Subject: General Tech | July 3, 2018 - 05:55 PM | Tim Verry
Tagged: SoC, SFF, sapphire, ryzen v1000, ryzen embedded, ryzen, APU, amd
Sapphire Technologies is now partnering with AMD to offer up a new small(ish) 5"x5" form factor system for embedded applications featuring AMD's Ryzen Embedded V1000 SoC APUs. The Sapphire FS-FP5V is a 5.8"x5.5" motherboard that pairs the V1000 SoC with Zen CPU cores and Vega GPU with dual channel DDR4 3200 MHz SODIMM memory slots, two M.2 slots, a single SATA 3 port, dual Ethernet, and four DisplayPort outputs supporting up to four 4K displays.
The 5x5 motherboard uses a V1000 APU that is soldered to the board though the website does not specify which model Sapphire is using. The V1000 series includes APUs ranging from 12W to 54W with up to four (Zen) cores / 8 threads, a Vega-based GPU with up to 11 CUs, 2MB L2 cache, and 4MB shared L3 cache. The SoC further has AMD's PSP security processor and support for dual 10GbE though Sapphire's board only uses two Gigabit NICs (Realtek RTL8111G). Realtek chips are also used for the four channel audio solution (ALC262). The M.2 2280 can operate in PCI-E 3.0 x4 or SATA modes while the smaller M.2 2242 slot uses PCI-E x1 and can accommodate Wi-Fi cards or smaller SSDs. The FS-FP5V board also features serial RS232 and GPIO support and the motherboard is powered by a single 19V DC input.
Rear I/O includes two USB 2.0 ports (there's also one on the front), one USB 3.1 Type-C, four DisplayPort outputs, two RJ-45 GbE jacks, and a single audio output.
Sapphire plans to sell its new 5x5 board to system integrators as well as directly through their website. A video from AMD shows off the board as well as examples from Sapphire partners of SFF cases and 2x2 display walls. The new platform is aimed at video gaming systems (think casinos, arcades, and video gambling machines in bars), digital signage, large display walls, point of sale systems, and medical imaging (high resolution display outputs for medical scanning and diagnostics devices). There is no word on pricing or availability, but if you are interested there is a form you can fill out to get more information. It is nice to see AMD getting some design wins in the SFF space even if its not in consumer products yet (it's time for an AMD NUC competitor).
Update: Tom's Hardware managed to get their hands on some pricing details which show Sapphire will offer four models that vary by Ryzen Embedded processor used including:
- Ryzen Embedded V1202B (2 core / 4 thread + Vega 3) for $325
- Ryzen Embedded V1605B (4 core / 8 thread + Vega 8) for $340
- Ryzen Embedded V1756B (4 core / 8 thread + Vega 8) for $390
- Ryzen Embedded V1807B (4 core / 8 thread + Vega 11) for $450
The first two options are 12W to 25W TDP SoCs while the latter two are 35W to 54W processors. The V1202B is clocked at 2 GHz base and up to 3.6 GHz. Moving up to the V1605B gets two more cores at an every so slightly higher 2.06 GHz base and moves from Vega 3 to Vega 8 graphics (though still at the same 1,100 MHz clockspeeds). Stepping up to the V1756B gets a processor with a much higher 3.25 GHz base but hte same maximum boost and graphics as the V1605B. Finally, moving to the flagship V1807B SoC gets an APU clocked at 3.35 GHz base and 3.8 GHz boost with Vega 11 graphics clocked at 1,300 MHz. The boards will reportedly be available later this year (relatively soon) while the UDOO Bolt will be available next year at similar price points. In all the Sapphire board seems like a decent deal for setting up a homelab or media box (though I wish the storage situation was better) while the UDOO Bolt board is aimed more at developers and makers with the inclusion of Aruino pinouts and eMMC storage (The UDOO appears to top out at the V1605B chip as well.)
(End of Update.)
Subject: General Tech | February 26, 2018 - 12:04 PM | Jeremy Hellstrom
Tagged: EPYC, ryzen, amd, embedded, epyc 3000, ryzen v1000
The Register have put up a bit more information about AMD's new embedded versions of Ryzen and Epyc. The Epyc 3000 will appear in networking, storage and edge computing devices, offering 64 PCIe lanes, eight 10 GbitE, 16 SATA, and up to 4 memory channels per CPU. The Ryzen V1000 APU will be more for POS and entertainment, with 16 PCIe lanes, dual 10 GbitE, four USB 3.1 and up to four independent 4k displays. Alternatively, it can support a 5k display, with support for H.265 and VP9 codecs. Get a look at all the models here.
"The semiconductor firm is aiming Epyc 3000 at networking, storage and edge computing devices and the Ryzen V1000 at medical imaging, industrial systems, digital gaming and thin clients. Both are embedded systems."
