ZADAK Shield RGB DC DDR4-3200 Overview

We first learned about the new ZADAK 32 GB modules back in September. Since then, ZADAK has announced a total of five different 2x32GB Shield RGB DC kits in four different clock speeds, from DDR4-2666 through to DDR4-3600. There are two kits available at DDR4-3200 with different latencies; at CL14-14-14-34 and with slightly looser secondary and tertiary timings of CL14-16-16-36. All of these kits are compatible with three specific ASUS ROG Z390 models: the STRIX Z390-I Gaming, MAXIMUS XI APEX and MAXIMUS XI Gene.

For this review, we received a kit of the DDR4-3200 CL14-16-16-36. This dual channel 64 GB (2x32 GB) kit has an operating voltage of 1.35 V and features Samsung B-Die ICs. By contrast to ZADAKs other kits on the market, this is quadruple the capacity of its 8 GB UDIMMS.


ZADAK Shield RGB DC Memory in an ASUS Z390 Motherboard

While we know the ZADAK Shield RGB DC memory has a total of 32 memory ICs on its PCB (16 on each side), and it uses a similar pin-out implementation to G.Skill, leading to the specialization that they only work on select ASUS motherboards that have been validated. Unfortunately the ZADAK headspreader is firmly bonded to the chips, meaning removing the headspreader has a chance that it could remove a chip; we were unable to secure any images from ZADAK for underneath the heatspreaders, so at this point we are assuming that they work similarly to the G.Skill modules with double EPROMs onboard and act as two DIMMs on one PCB.

Analyzing at the mechanical design of the ZADAK Shield RGB DC DDR4-3200 memory, they are 73 mm in height which isn't much taller than ZADAKs own 8 GB Shield RGB memory which have a height of 60 mm. This means the heatsinks extend quite a bit further than the PCB with the majority of the height coming as a result of the integrated RGB LED lightbar. The heatsinks feature a three-tone design with black, grey and silver aluminium heat spreaders. The effect is not as pronounced as the G.Skill RGB light bar.

The RGB LEDs built-into the top of the heat spreader is addressable and can be customized with ASUS AURA software.

ZADAK in itself is an arm of Apacer Technology who formed back in 1997 as a DRAM supplier. ZADAK formed in 2015, and would prefer to be identified as a separate entity from Apacer, similar to how HyperX is to Kingston, or Crucial is to Micron.

Using the Taiphoon Burner DRAM software, we can see the JEDEC DIMM Label is listed as 16 GB of 2Rx8. This means the sensor is showing that each module is organised by the firmware into two lots of 16 GB and not one of 32 GB. The latency timings of the XMP 2.0 profile are 14-16-16-36.

ZADAK has better market variation with a total of five different kits.

The baseline model is a DDR4-2666 kit which is the cheapest of the five models at $799 and has timings of 16-16-16-36. This is relatively slow in terms of latency timings for a kit of this speed overall, but so far its the only DC kit from any vendor to operate at just 1.2 V on its XMP 2.0 profile.

Stepping up to the next mark is a DDR4-3000 kit with slightly slower timings of 16-16-18-38 for $899 and operates at 1.35 V. There are two DDR4-3200 kits available with both kits having the tightest timings, and a final DDR4-3600 kit. This DDR4-36000 kit has an MSRP of $1299 USD which is $500 premium over the DDR4-2666 base model which is a considerable chunk of budget for a desktop platform.

ZADAK Shield RGB DC Kits for ASUS Z390 Platform
Speed CL Timing Voltage Kit
Config.
PN MSRP
(USD)
DDR4-2666 CL16 16-16-36 1.20 V 2×32 GB - $799
DDR4-3000 CL16 16-18-38 1.35 V - $899
DDR4-3200 CL14 14-14-34 - $1199
CL14 16-16-36 ZD4-SHC3200C14-32GCS $999
DDR4-3600 CL16 18-18-38 - $1299

The DDR4-3200 kit which we received for testing has slightly looser timings of CL14 16-16-36 and has a price of $999.

The current availability in retail channels of the ZADAK Shield RGB DC 2x32 GB kits is limited to Japan, China and Australia. ZADAK has stated that its DC kits will be available in Vietnam and Thailand during January, while the kits are planned for launch in the US and EU during Q1 2019.

G.Skill TridentZ RGB DC Overview CPU Performance, Short Form
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  • Targon - Thursday, January 24, 2019 - link

    The connection to the motherboard and support in the BIOS and memory controller are the key. More memory on the same memory channel will not boost performance, and will even degrade performance a bit due to needing to connect the additional memory on the same channel.

    DDR5(not to be confused with GDDR5) will help. Going to Gen-Z where the memory can connect to the Gen-Z bus might potentially help as well if done right, because you want that memory bus to be able to access more RAM at the same time, so latency will hopefully go down with the next generation of desktop memory.
    Reply
  • prateekprakash - Thursday, January 24, 2019 - link

    Could you please mention the names of the motherboards which did not post with these memories?
    Also could you please try these with Intel 6xxx/ 7xxx series CPUs with 2xx chipsets ( z270, b250).
    Reply
  • mito0815 - Thursday, January 24, 2019 - link

    Any thoughts on how scalable this apporach is? I mean...the obvious issues (heatsink fan clearance being one of them) aside, 4-row-high-DIMMs would look absolutely hilarious. I'd buy them. Just for the joke. Reply
  • KarlKastor - Thursday, January 24, 2019 - link

    I don't get why there is a need for double height.
    There are lots of DIMMs in the market, that have 18 ICs per side on a regular DIMM.

    I think it's just marketing, to show visually they have something new. The Cooler occupies the space anyway. But don't get, why every Tech-website mention it's neccessary.
    Reply
  • Targon - Thursday, January 24, 2019 - link

    I suspect it is all about the memory density. So, rather than trying to get 7nm fab process RAM, these companies are using less expensive chips and just increasing the size of the board to compensate, plus the need to connect the RAM chips on the DIMM. What sort of timings are on these things, 2T, 3T, or 4T for the command rate? How about the latency ratings? Reply
  • KarlKastor - Friday, January 25, 2019 - link

    Mh? I talk not about the number of DRAM Dies. I speak just about the size of the PCB. What has lithographie to do with PCB size?
    Here u have 16 packages per side. There are a lot of normal sized DIMMs outside with that amount of packages.
    Reply
  • Danvelopment - Friday, January 25, 2019 - link

    What are the use cases? I would have thought that, by the time you need those sort of capacities, you would be better served by a quad channel Xeon. Reply
  • NoSoMo - Friday, January 25, 2019 - link

    Interesting -- now if they could just pair them with some 3D nand and allow hybrid RAM / storage like intel wants to do with optane. Perhaps it'd come in a variant that sees 16GB PC 3000 and a slot similar to M.2 with capacities that mirror that of NVMEs thus moving storage over to the RAM bus and freeing up the PCI bus. The modules would be L shaped so that the storage addition completes the form factor thus allowing it to retain the same profile as these taller units, vs having a module hanging off the side. Reply
  • 13Gigatons - Wednesday, January 30, 2019 - link

    Maybe they could focus on lowering the price????

    Other then that what is the case use?
    Reply
  • DPete27 - Tuesday, February 12, 2019 - link

    You can fit 2 SODIMMs using a single locking mechanism on each end within the limits of a mITX board. Surely that would be much easier and more universal.
    [img]https://lh3.googleusercontent.com/-L0fCpsbFSWA/We5...[/img]
    Reply

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