Overclock.net › Forums › Intel › Intel Motherboards › Rampage IV Extreme UEFI Guide for Overclocking
New Posts  All Forums:Forum Nav:

Rampage IV Extreme UEFI Guide for Overclocking

post #1 of 39
Thread Starter 
The ROG team have put an extensive amount of work into UEFI for the R4E. Most of the settings will not need manual adjustment at all unless you are chasing every last MHz from your system. This guide will focus on the meaning of most of the important settings and offer some insight as to when adjustments can help.

If you're an absolute novice, then you may want to start out using this simple guide:
http://www.overclock.net/t/1186959/rampage-iv-extreme-uefi-guide-for-overclocking#post_15989554
before you take a look at some of the deeper settings I outline below.


Upon entering UEFI BIOS, we navigate to the AI Tweaker menu:

54088999.jpg

Uploaded with ImageShack.us

Load Normal/Gamers/Extreme OC Profile: Each of these settings contains a pre-set that sets system bus frequencies and voltages for a quick starting point if you’re new to overclocking. The Normal profile will overclock your CPU to 4.375 GHz, the Gamer profile to 4.7 GHz. The Extreme profiles are for users that are utilizing Sub-zero cooling or chilled watercooling as both will set processor frequency at around 4.9GHz. With all of these profiles, active cooling of the onboard heatsinks is required.

Ai Overclock Tuner: Options are Auto, Manual and X.M.P.
Auto: This is the default setting, and needs to be changed to Manual if you wish to change BCLK (BCLK is the base reference frequency from which processor and other system bus frequencies are derived).


X.M.P: Extreme memory profile, use this option if you have Sandy Bridge qualified XMP memory. X.M.P. profiles contain pre-sets for system buses and in some cases voltages. If the specified speed of the DIMMs is greater than the supported memory frequency of the platform, a platform specific X.M.P. profile option becomes mandatory because processor core and memory controller voltage requirements vary from architecture to architecture. High-speed enthusiast memory kits manufactured before the inception of the Sandybridge platform may not contain the necessary/adequate voltage offset settings for the system to be completely stable. In such instances, manual adjustments of memory controller voltage and memory timings may be necessary.


Selecting the X.M.P setting opens up options for X.M.P profile selection (the kit may contain more than one X.M.P profile), and also opens up the BCLK option for changing system bus frequency. Note that memory operating frequency and maximum CPU operating frequency are shown towards the top of the Ai Tweaker menu, while memory timings and voltage are displayed next to the XMP profile selection box.






CPU Level Up: Allows us to select a pre-set profile that contains voltage and bus adjustments to apply a mild overclock to the system. Use this setting if you do not wish to overclock the system manually.

BCLK Frequency: This function becomes available if X.M.P or Ai Overclock Tuner “Manual” are selected. The base BCLK frequency is 100MHz. The CPU core frequency is derived via multiplication with the Turbo Ratio setting (final frequency is displayed at the top-left of the Ai Tweaker menu).
Bear in mind that the adjustment margin for this setting is not large - most processors have a range of 7 MHz +/- the base frequency. For example, if using a CPU Strap setting of 100MHz, then the approximate maximum BCLK for some CPUs is 107.0 MHz. If using the 125 MHz strap, then we’d expect a maximum in the 130 BCLK range.

CPU Strap: This setting multiplies BCLK to increase CPU frequency asynchronously from all other bus frequencies giving us more granularity to maximise processor and memory overclocking. Available settings are 100, 125, 166 and 250 MHz. For most CPUs the usable “straps” are 100 and 125 only. If using 166, try starting at 155 and see if the board will POST. If not, then you are likely limited to using 100 and 125 only.

Clockgen Full Reset: Re-initializes the on-board clock generator when bus frequencies or multipliers are changed. A setting of Enabled is recommended for all normal syste use. Disable only to experiment with memory stability when making changes to BCLK.



Turbo Ratio: Options are “Auto”, “By All Cores” and “By Per Core”. A description of these settings is provided in the right-hand column of the UEFI BIOS and can be seen when the Turbo Ratio setting is selected. Note that if overclocking past 4.5GHz, it can be beneficial to turn disable the Anti Surge Support setting in the Monitor section of UEFI to prevent power shut-off due to Super IO polling.

By All Cores: This sets the CPU core frequency multiplier; multiplied by BCLK to give the target CPU frequency (under full load conditions if SpeedStep is active). “Auto”: Stock CPU multiplier Ratio used. Manual numerical entry of the desired Turbo Ratio is accepted.

