POST Time

Different motherboards have different POST sequences before an operating system is initialized.  A lot of this is dependent on the board itself, and POST boot time is determined by the controllers on board (and the sequence of how those extras are organized).  As part of our testing, we are now going to look at the POST Boot Time - this is the time from pressing the ON button on the computer to when Windows starts loading. (We discount Windows loading as it is highly variable given Windows specific features.)  These results are subject to human error, so please allow +/- 1 second in these results.

POST (Power-On Self-Test) Time

The Z77X-UP4 TH performs around the middle of the pack in the POST timing test – with ASUS running their CAP Win8 on the Premium and ASRock’s optimizations, Gigabyte are starting to get left behind a little.

Overclocks

Here at AnandTech we want to provide quick and easy ways to determine if a board is good for you (with in-depth analysis of course).  So here is a quick round up of our overclocking results.  Overclocks are tested for stability with PovRay and OCCT - while these may not be the most strenuous of stability tests, it does offer a quick check for memory errors under high load (and also balances testing time with getting the next board on for review!).

  CPU Speed
(MHz)
BIOS Voltage
(Volts)
PovRay Peak
Temp (ºC)
OCCT Peak
Temp (ºC)
Notes
ASRock
Fatal1ty Z77
Professional
4700 1.200 89 89 PLL Overvoltage enabled
ASRock
Z77 Extreme4
4700 1.175 86 86 LLC Level 1
ASRock
Z77 Extreme6
4700 1.175 81 82 LLC Level 1
ASRock
Z77 Extreme9
4700 1.200 92 94 *High Ambients
LLC Level 1
ASUS
P8Z77-V Deluxe
4700 1.225 89 84 PLL Overvoltage enabled
ASUS
P8Z77-V Pro
4700 1.200 83 86 PLL Overvoltage enabled
ASUS
P8Z77-V Premium
4700 1.225 93 96 High Ambients
Biostar
TZ77XE4
4700 1.180 84 85 None
ECS
Z77H2-AX
4700 1.125* 87 90 *High Ambients
VDroop Disabled
Odd VDroop Behaviour
EVGA
Z77 FTW
4700 1.175 82 84 VDroop Disabled
Power Limits Raised
Gigabyte
Z77X-UD5H
4700 1.225 88 88 LLC Extreme
Gigabyte
Z77X-UD3H
4700 1.200 82 86 LLC Extreme
Gigabyte
Z77MX-D3H
4700 1.200 80 84 LLC Extreme
Gigabyte
G1.Sniper 3
4700 1.200 85 88 LLC Extreme
Gigabyte
Z77X-UP4 TH
4700 1.200 84 86 LLC Extreme
MSI
Z77A-GD65
4700 1.250 90 - PLL Overvoltage enabled

 

Test Setup, Power Consumption System Benchmarks
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  • IanCutress - Monday, September 17, 2012 - link

    I have access to a TB device, but it is only the two-bay Little Big disk with a pair of Intel Drives. Can't really stress the TB implementation in terms of peak speeds, and in our copy test it can get anything from 1.1 seconds to 3.3 seconds depending on if the wind is blowing, or the tides are in (very unpredictable).

    When I can get a 4-bay TB device in, I will fill it with 500MB/s+ SSDs and get down to testing. Unless there is a specific test you would like me to do (4K et al).

    Ian
  • repoman27 - Monday, September 17, 2012 - link

    I am very curious about a couple points, however they are not the easiest scenarios to test.

    Firstly, GIGABYTE depicts the ability to support a total of 12 connected Thunderbolt devices plus 2 displays, or 6 devices AND 1 display per port. [ http://www.gigabyte.com/microsite/306/images/thund... ] This seems to fly in the face of what we have been told by Apple and Intel about supported topologies, i.e. "up to a total of 6 devices, including up to 2 high resolution DisplayPort v1.1a displays". Can a single Cactus Ridge DSL3510L really handle that many devices? Is there some difference in implementation between Windows and Mac OS?

    GIGABYTE also claims a full 10 Gbps of PCIe bandwidth from each port. Now I would also doubt that claim, and in the article you indicated this wasn't happening with a single DSL3510L. However, Anand achieved 1380 MB/s by using both Thunderbolt ports during his review of the MBPR, which also uses just one DSL3510L controller. Now ultimately this controller is bound by its PCIe 2.0 x4 back end, which should limit it to around 1600 MB/s of payload throughput, but breaking the 1000 MB/s barrier would seem to imply that there is more than one PCIe to Thunderbolt protocol adapter in these Cactus Ridge chips. This would be significant if true. Any chance you could lean on it hard enough to find out?
  • goinginstyle - Monday, September 17, 2012 - link

    I agree about the need for TB testing as I have had nothing but issues with this board and a Seagate GoFlex attached on one port and a Apple TB 27" monitor on the other port. The monitor will flicker badly at times (does not happen on a competing board and a MacBook Pro) while the Seagate drive will "disappear" and requires a power on/off before being recognized again.
  • thewhat - Tuesday, September 18, 2012 - link

    It would be great if you could test with Speedfan whether the fan speed can be controlled independently for every header.
  • NiggaASD - Sunday, December 9, 2012 - link

    Ian, I think you are wrong about Gigabyte manipulating CPU voltage readings. The voltage reading 1.068 V is probably not CPU vcore, it could be VTT(VCCIO) voltage. It is known that some GB motherboards have this "feature", that they show VTT voltage in CPU-Z. For example, my GA-P67A-UD3P-B3 board shows 1.092 V in CPU-Z as vcore when I have set VTT to 1.1 V in BIOS.

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