Consoles


Microsoft Rolls Out Xbox April Update: FreeSync And More

Microsoft Rolls Out Xbox April Update: FreeSync And More

Although we’ve not yet gotten an official launch date for the latest version of Windows 10, Microsoft’s Xbox team has once again beat them to the punch with a new version of the console OS called the April Xbox Update. Apparently, they&rsq…

Microsoft’s Project Scorpio Gets a Launch Date: Xbox One X, $499, November 7th

Microsoft’s Project Scorpio Gets a Launch Date: Xbox One X, $499, November 7th

Over the last several months, Microsoft has been trickling out details about their mid-generation hardware update for the Xbox One console, which has been going under the name Project Scorpio. Now at this year’s E3 conference, the company is releasing the final details. We now have a name, a launch date, and perhaps most importantly, a price.

Hitting the streets on November 7th will be the new Xbox One X, which is Microsoft’s retail name for the console.(ed: I’m convinced MS is trying to keep us from writing their console names in short-hand) It will be priced at $499 in the US and equivalent prices in other regions, which is the same price as the original Xbox One (with the Kinect) at its launch back in 2013. On a relative basis, this stacks up as being twice the cost of the Xbox One S, whose base model (and now bundles as well) has been $249 for a while now.

Xbox One Specification Comparison
  Xbox One (Original) Xbox One S Xbox One X
CPU Cores 8 8 8
CPU Frequency 1.75 GHz 1.75 GHz 2.3 GHz
CPU µArch AMD Jaguar AMD Jaguar “Custom CPU”
(AMD Jaguar Variant)
GPU Cores 12 CUs
768 SPs
853 MHz
12 CUs
768 SPs
914 MHz
40 CUs
2560 SPs
1172 MHz
Peak Shader Throughput 1.23 TFLOPS 1.4 TFLOPS 6 TFLOPS
Embedded Memory 32MB eSRAM 32MB eSRAM None
Embedded Memory Bandwidth 204 GB/s 218 GB/s None
System Memory 8GB DDR3-2133 8GB DDR3-2133 12GB GDDR5
(6.8 Gbps)
System Memory Bus 256-bits 256-bits 384-bit
System Memory Bandwidth 68.3 GB/s 68.3 GB/s 326 GB/s
Manufacturing Process TSMC 28nm TSMC 16nm TSMC 16nm
Dimensions 343mm x 263mm x 80mm 295mm x 230mm x 65mm 300mm x 240mm x 60mm
Weight 3.54kg 2.9kg 3.81kg
PSU 220W
(External)
120W
(Internal)
245W
(Internal)
Optical Drive Blu-Ray UHD Blu-Ray UHD Blu-Ray
Wireless 802.11n (Dual Band) 2×2 802.11ac 2×2 802.11ac
Launch Price $499 w/Kinect $299 $499
Launch Date 11/23/2013 08/02/2016 11/07/2017

As far as the hardware itself goes, thanks to Microsoft’s ongoing campaign, we already know the bulk of the details of the console. The 16nm SoC at the heart of the new Xbox One design is meant to be significantly more powerful than the original and S versions of the Xbox One, vaulting MS from having the least powerful console to the most powerful console. All told, the Xbox One X will offer almost 4.3x the GPU compute throughput of the Xbox One S, while the CPU cores have received a healthy 31% clockspeed boost (Interesting aside: Microsoft is still not calling it Jaguar, unlike the XB1/XB1S). The memory feeding the beast has also gotten a great deal faster as well, with Microsoft switching out their 8GB of DDR3 for a large and very fast 12GB of GDDR5, which has a combined memory bandwidth of 326GB/sec.

Meanwhile the only real details we didn’t have on the console itself, such as the size, have been answered. Microsoft is going for a super slim design on the console, announcing that it’s the “smallest Xbox ever”, placing it below even the already slimmed-down Xbox One S. At 300mm x 240mm x 60mm, the console is 5mm wider and 10mm deeper than the Xbox One S, but it’s 5mm shorter than said console. Or to put things in terms of volume, it’s 98% the volume of the Xbox One S, indeed making it smaller, though just slightly so.

Otherwise, Microsoft has largely confirmed that the Xbox One X will function as you’d expect as a mid-cycle console upgrade, similar to the Xbox One S. Existing games will benefit from the more powerful hardware, though to what degree is apparently going to depend on the game. For games that are fully Xbox One X enabled, Microsoft is targeting a 4K (3840×2160) resolution, and will offer downsampling for improved quality when hooked up to 1080p TVs. And all of the existing Xbox One ecosystem accessories will work as well.

Gallery: Xbox One X

Playing With Power: A Look At Nintendo Switch Power Consumption

Playing With Power: A Look At Nintendo Switch Power Consumption

Last week was of course the launch of Nintendo’s eagerly anticipated Switch console. The company’s latest handheld console, the Switch is a bit of an odd duck in pretty much every way. It departs from Nintendo’s traditional and well-established clamshell design in favor of a larger tablet, and under the hood Nintendo has stepped away from their typical highly-custom low-power SoC in favor of a rather powerful Tegra design from NVIDIA. Given that the 3DS was essentially an ARMv6 + OpenGL ES 1.x device, I can’t overstate just how significant of a jump this is under the hood in going to the ARMv8 + OpenGL ES 3.2/Vulkan class Tegra SoC. Nintendo has essentially jumped forward 10 years in mobile technology in a single generation.

Playing with a launch-day Switch a bit, there’s not much testing we can do since the console is so locked down. But one area where I’ve had some success is on power consumption testing. This is also an area where the Switch is a bit of an odd duck, leading to some confusion around the Web judging from some of the comment posts I’ve seen elsewhere. USB Type-C has been shipping in devices for a couple of years now, so it’s hardly a new standard, but given the slow upgrade cycle of PCs and smartphones it still isn’t an interface that the majority of consumers out there have dealt with. Furthermore due to its use case as a game console, the Switch is unlike any other USB Type-C device out there (more on this in a second). So I opted to spend some time profiling the device’s power consumption, in order to shed some light on what to expect.

Playing With Power: A Look At Nintendo Switch Power Consumption

Playing With Power: A Look At Nintendo Switch Power Consumption

Last week was of course the launch of Nintendo’s eagerly anticipated Switch console. The company’s latest handheld console, the Switch is a bit of an odd duck in pretty much every way. It departs from Nintendo’s traditional and well-established clamshell design in favor of a larger tablet, and under the hood Nintendo has stepped away from their typical highly-custom low-power SoC in favor of a rather powerful Tegra design from NVIDIA. Given that the 3DS was essentially an ARMv6 + OpenGL ES 1.x device, I can’t overstate just how significant of a jump this is under the hood in going to the ARMv8 + OpenGL ES 3.2/Vulkan class Tegra SoC. Nintendo has essentially jumped forward 10 years in mobile technology in a single generation.

Playing with a launch-day Switch a bit, there’s not much testing we can do since the console is so locked down. But one area where I’ve had some success is on power consumption testing. This is also an area where the Switch is a bit of an odd duck, leading to some confusion around the Web judging from some of the comment posts I’ve seen elsewhere. USB Type-C has been shipping in devices for a couple of years now, so it’s hardly a new standard, but given the slow upgrade cycle of PCs and smartphones it still isn’t an interface that the majority of consumers out there have dealt with. Furthermore due to its use case as a game console, the Switch is unlike any other USB Type-C device out there (more on this in a second). So I opted to spend some time profiling the device’s power consumption, in order to shed some light on what to expect.