Jim Keller, one of the lead architects of AMD's x86 CPU architectures, has left the company. He held the post of Chief Architect of Microprocessor Cores at AMD. With his association, AMD's launched some of its most successful CPU architectures, such as the original K7 (Athlon, Athlon XP, Duron); the very first 64-bit x86 architecture, and K8 (Athlon64). Keller then left AMD to join Apple, in its development of the A4 and A5 SoCs, before rejoining AMD in 2012 to begin work on the "Zen" architecture.

Keller's departure doesn't throw "Zen" in jeopardy. "Jim helped establish a strong leadership team that is well positioned for success as we enter the completion phase of the "Zen" core and associated system IP and SoCs," said AMD in a statement. "Zen" remains on-track for sampling in 2016, and its "first full year of revenue" in 2017, which would indicate a market launch some time in 2016. AMD CTO Mark Papermaster will take over as additional charge of Keller's position.

Back in 2008, when it looked like NVIDIA owned the GPU market, and AMD seemed lagging behind on the performance and efficiency game, the company sprung a surprise. The company's RV770 silicon, the first GPU to implement GDDR5 memory, trounced NVIDIA's big and inefficient GeForce GTX 200 series, and threw AMD back in the game. GDDR5 helped the company double the memory bandwidth, with lower pin- and memory-chip counts, letting the company and its partners build graphics cards with fewer components, and earn great margins, which the company invested in development of its even better HD 5000 series, that pushed NVIDIA with its comical GeForce GTX 480, to hit its lowest ever in market-share. Could AMD be looking at a similar turnaround this summer?

Since the introduction of its Graphics CoreNext architecture in 2012, AMD has been rather laxed in its product development cycle. The company has come out with a new high-end silicon every 18-24 months, and adopted a strategy of cascading re-branding. The introduction of each new high-end silicon would relegate the existing high-end silicon to the performance segment re-branded, and the existing performance-segment silicon to mid-range, re-branded. While the company could lay out its upcoming Radeon R9 series much in the same way, with the introduction of essentially just one new silicon, "Fiji," it could just prove enough for the company. Much like RV770, "Fiji" is about to bring something that could prove to be a very big feature to the consumer graphics market, stacked high-bandwidth memory (HBM).

MSI, world leading in motherboard design, debuts the world's first USB 3.1 featured AMD GAMING motherboard, the 990FXA GAMING. Delivering blazing fast USB performance, up to 2 times faster than USB 3.0, the new 990FXA GAMING motherboard offers two USB 3.1 ports, which are fully backwards compatible with USB 3.0 and USB 2.0 devices.

Inheriting the outstanding DNA of MSI's award winning GAMING family, the new MSI AM3+ 990FXA GAMING motherboard features Killer LAN for the best online GAMING experience, Audio Boost 2 powered by Creative Sound Blaster Cinema 2 for astonishing sound quality that gives you the upper hand on the battlefield, USB Audio Power and a completely new hardware and software design for enhanced gaming performance. Get ready for high-end AMD GAMING with MSI.

Ahead of its June 23 release, the minimum- and recommended-system requirements of Rocksteady's next installment to the super-hit Batman: Arkham franchise, Arkham Knight, was disclosed by NVIDIA. The PC version appears to have some clear visual benefits over the console variants of this game, given its steep storage requirements. Given that it will get an NVIDIA GameWorks varnish, PC gamers can expect eye-candy that won't make it to the console versions, including support for high-resolution display standards, such as 4K Ultra HD.Without further ado, the system requirements lists.

Intel Corporation CEO Brian Krzanich today announced a series of mobile platforms including the company's new low-cost system-on-chip (SoC) for phones, phablets and tablets, a global LTE solution, innovative personal computing experiences, and a range of customers for mobile device and network infrastructure offerings. With technologies that span silicon, software and security, Krzanich said Intel was one of the few companies able to deliver solutions end-to-end, for devices, the network and the cloud.

The announcements include the Intel Atom x3 processor series, Intel's first integrated communications SoC solution for the growing value and entry device markets, and the five-mode Intel XMM 7360 LTE Advanced solution, designed for performance and worldwide coverage. In addition, Krzanich highlighted joint efforts with Alcatel-Lucent, Ericsson and Huawei to address the demand for new telecommunications, cloud and data center services, improve network efficiencies, and accelerate the industry's move toward a software-defined infrastructure.

Samsung Electronics Co., Ltd., the world leader in advanced memory technology, announced today that it is now mass producing the industry's first ePoP (embedded package on package) memory - a single memory package consisting of 3GB LPDDR3 DRAM, 32GB eMMC (embedded multi-media card) and a controller. For use in high-end smartphones, the extremely thin ePoP combines all essential memory components into a single package that can be stacked directly on top of the mobile processor, without taking any additional space - a distinct improvement over existing two-package eMCP memory solutions.

