The Kingston Predator are the latest DDR4 memory modules from Kingston. With their Predator lineup Kingston is addressing overclockers as well as enthusiasts, who always strive for more performance. In this review we're going to have a detailed look at the HyperX Predator DDR4-2400MHz-C16-Kit and we're really curious to find out what this particular kit can do.
Manufacturer |
Kingston |
Series |
HyperX Predator |
Part
Number |
HX424C16PBK432 |
Type |
DDR4 |
Capacity |
32 GB (4 x
8GB) |
Frequency |
2'400 MHz |
Timings |
16-16-16-39 |
VDIMM |
1.2 Volt |
Registred/Unbuffered |
Unbuffered |
ECC |
No |
Cooling |
Passive Heatspreader |
Waranty |
Lifetime warranty |
Package
Type |
Boxed |
With the HyperX Predator DDR4
C16 kit, Kingston has memory modules in its portfolio, which serve the absolute high-end
market. A more detailed look at the specifications reveals, that these Kingston
appears to be cautious in choosing frequency as well as timings. The Hynix MFR
chips on these modules are set to run at CL16-16-16-39. If you keep in mind,
that other memory makers drive these chips at CL15-15-15-35 and DDR4-3000 one
can understand why we're saying Kingston is being
conservative.
[pagebreak]
Closer Look
The new Predator modules from
Kingston are being shipped in a cardboard box, where they're lying on soft foam.
Heatspeaders of Predator are finished in a blend of black and silver, which is
likely to fit with quite a few motherboard models out there. The heatspreaders
on these modules are very well made, since there are rather massive aluminum
profiles, which
stick to the memory chips via adhesive heatpads.
Taking the heatspeaders off Kingstons Predator series is not something we would recommend doing at home due to strong adhesive that requires
a very careful approach. Once the heatspreaders have been removed we see
that Kingston is putting MFR chips from SK Hynix on these modules. These are
basically the chips every DDR4 memory maker is using today.
The SPD of these modules contains some basic information such
as maker, part number and manufacturing date. It also features JEDEC profiles up
to DDR4-2400, as well as an XMP profile.
[pagebreak]
Photo Gallery
[pagebreak]
Test Setup
In order to thoroughly test memory as well as memory kits, we're making use
of Intels Haswell-E platform in combination with a highly binned Core i7-5960X
CPU. This allows use to drive memory at highest possible frequencies and
therefore do proper scaling tests. Different memory chips (ICs) have different
sweet spots in the case of primary timings, which is why we're altering CAS
latency, tRCD, tRP as well as tRAS. Overall we build five different presets,
which - as explained - can be different from IC to IC used on a memory module.
Other than that we're also changing DRAM voltages, wheras we're setting 1.20V,
1.35V and 1.50V. There are actually reasons why we're using these
voltages. 1.20V is the standard voltage for DDR4 memory. 1.35V on DDR4 is used
in case of slight overclocking and with 1.50V you can push the module by quite a
bit. Last but not least it
remains to be explained how we find out whether a certain setting is stable or
not. For that purpose we're running HyperPi.
Motherboard |
ASUS Rampage V Extreme |
CPU |
Intel Core i7-5960X |
Graphic
card |
ASUS GTX 580 |
Memory |
HX424C16PBK432 |
SSD |
Samsung 845DC EVO 960GB |
PSU |
Seasonic Platinum 660 Watts |
OS |
Windows 7, 64 bit SP1 |
[pagebreak]
CAS latency 12 / 12-14-14-35
We start to test these modules with tight CAS latency, which in this case is CL12. Setting the memory voltage at 1.20V in the BIOS
HyperPi passed at 2'200 MHz. Feeding higher voltage (1.35V) to the memory, makes
the frequency scale to 2'580 MHz. Driving the memory at 1.50V allowed HyperPi to
pass at 2'795 MHz.
[pagebreak]
CAS latency 13 / 13-14-14-35
When running CL13 we went through the same procedure like with CL12. Setting
the memory voltage at 1.20V in the BIOS
HyperPi passed at 2'430 MHz. Feeding higher voltage (1.35V) to the memory, makes
the frequency scale to 2'765 MHz. Driving the memory at 1.50V allowed HyperPi to
pass at 2'880 MHz.