Per Core: Allows setting the maximum Turbo multiplier of each physical processor core.
The available multiplier range is limited by both processor model and the ability of each CPU.


ai2i.jpg

Uploaded with ImageShack.us



CPU Clock Gen Filter: A setting of Auto is recommened for most overclocking. For memory speeds over DDR3-2200 use 10UF, for speeds over DDR3-2400 use 20UF. If using the 166 strap then a setting of Disabled is recommended.

Memory Frequency: “Auto” will automatically select a memory multiplier ratio according to memory module SPD (Serial Presence Detect). Manual selection of the available memory frequency multiplier ratios is possible and works according to the abilities of the DRAM and processor. Granular control of memory frequency is available by manipulating BCLK, while the base frequency of each divider is offset by changing the CPU strap settings (within functional limits).



EPU Power Saving Mode: When “Enabled” is selected, utilizes power phase management based upon system loading to reduce system power consumption. A setting of “Disabled” is recommended for heavy overclocking.


DRAM Timing Control: Takes us to the DRAM timing sub-menu, where all primary, secondary and tertiary memory timings can be set:


dram1.jpg

Uploaded with ImageShack.us




Load Elpida Hyper/ Tight PSC/Loose PSC RAW MHz Profile:
These profiles contain presets for the entire DRAM timing section and allow quick setup to facilitate overclocking or benchmarking. If you are using PSC or Elpida Hyper based modules, then try these profiles as a starting point. If overclocking with 64GB of memory, then using the RAW MHz Profile may be beneficial if you are experiencing any instability.

Rampage Tweak: A setting of Mode 2 is recommended for overclocking memory over DDR3-2000 or if using 64GB of memory.



Memory timings will automatically be offset according to memory module SPD and memory frequency. Should you wish to make manual adjustments, the primary settings are the most important for overall memory performance. Most timings are set in DRAM clock cycles, hence a lower value results in a more aggressive setting (unless otherwise stated).




As always, performance increases from memory tuning are marginal and are generally only noticeable during synthetic benchmarks. Either way, voltage adjustments to VDIMM, VCCSA and to a lesser extent CPU Core Voltage may be necessary to facilitate tighter timings.



Primary Timings

CAS: Column Address Strobe, defines the time it takes for data to be ready for burst after a read command is issued. CAS is considered to be one of the most important timings in relation to memory read performance ( the third timing set dominates read and write performance, however).

To calculate the actual time period denoted by the number of clock cycles set for CAS we can use the following formula:


tCAS in Nano seconds=(CAS*2000)/Memory Frequency


This same formula can be applied to all memory timings that are set in DRAM clock cycles.




DRAM RAS TO CAS Latency: Also known as tRCD. Defines the time it takes to complete a row access after an activate command is issued to a rank of memory. This timing is of secondary importance behind CAS as memory is divided into rows and columns (each row contains 1024 column addresses). Once a row has been accessed, multiple CAS requests can be sent to the row the read or write data. While a row is “open” it is referred to as an open page. Up to eight pages can be open at any one time on a rank (a rank is one side of a memory module) of memory.





DRAM RAS# PRE Time: Also known as tRP.Defines the number of DRAM clock cycles it takes to precharge a row after a page close command is issued in preparation for the next row access to the same physical bank. As multiple pages can be open on a rank before a page close command is issued the impact of tRP towards memory performance is not as prevalent as CAS or tRCD especially as Intel's newer processor architectures feature extensive reordering optimizations.





DRAM RAS Active Time: Also known as tRAS. This setting defines the number of DRAM cycles that elapse before a precharge command can be issued. The minimum clock cycles tRAS should be set to is the sum of CAS+tRCD+tRTP.




DRAM Command Mode: Also known as Command Rate. Specifies the number of DRAM clock cycles that elapse between issuing commands to the DIMMs after a chip select. The impact of Command Rate on performance can vary. For example, if most of the data requested by the CPU is in the same row, the impact of Command Rate becomes negligible. If however the banks in a rank have no open pages, and multiple banks need to be opened on that rank or across ranks, the impact of Command Rate increases.


Most DRAM module densities will operate fine with a 1N Command Rate. Memory modules containing older DRAM IC types may however need a 2N Command Rate.

Latency Boundary: Use a setting of Nearer for most modules. For older DRAM ICs a setting of Further may be beneficial.