"By offering our new high-density ePoP memory for flagship smartphones, Samsung expects to provide its customers with significant design benefits, while enabling faster and longer operation of multi-tasking features," Jeeho Baek, Senior Vice President of Memory Marketing at Samsung Electronics. "We plan to expand our line-up of ePoP memory with packages involving enhancements in performance and density over the next few years, to further add to the growth of premium mobile market."

AMD (NASDAQ: AMD) today announced revenue for the fourth quarter of 2014 of $1.24 billion, operating loss of $330 million and net loss of $364 million, or $0.47 per share. Non-GAAP(1) operating income was $36 million, non-GAAP(1) net income of $2 million and breakeven non-GAAP(1) earnings per share.

"We made progress diversifying our business, ramping design wins and improving our balance sheet this past year despite challenges in our PC business," said Dr. Lisa Su, AMD president and CEO. "Annual Enterprise, Embedded and Semi-Custom segment revenue increased over 50% as customer demand for products powered by our high-performance compute and rich visualization solutions was strong. We continue to address channel headwinds in the Computing and Graphics segment and are taking steps to return it to a healthy trajectory beginning in the second quarter of 2015."

FinalWire Ltd. today announced the immediate availability of AIDA64 Extreme 5.00 software, a streamlined diagnostic and benchmarking tool for home users; the immediate availability of AIDA64 Engineer 5.00 software, a professional diagnostic and benchmarking solution for corporate IT technicians and engineers; the immediate availability of AIDA64 Business 5.00 software, an essential network management solution for small and medium scale enterprises; and the immediate availability of AIDA64 Network Audit 5.00 software, a dedicated network audit toolset to collect and manage corporate network inventories.

The latest AIDA64 update introduces wireless remote monitoring of sensor values on smartphones and tablets via RemoteSensor and Logitech Arx Control. It also provides detailed information on system certificates, and supports Aquaero and Aquaduct sensor devices.DOWNLOAD: AIDA64 Extreme v5.00 Installer | ZIP Package

AMD has the unique distinction of supplying SoCs to all three leading game console vendors simultaneously - Microsoft, Sony, and Nintendo. The company, like NVIDIA, is looking forward with perched eyes for manufacturing partner TSMC to get its 20 nanometer silicon fabrication node running full-cylinders. Unlike NVIDIA, which may use the new process to shrink its GPUs, or launch bigger chips based on its "Maxwell" architecture, AMD will treat its console SoCs with optical-shrinks to the new nodes first, so the company could immediately eke out better margins, as console gamers upgrade to Xbox One or the PlayStation 4.

AMD's SoC for the Xbox One, could be the first in line for this optical shrink to 20 nm. This chip features a transistor count of 5 billion, and houses eight 64-bit x86 CPU cores, and a 768 SP GPU based on the Graphics CoreNext architecture; 48 MB of on-die cache, and a quad-channel DDR3 IMC. The chip also features an integrated core logic. AMD's chip for the PlayStation 4 features design inputs from Sony. The chip features the same CPU component, but a 1152 SP GPU, and a 256-bit wide GDDR5 memory interface, wired to 8 GB of memory that's virtualized for both system- and graphics-memory. The 20 nm shrinks of both chips are expected to lower not just manufacturing costs, but also step up energy-efficiency, which could then let Microsoft and Sony save additional costs on other components, such as power and cooling.

AMD rolled out its second beta-marked Catalyst drivers, since its late-September Catalyst 14.9 WHQL, Catalyst 14.9.2 beta. The driver enables AMD Mantle API support for Sid Meier's Civilization: Beyond Earth, the month's biggest PC game launch. The release doesn't include any other notable changes. Grab the driver for Windows 8.1, Windows 7, and Windows Vista, from the links below.DOWNLOAD: AMD Catalyst 14.9.2 beta for Windows 8.1/7/Vista 64-bit | Windows 8.1/7/Vista 32-bit

Shortly after the launch of its Catalyst 14.9 WHQL driver, AMD released a follow-up Catalyst 14.9.1 Beta driver, to address some immediate issues found with the driver. It addresses an intermittent black-screen or BSOD issue caused after driver installation of Catalyst 14.9 WHQL, Catalyst Control Center crash, random crash when enabling or disabling 4-way CrossFireX, and Battlefield 4 instability on systems with 4-way CrossFireX. It also fixes a system crash issue found with Sniper Elite III, on systems with 4-way CrossFireX.DOWNLOAD: AMD Catalyst 14.9.1 beta for Windows 8.1/7/Vista 64-bit | Windows 8.1/7/Vista 32-bit

ARM and TSMC today announced a new multi-year agreement that will deliver ARMv8-A processor IP optimized for TSMC 10FinFET process technology. Because of the success in scaling from 20SoC to 16FinFET, ARM and TSMC have decided to collaborate again for 10FinFET. This early pathfinding work will provide valuable learning to enable physical design IP and methodologies in support of customers to tape-out 10FinFET designs as early as Q4 2015.

