How to Overclock With AMD Ryzen Master

The AMD Ryzen Master overclocking software utility is specifically designed for the overclocking of AMD Ryzen processors, which includes the high-performance desktop variants such as the Ryzen 7 1700, as well as the Ryzen 2000 series APUs and the HEDT Ryzen ThreadRipper processors. It is highly recommended to download the latest available version directly from the AMD website before continuing. AMD also provides a Ryzen Master Software PDF Guide, which gives the following:

The AMD Ryzen processor supports an operating mode allowing enthusiast users to directly control the operating condition of the processor to precisely tune the performance and power consumption to the extent of their specific and unique system capabilities (current and cooling) and environmental conditions (ambient temperature). This is done by allowing the user to program or run utilities to directly set the precise voltage and frequency at which the CPU operates so that the maximum performance can be achieved. This is called the Overclocking Mode. This mode still uses the processor’s control methods for the external power supplies and internal clock generators and divisors thereby simplifying the implementation and eliminating any needs for voltage regulator overrides or external clock generators. This mode allows overclocking-capable motherboards to use the same voltage regulator controllers and the same BIOS to support normal operation and overclocking.

Once the disclaimer has been accepted, everything is ready to go.

The entry screen looks something like this for Ryzen Master 1.2. Starting with the bottom, and from left to right, the menu tabs are 'current'  (shows the already applied settings), Creator and Game modes, Profiles for the user to create and customize their own overclocks, and then options to save/reset/copy the profile. 

Along the top of the display are the outputs of various onboard sensors, such as power and limits. Below this, each of the cores on the processor has a slider up and down for users to change the frequency, with the peak speed and temperature shown on the left. The third/fourth option down is the CPU voltage, adjusted with up and down buttons, and two below this are the integrated graphics options, followed by the memory voltage controls and then the memory frequency controls. Adjusting the memory typically requires a reboot.

For the purpose of overclocking to match the settings in our testing methodology, we used Ryzen Master on the MSI B350I Pro AC motherboard to set 3.90 GHz on the CPU core, 1360 MHz on the Vega based iGPU cores and DDR4-3333 on our dual channel kit of memory. All of the basic and principle settings can be changed within Ryzen Master, without even having the need to enter the BIOS, although one thing that Ryzen Master cannot do is enable an XMP profile: you can manually enter the relevant settings to match the rated speed. The SoC and APU GFX voltage share the same rail for both uncore and graphics, so setting both is paramount to ensuring stability when overclocking integrated graphics on your APU; 1.25V is AMDs maximum recommended safe SoC voltage.

On the top section of the Ryzen Master Utility main screen and after clicking settings, a completely new panel opens offering a couple of new options with a couple of switches. Here a user can turn off live monitoring (the setting isn’t always recommended if other software is in play). Users can also individually turn off the speed, temperature, and adjust the live monitoring functions. Disabling PROCHOT is not recommended as this removes the thermal safeguards and is more commonly associated with extreme overclockers; disable at your own risk!

Once all the settings and values have been selected, clicking apply will bring up an option requesting that Ryzen Master will need to reboot your system to apply the settings. This is mainly focused for voltages, memory settings and grpahics parameters. Slight changes to the settings shouldn’t trigger this, although anything that will require a reboot will bring this up.

Once the system has rebooted, assuming all is stable, Ryzen Master will pop up as part of the Windows loading sequence asking to be enabled. Clicking OK will run the utility and will then apply and finalize the settings.

Having a utility such as CPU-Z by CPUID is a very handy tool which will show Realtime information regarding CPU Frequency, although actual voltages can sometimes be a little off to what it’s set. This can be for many different reasons such as power states including AMDs own Cool’n’quiet feature being enabled. Once the settings are in place, stress testing is required. Providing everything is stable and temperatures are within the recommended values and no close to hitting the TJMax, everything should be good to go.

This would be a good time to save your profile, although saving them at intervals and overclocking each component such as memory, iGPU, and CPU, one at a time and running some form of stability test in-between is recommended.