Secondary Timings



DRAM RAS to RAS Delay:Also known as tRRD (activate to activate delay). Specifies the number of DRAM clock cycles between consecutive Activate (ACT) commands to different banks of memory on the same physical rank. The minimum spacing allowed at the chipset level is 4 DRAM clocks.
Edited by Raja@ASUS - 3/15/14 at 3:36pm
post #2 of 39
Thread Starter 
dram2.jpg

Uploaded with ImageShack.us

DRAM Ref Cycle Time: Also known as tRFC. Specifies the number of DRAM clocks that must elapse before a command can be issued to the DIMMs after a DRAM cell refresh.

DRAM Write Recovery Time: Defines the number of clock cycles that must elapse between a memory write operation and a precharge command. Most DRAM configurations will operate with a setting of 9 clocks up to DDR3-2500. Change to 12~16 clocks if experiencing instability.



DRAM Read to Precharge Time: Also known as tRTP. Specifies the spacing between the issuing of a read command and tRP (precharge) when a read is followed by a page close request. The minimum possible spacing is limited by DDR3 burst length which is 4 DRAM clocks. Most 2GB memory modules will operate fine with a setting of 4~6 clocks up to speeds of DDR3-2000 (depending upon the number of DIMMs used in tandem). High performance 4GB DIMMs (DDR3-2000+) can handle a setting of 4 clocks provided you are running 8GB of memory in total and that the processor memory controller is capable. If running more than 8GB expect to relax tRTP as memory frequency is increased.




DRAM Four Activate Window: Also known as tFAW. This timing specifies the number of DRAM clocks that must elapse before more than four Activate commands can be sent to the same rank. The minimum spacing is tRRD*4, and since we know that the minimum value of tRRD is 4 clocks, we know that the minimum value for tFAW at the chipset level is 16 DRAM clocks.


As the effects of tFAW spacing are only realised after four Activates to the same DIMM, the overall performance impact of tFAW is not large, however, benchmarks like Super Pi 32m can benefit by setting tFAW to the minimum possible value.


As with tRRD, setting tFAW below its lowest possible value will result in the memory controller reverting to the lowest possible value (16 DRAM clocks or tRRD * 4).




DRAM Write to Read Delay: Also known as tWTR. Sets the number of DRAM clocks to wait before issuing a read command after a write command. The minimum spacing is 4 clocks. As with tRTP this value may need to be increased according to memory density and memory frequency.

DRAM Write Latency: For the most part this setting can be left to Auto, and generally will default to Read CAS -1. So if CAS is set to 8 for example, Write CAS may default to 7. To facilitate stability at higher DDR3 speeds (over DDR3-2133) and if using 64GB of memory, then increasing Write CAS by 1~2 clocks should help at the expense of memory write speed performance. Older DIMMs may not POST if Write CAS is set over 8 clocks, so you will need to limit write IO by relaxing some of the Write to Write timings such as tWWDD and tWWDR and/or increasing VDIMM.

Third Timings




Most of these timings can be left on AUTO unless tweaking for SuperPi 32M.

tRRDR: Sets the read to read delay where the subsequent read requires the access of a different rank on the same DIMM. 3 clocks will work with most configurations at high memory frequencies. Only needs adjustment when double-sided DIMMs are used.

tRRDD: Sets the read to read delay where the subsequent read requires the access of a different DIMM. 3 clocks will work with most configurations.

tWWDR: Sets the write to write delay where the subsequent write command requires the access of a different rank on the same DIMM.

tWWDD: Sets the write to write delay where the subsequent write requires the access of a different DIMM. 3 clocks will work with most configurations.


tRWDR: Sets the delay period between a read command that is followed by a write command; where the write command requires the access of data from a different rank. A setting of 3 clocks suits most DIMM configurations all the way to DDR3-2133. Relax to 5~7 clocks only if you are experiencing stability issues when running in excess of 8GB of memory over DDR3-2300.

tRWDD: Sets the delay period between a read command that is followed by a write command; where the write command requires the access of data from a different rank or DIMM. A setting of 3 clocks suits most DIMM configurations all the way to DDR3-2133. Relax to 5~7 clocks only if you are experiencing stability issues when running in excess of 8GB of memory over DDR3-2300.


tWRDR: Sets the delay period between a write command that is followed by a read command; where the read command requires the access of data from a different rank. A value of 1 is possible on high performance memory. For higher density modules this value may need relaxing to 5~7 clocks as memory frequency is increased.