Here is some more Tech News from around the web:
- Hacker coaxes Windows 10 ARM to run on a Lumia 950 prototype @ The Inquirer
- Hackers Are Selling Legitimate Code-signing Certificates To Evade Malware Detection @ Slashdot
- Lenovo stuffs Alexa into its Yoga 730 and 530 convertible laptops @ The Inquirer
- Intel's announced PCs packing 5G, and that's just plain wrong @ The Register
- HP's first ARM-based Windows PC costs as much as an iPhone X @ The Inquirer
- New tool safely checks your passwords against a half-billion pwned passwords @ Ars Technica
- Galaxy S9 vs iPhone X specs comparison @ The Inquirer
- The State of 5G: When It's Coming, How Fast It Will Be & The Sci-Fi Future It Will Enable @ Techspot
- Skype is turning into a white elephant (also green, orange, purple, puce etc) @ The Inquirer
- Samsung breaks ground on new EUV line in Hwaseong @ DigiTimes
- Windows 10 WSL vs. Linux Performance For Early 2018 @ Phoronix
Subject: Processors | February 21, 2018 - 11:22 AM | Ryan Shrout
Tagged: amd, ryzen, EPYC, embedded, ryzen v1000, epyc 3000
Continuing its expansion of bringing modern processor and graphics designs to as many of its targeted market segments as possible, AMD announced today two new families that address the embedded processor space. The company has already seen double-digital YoY sequential growth in revenue from embedded markets, but the release of the Epyc Embedded 3000 and Ryzen Embedded V1000 family create significant additional opportunity for the company.
Embedded markets are unique from traditional consumer and enterprise channels as they address areas from military and aerospace applications to networking hardware and storage devices to retail compute and even casino and arcade gaming. These markets tend to be consistent and stable without the frequent or dramatic swings in architectural preference or market share that we often witness in consumer PCs. As AMD continues to grow and look for stable sources of adjacent income, embedded processors are a critical avenue and one that I believe AMD has distinct advantages in.
Research firm IDC estimates the market size that AMD can address with this pair of chip families exceeds $14-15B annually. The largest portion of that ($11-12B) includes storage and networking infrastructure systems that the Epyc 3000 line will target. The remaining amount includes IoT gateways, medical systems, and casino gaming hardware and is the purview of the Ryzen V1000.
Competitors in this space include Intel (with its Xeon D-series and Core family of chips) and many Arm-based designs that focus on low power integration. Intel has the most potential for immediate negative impact with AMD’s expansion in the embedded markets as the shared architecture and compatibility mean customers can more easily move between platforms. AMD is positioning both parts directly against Intel with proposed advantages in value and performance, hoping to move embedded customers to the combined AMD solution.
The Ryzen V1000 family combines the company’s recent processor and graphics architectures on a single chip, similar in function to the consumer Ryzen design that was released for notebook and desktop PCs. For the embedded customers and devices being targeted, this marks a completely new class of product with two key benefits over competing solutions. First, it allows for smaller and cooler system designs (critical for the cramped working environments of the embedded space) while increasing maximum performance.
Second, the V1000 allows integrators to downscale from using a combination of an Intel processor and a separate, discrete graphics chip to a single chip design. This both raises the ASP (average selling price) for AMD, increasing revenue and potential margin, while lowering the price that customers pay in total for system components.
While AMD struggles to find ways to promote the value of higher performance graphics on its new processors, where it has a significant advantage over Intel, for the consumer and business space, in the embedded markets that additional performance value is well understood. Casino gaming often utilizes multiple high-resolution displays for a single device with demand for high-quality rendered 3D graphics, of which the V1000 can now provide in a single chip design. The same is seen with medical imaging hardware, including ultrasound machines for women’s healthcare and cardiovascular diagnostics.
The Epyc Embedded 3000 family does not include integrated graphics on-chip and instead offers higher core performance and performance per dollar compared to competing Intel solutions. AMD believes that the Epyc 3000 will double the total addressable market for the company when it comes to networking and storage infrastructure.
AMD previously has disclosed its partnership with Cisco that included AMD-built processor options for some families of switches and other networking gear. As the demand for edge computing grows (systems that will exist near the consumer or enterprise side of a network to aid in computational needs of high speed networks), AMD is offering a compelling solution to counter the Intel Xeon family of processors.
Both the Epyc 3000 and Ryzen V1000 chips represent the first time AMD has targeted embedded customers with specific features and capabilities at the hardware level. During the design phase of its Zen CPU and Vega graphics architecture, business unit leaders included capabilities like multiple 10-gigabit network integration, support of four 4K display outputs, ECC memory (error correction capability for mission-critical applications), and unique embedded-based interfaces for external connectivity.
While these were not needed for the consumer segments of the market, and weren’t exposed in those hardware launches, they provide crucial benefits for AMD customers when selecting a chip for embedded markets.