holes. Rather than drill and tap the holes for the larger screws, we did what someone who didn’t own a #6-32 tap would normally try: we forced the larger screw into the smaller hole using a powered screwdriver. Of course, we didn’t want to risk damage to any of the screws that came with the case, so we used one of the left-over screws from a previous build. After opening up the holes in this manner, we installed the shoulder screws and grommets in each adapter tray.

Lian-Li’s front-panel power LED is wired to an old, AT-style 3-pin connector. Nearly everyone except Asus has switched to an industry standard 9-pin layout with 2-pin spacing, including ASRock. Lifting a tab on the plastic connector released our LED connector’s positive lead, so we could move it to the center position. The excess connector could be trimmed, but we simply let it protrude past the end of our motherboard’s pin header.

We don't particularly like that Lian-Li expects builders to chose between sloppiness or reduced functionality. The PC-9F uses external cables to connect its front-panel USB 3.0 connectors to the I/O panel through a hole in the case, leaving a loop on the back of the case that’s far too ugly to be used in a professional build. An included adapter allows builders to clean up the appearance of their system by connecting to a USB 2.0 front-panel motherboard header, but using it causes the front-panel to lose its USB 3.0-class transfer rates.

ASRock includes a bay panel adapter for its USB 3.0 internal header. Removing the cable from the bracket allows it to serve the same function as Lian-Li’s USB 2.0 adapter, but without the loss of USB 3.0 performance. After connecting this to both the motherboard header and front panel cables, we stuffed the big end into a space under the case’s hard drive cage to hide the clutter.

With all the hardware in place, the only mess is a bundle of unused power cable at the bottom of our build’s case. All that’s left for us to do now is install one of the CrossFire bridges included with our graphics cards and begin testing.

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  • Anonymous
    Really? The 3rd generation of SSDs are well and truly here and you stick with 2 older ones? I am disappoint. The main reason I enjoy these System building articles (I used one as a base to build my current rig) is that you guys tend to swap the components around a bit more and you really get a sense of what's better. I would have loved to see the productivity differences between the RAIDed aData drives and say a new Vertex 3 120G or something similar. Anyway, keep it up!
  • blubbey
    Hmmmm.... Just nit-picking, but what if it used a normal optical drive, some 6950 2gb's (possible unlock to 6970's) and the old case. That'd be what.. possibly $300+ saving? ~50 for the drive, 75 for the case and the cards are 90 less than the cheapest 6970. That'd be enough for triple 6950's (possibly triple 6970's, then again if you did brick the cards that'd be a lot of money wasted).
  • aje21
    ASRock Z68 Extreme4: LGA 1155, Intel P67 Express

    Hmm, not quite right me thinks!
  • kajabla
    Mistake in the GPU section: it claims that "A pair of Radeon HD 6850s beats a pair of GeForce GTX 570s at our 2560x1600 target resolution, and the HD 6970 is even faster." That should be the 6950s that beat 570s (6850s would be pretty awesome, but I don't think so).
  • malloot
    It's weird how you guys somewhat 'forget' to mention the 25+ bad ratings for the adata ssd's on newegg. Its almost like you want to help newegg get rid of there bulk of bad adata ssd's.

    Is there any info on those ssd's you could mention? is the sleep bug resolved in a new firmware version? are the new ssd's updated to work properly for more then a month?..

    none of those questions seems to even have risen in your build. i expect better from this site