dram3.jpg

Uploaded with ImageShack.us



tWRDD: Sets the delay period between a write command that is followed by a read command; where the read command requires the access of data from a different DIMM. A value of 1 is possible on high performance memory. For higher density modules this value may need relaxing to 5~6 clocks as memory frequency is increased.


tRWSR: Sets the read to write delay timing where the write follows a read on the same rank. Can be left to 3 clocks for most configurations. 1~2 clocks may be possible at lower memory frequencies depending upon module density (sub DDR3-1866). If experiencing instability after adjusting all other timings, then try a setting of 5~7 clocks.



tCCD: Sets the read to read delay where the subsequent read accesses a different column after a four clock burst. The minimum internal spacing is 4 DRAM clocks, if a setting of 0 is used the chipset will default to 4 clocks, a setting of 1 will set a spacing of 5 clocks and so on. For all overclocking, it is recommended that this setting is left at 4 clocks to maintain read performance.

DRAM RTL (all ranks and channels): Also known Round Trip Latency. RTL denotes the number of clock cycles it takes for a data to arrive at the memory controller after a read CAS command is issued. This value is specified in memory controller clock cycles (not DRAM clock cycles). On the Sandybridge architecture these values can safely be left on AUTO most of the time and do not need manual adjustment.

Should you wish to experiment, note that DRAM IOL should be changed, too. If delaying RTL, then delay IOL by 1~2 clocks for example.



dram4.jpg

Uploaded with ImageShack.us


DRAM CLK Period: Can really affect performance and yet overclocking at the same time. A centered value of around 5 or 7 usually gives best performance but it may not be that great for overclocking. A value of 3 or 7 can be good for Command Rate 1T overclocking.


Enhanced Training (CHA-CHD): There is no definite best setting for Enhanced Training, usually though disabling it helps with overclocking on R4E

MCH Duty Sense (CHA-CHD): Again no definite best setting for MCH Duty Sense though using a lower value on CHA and CHC than the one used on CHB and CHD may be helpful. 15-19 perhaps are good values to experiment with.

Receiver Slew: Leave on Auto for most overclocking. Try a setting of Normal if experiencing instability when running memory over DDR3-2133.

Transmitter Slew: Leave on Auto for most overclocking. Try a setting of Normal if experiencing instability when running memory over DDR3-2133.

MCH Recheck: Forces memory to be rechecked to ensure all DIMMs are mapped. Leave on Auto unless experiencing instability.

RC Warm Boot Fast: Disables memory training when Enabled. If running at speeds over DDR3-2133, then Enable this setting once the memory is stable. Drift in memory training parameters may result in instability if this setting is left enabled and the system is booted multiple times or during sub-zero cooled benchmarking sessions. For all other purposes leave on Auto or Disabled.
post #3 of 39
Thread Starter 
Digi+ Power Control

digi1b.jpg

Uploaded with ImageShack.us



VCore Load-Line Calibration: Sets a margin between idle and full processor load voltage to compensate for overshoot. To clarify; overshoot is a short duration voltage excursion beyond applied processor VID. We recommend a setting of Medium for most overclocking.

CPU Current Capability: Increases the power threshold before over-current protection limits power (either by shut-off or throttling). A setting of 180% is ample for all types of overclocking.

CPU Voltage Frequency: Sets the switching frequency of the power FETs supplying processor Vcore. Lower switching frequencies lead to a higher VRM efficiency (small power saving) and lower VRM operating temperatures. Setting a higher switching frequency aids transient response (the recovery of voltage to the applied level after a load condition) – at the expense of heat.

VRM Over-temperature Protection: Monitors CPU VRM MOSFET temperatures and if the temperature breaches a certain threshold either throttles the processor clock frequency to reduce current consumption or shuts-down the motherboard to prevent VRM failure. May be turned off is using sub-zero cooling on the processor. For all other purposes, leave this setting enabled and provide active cooling over the CPU VRM heatsink to keep temperatures in-check.

CPU Power Duty Control: Sets the conditions for load balancing across phases. “T.Probe” monitors phase thermal conditions and balances load accordingly. “Extreme” balances the current load across all FETs irrespective of thermal conditions.

VCore MOS volt. Control: Sets the CPU VRM driver output voltage. This setting can be left on Auto for all overclocking. If wishing to experiment with manual settings then bear in mind that most FETs used on motherboards are generally optimised for a VGS of 5V, so a setting of 7V is generally optimal and should provide the best voltage swing.