How to Overclock With ASRock UEFI BIOS Overclocking our APUs to 4.0 GHz and Up
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  • Alexvrb - Monday, April 16, 2018 - link

    One thing that was odd about an older stock Asrock board I was using was that you had to update to the "Bridge BIOS" (3.4? I think) before you could flash the latest 4.50. But it wasn't a big deal because Instant Flash did not even acknowledge the 4.x BIOS until I flashed the bridge BIOS. Shrug.
  • Lolimaster - Tuesday, April 17, 2018 - link

    Your OC's are a joke, you don't OC the cpu a part at all, it's worthless with a chip that runs at 3600Mhz base, you focus solely on the igpu.

    1.3v for soc voltage 1600-1700Mhz pretty much guranteed on any chip properly OCed
  • Lolimaster - Tuesday, April 17, 2018 - link

    OCing the cpu part only takes aways precious heat that gpu could benefit from.
  • gavbon - Tuesday, April 17, 2018 - link

    This particular piece isn't the end of the testing, it's only the first part. Each stage including CPU frequency, memory frequency and iGPU frequency is being analyzed/tested. Where someone looking to opt for a Ryzen 2000 series APU over say an Intel i3/i5, not everyone automatically buys an APU marketed at gaming just solely for gaming.

    Rest assured, each element is being deep dived to determine sweet spots for specific tasks and uses. Of course, gaming will benefit more from increased iGPU clock speed, but not everything will and every motherboard I've tested on AM4 has multiple overclocking profiles available so setting an overclock for each individual need is easier than ever.
  • id4andrei - Tuesday, April 17, 2018 - link

    In sentiment with the OP, I will add that Techspot has reached 1600 Mhz on the GPU side of the 2200G by abandoning the CPU side altogether and that with the stock cooler. For the budget conscious gamers a GPU only approach would make more sense.
  • gavbon - Tuesday, April 17, 2018 - link

    Yeah achieving higher clocks on the iGPU is possible if you completely ignore overclocking the CPU, that much is true! Of course we have to explore all the avenues as not everyone games, and you'll see the script as more of the series (around 4-5 pieces in total including this one) get published.
  • eastcoast_pete - Wednesday, April 18, 2018 - link

    Hi Gavin,

    If you can, please go one step further: undervolt the CPU, and then see how far you can push the iGPU, even (or especially) on the stock cooler. Also, while you're at it, do the reverse - undervolt the iGPU, and overclock the CPU, and see how far it can be pushed on the stock cooler. For example, if I run handbrake to compress the 4K videos from my camera, I don't care much about iGPU speed, but take all the sped the CPU can give me. With gaming, it's usually the opposite.
  • SanX - Tuesday, April 17, 2018 - link

    Hi overclockers. Looking back i feel like probably one of the world oldest overclockers. Such happened that i overclocked my 4.77MHz IBM PC XT -like comp soldered on the knees from low integration chips on the home-made motherboard to ~10MHz continuously. That was in the middle of 1980th. Overlock happened just by lucky chance that i had no crystal oscillators so just the LC-based variable freq generator was made for it and it was easy to change its frequency. The overclocking was on air up to approx 10 MHz, after which dirt started to appear on the TV which was used as a monitor. Sometimes the dry ice was used too (but mostly to find bad overheating chips). Then when i added missing FP-coprocessors this computer gave me orders of magnitude larger computer power then i was getting on my job where of course the entire institute of 1000s of people time-shared couple mainframes getting very little each. There was also one very funny moment with this overclocked PC. That was the behavior of floppy drives "on steroids" when computer was more then 2x overclocked. Drives were spinning, opening, closing and reading data so fast and also producing noise of lifting rocket, that my friends who also were making their own computers, laughed hysterically. I overclock each and every computer since then.
  • Death666Angel - Tuesday, April 17, 2018 - link

    Great article. One thing though: the position of the two processors in the charts is not always the same. At first the R5 is always #1 and the R3 is #2, but then it changes in the discrete section and even changes within the F1 section again.
  • bcronce - Tuesday, April 17, 2018 - link

    " I find it amusing to note that DRAM bit-errors, unaffected by overclocking, can happen on the scale of one per GB per four years (or less). That's about a worse case scenario, but it translates to about one bit-error per three months in a system with 16GB."

    Googling the topic, I'm seeing most sources say in the area of 1 bit error per 1GiB per hour.

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