ASUS ROG Zenith II Extreme

Moving onto what ASUS has up its sleeve, and it has gone with a trio of new motherboards with each designed for a different target market. The first of the three is the ASUS ROG Zenith II Extreme which is the premier model on TRX40 for the company. Following on from its ROG Zenith Extreme X399 model, the new ROG Zenith II Extreme for TRX40 builds upon it with an aluminium heatsink cover surrounding the PCIe 4.0 slots, an aluminium rear panel cover, and a solid steel backplate on the rear of the board. Some of the main features included are the LiveDash color OLED 1.77" screen integrated into the rear panel cover, support for up to five PCIe 4.0 x4 M.2 drives, a Wi-Fi 6 wireless interface, and an Aquantia 10 GbE controller.

The ASUS ROG Zenith II Extreme is an E-ATX model which sits at the top of the ASUS TRX40 product stack. Its design is very interesting with lashings of aluminium via the rear panel cover, the armor covering the PCIe slot area, and the actively cooled TRX40 chipset heatsink. The rear panel cover has an integrated LiveDash color OLED screen which measures in at 1.77", and can be customized with the LiveDash software in the included software suite. There is integrated RGB LEDs too which are located within the rear panel cover, the chipset heatsink, and on the underside of the right-hand side of the board. A total of four full-length PCIe 4.0 slots which operate at x16/x8/x16+x8, and is accompanied by two PCIe 4.0 x4 M.2 slots on the front of the board, one PCIe 4.0 x4 M.2 slot on the rear, and an additional two PCIe 4.0 x4 M.2 available through the ROG DIMM.2 module within the accessories bundle. There are also eight SATA ports with four controlled by the chipset, and four from a pair of ASMedia SATA controllers; only the four SATA ports from the TRX40 chipset support RAID 0, 1, and 10 arrays.

On the power delivery, ASUS is using a similar design to its X570 models with a 16-phase design with 16 Infineon TDA21472 70 A power stages operating in teamed mode. The large aluminium power delivery heatsink has two small Delta Superflo fans to aid cooling, which the finned heatsinks are designed to optimize surface area with low resistance for airflow. Providing power to the CPU is three inputs which consist of two 8-pin 12 V ATX, and one 6-pin 12 V ATX power connector. Cooling support is extensive with seven 4-pin headers which are split into two for CPU fans, two for water pumps, one for a high-amp fan, and two for standard chassis fans. The board also has an LN2 mode jumper for extreme overclockers, a safe boot button, an OC retry button, a dual BIOS selector switch, and power/reset buttons. 

On the rear panel of the ROG Zenith II Extreme is five USB 3.1 G2 Type-A, one USB 3.1 G2 Type-C, four USB 3.1 G1 Type-A, and one USB 3.2 G2 Type-C 20 Gbps port. Networking support is strong with an Aquantia AQC107 10 GbE controller, and a second port powered by Intel I211-AT Gigabit controller. The Wi-Fi comes from an Intel AX200 Wi-Fi 6 wireless interface, and also adds BT 5.0 connectivity for users. On the left-hand side are a BIOS Flashback button and a clear CMOS switch, while on the other side is five 3.5 mm audio jacks and S/PDIF optical output which is powered by a SupremeFX S1220 HD audio codec; this includes an ESS Sabre ESS9018Q2C DAC.

The ASUS ROG Zenith II Extreme has an MSRP of $850 at launch and sits as one of the most expensive TRX40 models, yet one of the most premium. One of the primary benefits is that enthusiasts and power users can use up to five PCIe 4.0 x4 M.2 drives as the ROG DIMM.2 slot makes itself a prominent feature on ASUS's high-end models. There is a lot of enthusiast-level features with a lot going on for extreme overclockers including ASUS's teamed 16-phase power delivery for the CPU, with added LN2 mode and an overclocker's toolkit. 

ASRock TRX40 Taichi ASUS ROG Strix TRX40-E Gaming
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  • HJay - Saturday, November 30, 2019 - link

    Life really does begin at 50.
  • HJay - Saturday, November 30, 2019 - link

    Your point is valid and I'm not ready to switch from external interfaces to an internal RME unit yet. However, the performance and quality of the peculiar on-board audio arrangement is still of great interest. Experiencing AMD's AM3 FX chipset USB implementation (See: "Silicon Errata for SB950") was rather eye opening and very helpful in understanding why running USB audio across that implementation was less than optimal. The USB arrangement of AM4 seems to be an improvement over the AM3 and AM3+. But AMD's TRX40 seems to reveal a non-satisfactory level of concern for PC audio -suggesting that AM4 might be more appropriate. This motherboard review is a great start but there are still many holes to fill in regarding this, in particular with the S1220.

    Selecting an appropriate motherboard upfront before throwing thousands of dollars worth of audio software and hardware at it is critical. I did note compatibility issues between earlier AM4 systems and some Universal Audio cards and the desired RME card is around $900. So, I'm just not ready to ride the bleeding edge with these new boards but will eagerly listen to the experiences of others and cheer them along.

    As a side note, I did recommend to my favored audio repair software vendor that they contact AnandTech to provide, or work out, some audio benchmarking tests or packages.
  • Bccc1 - Saturday, November 30, 2019 - link

    I still don't get your point. I agree that the USB implementation is important, that AMD messed that up in the past (thanks for the ref to the errata list) and that the way onboard audio works on TRX40 is maybe more error prone.
    But why is that different / better with the S1220? And how do you define an audio creator? I was thinking of an audio engineer, someone who does tracking/mixing/mastering/sound design. I can't imagine someone in that field would ever use onboard audio, except maybe for mobility reasons on a notebook.

    I will probably use my RME Madiface XT with a StarTech USB card (PEXUSB3S44V) as I don't trust any onboard USB.

    Regarding the compatibilty issues, do you have links/detailed information? The only thing I found was an issue, where the card wasn't detected in PCIe slots connected to the chipset. Which is a shame, but less of a problem with TRX40 as most slots are directly connected to the CPU.
  • tamalero - Saturday, November 30, 2019 - link

    I'm no expert here but could perhaps say this because of the audio problems of some cpus (crackling cutting) because of the high latency of Ryzen and the first Threadrippers?
    Or perhaps power issues (delivery to PCIE ports because the big power consumption of the new TR chips?)
  • Dug - Saturday, November 30, 2019 - link

    I think it's time to move past USB if you are a "Real content creator"
  • valinor89 - Friday, November 29, 2019 - link

    "The TRX40 chipset is based on the 14 nm process node from Global Foundries"
    "AMD leveraged GlobalFoundries 12nm to build the TRX40 chipset"

    Is it 12 or 14?
  • tamalero - Saturday, November 30, 2019 - link

    I remember that Global Foundries is 14nm while TSCM is 14+ (12nm)
  • gavbon - Monday, December 2, 2019 - link

    I have corrected it, it is Global Foundries 14 nm process. Thank you for the heads up
  • scineram - Wednesday, December 4, 2019 - link

    That's not what Ian said.
  • PopinFRESH007 - Sunday, December 29, 2019 - link

    I believe what Ian was referring to is the IO chip on the CPU package which is 12nm.

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