CPU Power Phase Control: Sets the load dependant phase switching conditions; the VRM is made up of multiple phases (each phase has at least two FETs). During light-load conditions FETs can be switched off to save power. “Standard” and “Optimized” are adequate for most loading conditions and required if you wish to use Offset Mode for Vcore. If pushing processors past 4.8GHz, then Extreme or “Manual” with “Ultra-Fast” is recommended.

CPU Spread Spectrum: Modulates the CPU VRM clock signal to reduce the peak magnitude of radiated noise emission levels (may be of use during audio recording/playback from the analogue audio outputs) . This setting should be used at stock system operating parameters only.

CPU Vcore Boot Up Voltage: Can be left at Auto for normal use. If benchmarking, then setting a lower or higher boot-up voltage for the CPU can aid in ensuring the system POSTs – experiment if experiencing non-POST situations only.

VCCSA Load-Line Calibration: Sets a margin between idle and full System Agent load voltage to compensate for overshoot. We recommend a setting of Medium for most overclocking.

VCCSA Current Capability: Increases the power threshold before over-current protection limits power. Increase to 140% if running 64GB of memory or if running memory speeds in excess of DDR3-2133.

VCCSA Fixed Frequency: Sets the switching frequency of the power FETs supplying the processor System Agent. Lower switching frequencies lead to a higher VRM efficiency (small power saving) and lower VRM operating temperatures. Setting a higher switching frequency aids transient response (the recovery of voltage to the applied level after a load condition) – at the expense of heat.

CPU VCCSA Boot Up Voltage: Can be left at Auto for normal use. If benchmarking, then setting a lower or higher boot-up voltage for the CPU can aid in ensuring the system POSTs at higher DRAM operat8ing frequencies – experiment if experiencing non-POST situations only.


digi2y.jpg

Uploaded with ImageShack.us


CPU VTT Switching Freq: Sets the switching frequency of the power FETs supplying VTT. Lower switching frequencies lead to a higher VRM efficiency (small power saving) and lower VRM operating temperatures. Setting a higher switching frequency aids transient response (the recovery of voltage to the applied level after a load condition) – at the expense of heat.


CPU VTT Over-Current Protection: Increases the power threshold before over-current protection limits power. Increase when overclocking the processor past 4.5GHz.


DRAM-AB/CD Current Capability: Increases the power threshold before over-current protection limits power. Increase to 130% if using 64GB of memory past DDR3-1866, or when running 8GB modules over DDR3-2133.


DRAM-AB/CD Voltage Frequency: Sets the switching frequency of the power FETs supplying DRAM Voltage. Lower switching frequencies lead to a higher VRM efficiency (small power saving) and lower VRM operating temperatures. Setting a higher switching frequency aids transient response (the recovery of voltage to the applied level after a load condition) – at the expense of heat. Experimentation at various switching frequencies (higher and lower) at higher DDR3 speeds may be beneficial towards aiding stability.


DRAM-AB/CD Power Phase Control: Can safely be left at Auto for most loading conditions. For overclocking 64GB of memory, a setting of Extreme is recommended.


PCH 1.1v Switching Freq: Can be left on Auto for most overclocking. If running higher BCLKs, you may wish to alter switching frequency and see if it impacts stability.


ai2.jpg

Uploaded with ImageShack.us



CPU Performance Settings: This sub-menu contains SpeedStep, non Turbo multiplier ratios and CPU power settings. All settings can be left at Auto for most overclocking.

GPU.DIMM Post: opens a sub-page which shows how many GPUs are inserted into the PCIe slots and how many DIMMs are being used. If there are any peripheral issues or system bus speeds have been increased too far, one of the GPUs or memory modules may not show in the GPU DIMM Post screen – a quick glance here can save a lot of head-scratching.

A new feature for the RIVE is PCIe Lane Simulator. A sub-menu allows you to select occupied slots and then shows lane allocation accordingly in case you want to ensure optimal lane bandwidth to your peripherals.

Extreme OV: Leave at disabled unless you need to use over 1.60Vcore for benchmarking.

CPU Voltage: Two options here. The first is “Manual Mode”, which allows us to set a ‘static’ level of voltage for the CPU. The second mode is “Offset Mode”, for which we have covered the usage of here.