[pagebreak]
CAS latency 14 / 14-15-15-35
When running CL14 we - again - went through the same procedure like with CL13. Setting
the memory voltage at 1.20V in the BIOS
HyperPi passed at 2'640 MHz. Feeding higher voltage (1.35V) to the memory, makes
the frequency scale to 3'000 MHz. Driving the memory at 1.50V allowed HyperPi to
pass at 3'100 MHz.
[pagebreak]
CAS latency 15 / 15-15-15-35
When running CL15 we went through the same procedure like with CL14. Setting
the memory voltage at 1.20V in the BIOS
HyperPi passed at 2'790 MHz. Feeding higher voltage (1.35V) to the memory, makes
the frequency scale to 3'040 MHz. Driving the memory at 1.50V allowed HyperPi to
pass at 3'130 MHz.
[pagebreak]
CAS latency 16 / 16-18-18-35
When running CL16 we went through the same procedure like with CL15. Setting
the memory voltage at 1.20V in the BIOS
HyperPi passed at 2'850 MHz. Feeding higher voltage (1.35V) to the memory, makes
the frequency scale to 3'070 MHz. Driving the memory at 1.50V allowed HyperPi to
pass at 3'200 MHz.
Kingston specifies this kit to run stable at 2'400 MHz and as you can see from
our graph, this kit can be overclocked by 450 MHz with stock voltage but loosing
tRCD and tRP to 18 to compare with other memory makers.
[pagebreak]
Overclocking
As you can see from the images above, we've been able to push these modules
on air
to DDR4-3'258. In this case we've been using the CL16 with 18 tRCD and tRP, we've set
the voltage to 1.65V, then we decided to torture this kit of memory as we saw
its strong enough top show some serious number so we used Liquid nitrogen, we
could reach over 3'420 at the same voltage we used on air, we won't forget this
is 32GB kit with 8GB density modules.
[pagebreak]
Conclusion
General |
|
|
|
Overall this memory kit from Kingston is just
great. It's just a pity it's not yet available. We were absolutely
impressed by the overclockability of this 32 GB Kit. In fact this 32 GB
kit runs better then lots of 16 GB kits out there, which is definitely
an achievement in our opinion. We've been able to run low voltages easily
with different latency settings and the kit passed the HyperPi stability
test several times without any error at exceptionally high
frequencies. When overclocking these Predator modules, we run SuperPi 32m
at DDR4-3'257 at 1.65 volt and we reached 3'420 MHz using Liquid nitrogen
as coolant with the same voltage. |
|
- Low Voltage stability
- Heat spreader quality
|
- Compatibility with big coolers |
|
Scaling |
|
|
|
The only latency set with which we've noticed
linear scaling was CL14. If we look at CL12, CL13, CL15 as well as CL16
we always see a degression when setting 1.5 volt. This means, that at
1.5 Volt you can drive these sticks close to their maximum frequency. |
|
- Scaling with all CAS latencies |
|
|
Overclocking |
|
|
|
Using the Rampage V Extreme and our specific
memory testing CPU, which has a good IMC, reaching over 3.2GHz on the memory
was actually easy. Unfortunately the journey stops quite soon at 3'260
MHz and in this case we have to feed these sticks with 1.65 volt.
Unfortunately in this context means that since it was so easy to hit 3.2
GHz we were hoping for something like 3.3 GHz in the end with a little
more voltage. But nevertheless 3'260 MHz is an impressive result in the
case of a 32GB kit. |
|
- 3.2+ GHz
- 3.1+ GHz @ CL14 |
|
|
Recommendation / Price |
|
|
|
Searching for prices we can't finde this kit listed
just yet. But since this is a high-end 32GB DDR4 memory kit, we really
don't expect this kit to be a bargain. Should you be looking for a 32GB
DDR4 memory kit which features with excellent overclocking potential,
then you might really want to wait until this particular kit becomes
available. |
|
- Overclocking
- Gaming and workstation PC |
|
|
Rating |
The Kingston HyperX Predator-2400C16
receives excellent 5 out of 5 stars. |
|