BCLK Skew: The sweet spot for BCLK Skew on this CPU is -2 bundled with -20 on PCIE CLK Skew. A good match in these 2 skews can help with BCLK/DRAM/Overall OC stability and help reduce Vcore requirements at a given operating frequency.

VTT CPU Voltage & 2 VTTCPU Voltage: To let users over-volt part of the CPU VTT that affects OC without over-volting the part of VTT that does not affect OC, we split up VTT rails to VTT and Secondary VTT.

VTT over-volting helps with DRAM and BCLK Overclocking. Secondary VTT does not. However, try to maintain at most a 300mv delta between both voltages for stability. 1.40v is fine on these CPUs. 1.35v is sufficient most of the time.


ai3n.jpg

Uploaded with ImageShack.us


CPU VCCSA Voltage: Two options here. The first is “Manual Mode”, which allows us to set a ‘static’ level of voltage for the System Agent. The second mode is “Offset Mode”, which works on the same principals as Vcore Offset Mode. VCCSA has a direct impact on memory stability, so will need increasing if you are running high density modules and/or overclocking the memory controller. As a general rule VCCSA should not be set higher than CPU Vcore as this will impact system stability. The reason for this is likely due to processor Vcore being used as either a pull-up rail for IO signaling stages, or internal DC coupling.

If overclocking past DDR3-2000, then finding the optimal delta between CPU vcore and VCCSA becomes critical with some memory modules. Hence, we recommend making small changes and monitoring for impact upon stability. It is probably wise not to exceed a voltage delta larger than 0.6V between VDIMM and VCCSA, so if VDIMM is set to 1.65V, then set VCCSA at around 1.05V minimum as a starting point AND also try to keep VCCSA within 0.3V of Vcore if possible.

DRAM Voltage (CHA, CHB & CHC, CHD): Sets DRAM voltage for the memory. Set according to memory vendor specifications or alter to facilitate over/underclocking.

CPU PLL Voltage: For most overclocking, the minimum voltage requirements will be centered around 1.80V. If using higher processor multiplier ratios or DRAM frequencies over DDR3 2200, then a small over-voltage here can aid stability.

PCH 1.1V Voltage: Can be left at stock for most overclocking. If running very high VCCSA and VTT, then over-volting this rail to maintain the same voltage delta may be beneficial.

VTTDDR Voltage: Leave at Auto unless experiencing instability with memory. As a starting point, set to 50% of DRAM voltage. So if DRAM voltage is 1.65V, then set ~ 0.825V here.


CPU & PCIe Spread Spectrum: Disable if overclocking as clock modulation can cause instability.

For Tweakers Paradise menus, we have added text into UEFI describing when to adjust parameters.
post #4 of 39
Thorough guide. Thanks very much! +REP
post #5 of 39
Thread Starter 
Thanks


New UEFI build 1004 for R4 series boards http://myfreefilehosting.com/f/c8b0f237ac_8.09MB

Changelog is update microcode and PCIE Gen 3.0 codes.

-Raja
post #6 of 39
I was a bit worried about this new bios if Im honest, but this makes such a difference.

Thanks a lot Raja, thumb.gif

Merry Christmas all
Black Beauty
(14 items)
 
  
CPUMotherboardGraphicsRAM
Core i7 980X @ 4.6 GHz Asus Rampage III Extreme 2 x Gainward GTX 580 "Phantoms" EK blocks 12 GB G-Skill Rip Jaw Triple Channel 
Hard DriveOptical DriveOSMonitor
C300s raid 0, 1 x C300 64GB non raid boot drive Samsung Superwrite Master Win7 64 3x Hanns:G 28 inch HDMI 2D surround 
KeyboardPowerCaseMouse
Rocccat Isku Corsair AX 1200 plus Xigmatek Elysium Steel Series Sensai 
Mouse PadAudio
Exact mat Xonar D2X 
  hide details  
Reply
Black Beauty
(14 items)
 
  
CPUMotherboardGraphicsRAM
Core i7 980X @ 4.6 GHz Asus Rampage III Extreme 2 x Gainward GTX 580 "Phantoms" EK blocks 12 GB G-Skill Rip Jaw Triple Channel 
Hard DriveOptical DriveOSMonitor
C300s raid 0, 1 x C300 64GB non raid boot drive Samsung Superwrite Master Win7 64 3x Hanns:G 28 inch HDMI 2D surround 
KeyboardPowerCaseMouse
Rocccat Isku Corsair AX 1200 plus Xigmatek Elysium Steel Series Sensai 
Mouse PadAudio
Exact mat Xonar D2X 
  hide details  
Reply
post #7 of 39
Thread Starter 
The auto rules will do most of the work for you to be honest, but if you feel like tinkering the guide will help. Merry Christmas to you, too!!

-Raja
post #8 of 39

"For Tweakers Paradise menus, we have added text into UEFI describing when to adjust parameters."

I Googled "Tweakers Paradise" and came up with nothing applicable to this threads topic. I haven't a clue what you're talking about.

I read every single word of the OP and none of that made any sense either. Mere definitions of vague processes with no help whatsoever as to actually OCing this board.

Where is the actual "Overclocking Guide"? All of the OP may be of interest to a Computer Engineering student/graduate, but it's worthless for the general computer owner/operator that just wants to overclock.

I've never understood or liked the UEFI. Other than the mouse input to change the parameters, to me it's useless.  

The title of this thread has very little to do with the content. "Definitions of  the Terminology Used in the M4E BIOS", would've been a more descriptive title, with no reference to overclocking.

Just my observation. No flame intended. You could've said,  "ASUS knows best. Leave everything on AUTO." I know I will.

 

Rant
(21 items)
 
  
CPUMotherboardGraphicsGraphics
Intel Core i7 3930K RAMPAGE IV EXTREME MSI R9 290X Lightning MSI R9 290X Lightning 
RAMRAMRAMRAM
Corsair  Corsair  Corsair  Corsair  
Hard DriveHard DriveOptical DriveCooling
Samsung SSD 840 500GB Toshiba Desktop 3.5" SATA 6GB/s 3TB 7200RPM 64M... Pioneer BDXL Corsair H100i 
OSMonitorKeyboardPower
Windows 7x64 SP 1 Dell U3011 Duckyshine Year of the Snake Corsair 1200i 
CaseMouseMouse PadAudio
Corsair 900D Microsoft Sidewinder X8 Fierce Gaming Control Teflon coated steel On Board 
Other
Corsair Gaming Audio Series SP2500 High-power 2... 
  hide details  
Reply
Rant
(21 items)
 
  
CPUMotherboardGraphicsGraphics
Intel Core i7 3930K RAMPAGE IV EXTREME MSI R9 290X Lightning MSI R9 290X Lightning 
RAMRAMRAMRAM
Corsair  Corsair  Corsair  Corsair  
Hard DriveHard DriveOptical DriveCooling
Samsung SSD 840 500GB Toshiba Desktop 3.5" SATA 6GB/s 3TB 7200RPM 64M... Pioneer BDXL Corsair H100i 
OSMonitorKeyboardPower
Windows 7x64 SP 1 Dell U3011 Duckyshine Year of the Snake Corsair 1200i 
CaseMouseMouse PadAudio
Corsair 900D Microsoft Sidewinder X8 Fierce Gaming Control Teflon coated steel On Board 
Other
Corsair Gaming Audio Series SP2500 High-power 2... 
  hide details  
Reply
post #9 of 39
Thread Starter 
Quote:
Originally Posted by kzinti1 View Post

"For Tweakers Paradise menus, we have added text into UEFI describing when to adjust parameters."
I Googled "Tweakers Paradise" and came up with nothing applicable to this threads topic. I haven't a clue what you're talking about.
I read every single word of the OP and none of that made any sense either. Mere definitions of vague processes with no help whatsoever as to actually OCing this board.
Where is the actual "Overclocking Guide"? All of the OP may be of interest to a Computer Engineering student/graduate, but it's worthless for the general computer owner/operator that just wants to overclock.
I've never understood or liked the UEFI. Other than the mouse input to change the parameters, to me it's useless.  
The title of this thread has very little to do with the content. "Definitions of  the Terminology Used in the M4E BIOS", would've been a more descriptive title, with no reference to overclocking.
Just my observation. No flame intended. You could've said,  "ASUS knows best. Leave everything on AUTO." I know I will.


 

I can probably rustle up something that shows you how to set the multiplier and where to up the voltage for dummies. But if you're leaving everything on Auto, then you certainly don't need a guide to do so (the board is that damn simple to use)... These UEFI guides will remain as they are, thanks for the input, though smile.gif

Anything else that I have not mentioned is because it did not warrant explanation. No need to Google Tweaker's Paradise, if you have the board just check the right hand side of UEFI as you navigate over the settings, those that might need adjusting for extreme overclocking have tips incorporated.


In fact, if ever you feel frivolous enough to NOT use Auto for a spot of overclocking, and want to keep things simple to start out, then just do this:

Enter UEFI (BIOS) and navigate to the Ai Tweaker Menu:
66787429.jpg

Uploaded with ImageShack.us
Set Ai OVerclock Tuner to Manual




coresy.jpg

Uploaded with ImageShack.us
Set the desired frequency multiplier for the CPU. We recommend 43~45X depending upon your cooling.



dramfreq.jpg

Uploaded with ImageShack.us
Set memory frequency to the specified speed of your memory modules.



Then simply press F10 and save and exit UEFI.

This will get you up and running quickly. After this you may with to run a stress test to check the system is stable before you begin tweaking voltages.
Edited by Raja@ASUS - 12/20/11 at 4:36am
post #10 of 39
Looks like an excuse to use that awesome F12 key thinking.gif

Just kidding, thanks for the guide smile.gif
The Fox Box
(16 items)
 
Macbook Pro
(10 items)
 
 
CPUMotherboardGraphicsRAM
Intel 3930K ASUS P9X79 ASUS GTX 570 DCII 4 x 4GB G.Skill Sniper 1600MHz LV 
Hard DriveOptical DriveCoolingOS
Intel 330 - 180GB LG HDDVD & Blu Ray Reader Cooler Master Hyper 612 Windows 7 Ultimate 64bit 
MonitorMonitorKeyboardPower
HP ZR30w Samsung 2243BWX Ducky! PCP&C 750w Silencer (coppa) 
CaseMouseMouse PadAudio
Lian Li PC-E8 G9x S&S Steel Onkyo Receiver/Design Acoustics 2.1 system 
CPUGraphicsRAMHard Drive
Core i5 2410M HD 3000 8GB 120GB SSD 
Optical DriveOSOSOS
Super Drive OSX 10.7.2 Win 7 Enterprise (In VB) Ubuntu 10.04 (In VB) 
MonitorPower
13" 1280x800 65w Magsafe 
CPUMotherboardRAMHard Drive
Q9300 Gigabyte P35 8GB DDR2 2TB WD 
Hard DriveHard DriveHard DriveHard Drive
2TB WD 2TB Seagate 1.5TB Seagate 1.5TB Seagate 
Hard DriveHard DriveHard DriveOptical Drive
1TB Hitachi 1TB Hitachi 500GB WD DVD-RW 
OSMonitorKeyboardPower
Win Server 2012 Headless/15" touchscreen Apple mini USB PC P&C 500W 
  hide details  
Reply
The Fox Box
(16 items)
 
Macbook Pro
(10 items)
 
 
CPUMotherboardGraphicsRAM
Intel 3930K ASUS P9X79 ASUS GTX 570 DCII 4 x 4GB G.Skill Sniper 1600MHz LV 
Hard DriveOptical DriveCoolingOS
Intel 330 - 180GB LG HDDVD & Blu Ray Reader Cooler Master Hyper 612 Windows 7 Ultimate 64bit 
MonitorMonitorKeyboardPower
HP ZR30w Samsung 2243BWX Ducky! PCP&C 750w Silencer (coppa) 
CaseMouseMouse PadAudio
Lian Li PC-E8 G9x S&S Steel Onkyo Receiver/Design Acoustics 2.1 system 
CPUGraphicsRAMHard Drive
Core i5 2410M HD 3000 8GB 120GB SSD 
Optical DriveOSOSOS
Super Drive OSX 10.7.2 Win 7 Enterprise (In VB) Ubuntu 10.04 (In VB) 
MonitorPower
13" 1280x800 65w Magsafe 
CPUMotherboardRAMHard Drive
Q9300 Gigabyte P35 8GB DDR2 2TB WD 
Hard DriveHard DriveHard DriveHard Drive
2TB WD 2TB Seagate 1.5TB Seagate 1.5TB Seagate 
Hard DriveHard DriveHard DriveOptical Drive
1TB Hitachi 1TB Hitachi 500GB WD DVD-RW 
OSMonitorKeyboardPower
Win Server 2012 Headless/15" touchscreen Apple mini USB PC P&C 500W 
  hide details  
Reply
New Posts  All Forums:Forum Nav:
  Return Home
  Back to Forum: Intel Motherboards
Overclock.net › Forums › Intel › Intel Motherboards › Rampage IV Extreme UEFI Guide for Overclocking