"ARM and TSMC are industry leaders in our respective fields and collectively ensure the availability of leading-edge solutions for ARM-based SoCs through our deep and long-term collaboration," said Pete Hutton, executive vice president and president, product groups, ARM. "Our mutual commitment to providing industry leading solutions drives us to work together early in the development cycle to optimize both the processor and the process node. This joint optimization enables ARM silicon partners to design, tape-out and bring their products to market faster."

AMD today demonstrated the first network function virtualization (NFV) solution on AMD's 64-bit ARM-based SoC and announced that it is now sampling to AMD's embedded customers. The NFV demonstration is powered by a 64-bit ARM-based AMD Embedded R-Series SoC, codenamed "Hierofalcon," supported with technology from two key ecosystem partners -- Aricent for the networking software stack and Mentor Graphics for embedded Linux and tools. NFV is an innovative solution that simplifies deployment and management for network and telecommunications service providers with a fully virtualized communications infrastructure that helps maximize performance, while working to reduce costs.

At ARM TechCon, AMD specifically showcased the capabilities of an ARM-based NFV solution, virtualizing the functionality of a packet data network gateway, serving gateway, and a mobility management entity. In addition to virtualizing hardware components, AMD showcased a live traffic migration between the ARM-based AMD Embedded R-Series SoC and the x86-based second generation AMD R-Series APU. AMD's ARM-based NFV solution will be especially valuable for telecommunications network infrastructure providers interested in a flexible software-defined networking (SDN) implementation to manage networking services with configurable hardware to help reduce complexity and cost. NFV is the abstraction of numerous network devices such as routers and gateways, to enable relocation of network functions from dedicated hardware appliances to generic servers. With NFV, much of the intelligence currently built into proprietary, specialized hardware is accomplished with software running on general purpose hardware. The resulting solution is a fully virtualized communications infrastructure -- including virtual servers, storage and networks -- that simplifies deployment and management for network and telecommunications service providers. AMD is paving the way for both new and established service providers to design and deploy either x86 or ARM-based NFV infrastructure which meets their performance, cost and complexity requirements.

AMD (NYSE: AMD) today will make the first public demonstration of Apache Hadoop running on an ARM Cortex-A57-based AMD Opteron A-Series processor. In a technical session at the JavaOne conference to be delivered this afternoon by AMD corporate fellow Leendert van Doorn, the company will show how the expanding AMD Opteron A-Series server software ecosystem now includes Hadoop, the Java-based framework for storage and large-scale data processing. In addition, Henrik Stahl, vice president, Java product management and Internet of Things at Oracle, will join van Doorn on stage to discuss Oracle's support for AMD's 64-bit ARM server architecture.

Hadoop, a distributed processing technology used primarily for big data analysis, is a rapidly expanding market expected to reach upward of $50 billion by 2020. The combination of 64-bit ARM-based servers and Hadoop is designed to accelerate the changing economics of large-scale computing by enabling distributed processing across clusters of ARM-based servers. Running on the recently announced AMD Opteron A1100 development platform, the demonstration will feature Apache Hadoop running on the Oracle JDK. Leendert will also show multiple nodes running the same demonstration using Linux environments based on Fedora technology from the Red Hat-sponsored Fedora community and the community supported OpenSUSE Project.

AMD today announced the immediate availability of the AMD Opteron A1100-Series developer kit, which features AMD's first 64-bit ARM-based processor, codenamed "Seattle." AMD is the first company to provide a standard ARM Cortex-A57-based server platform for software developers and integrators. Software and hardware developers as well as early adopters in large datacenters are eligible and can apply on AMD's website.

"The journey toward a more efficient infrastructure for large-scale datacenters is taking a major step forward today with broader availability of our AMD Opteron A1100-Series development kit," said Suresh Gopalakrishnan, general manager and vice president, Server business unit, AMD. "After successfully sampling to major ecosystem partners such as firmware, OS, and tools providers, we are taking the next step in what will be a collaborative effort across the industry to reimagine the datacenter based on the open business model of ARM innovation."

Only the third active licencee of Intel's x86 machine architecture, VIA Technology, is readying its first x86 processor in years, codenamed Isaiah II. This chip is based on a brand new 64-bit x86 core design by VIA and the engineering team it acquired from Centaur Technology, another erstwhile x86 licencee, and features modern instruction sets such as AVX 2.0. VIA began sampling a quad-core processor based on Isaiah II, which was put to live test by the company, at its InfoComm 2014 booth. It was compared to Intel's "Bay Trail" Atom and AMD's "Kabini" Athlon chips. It turns out that the Isaiah II is pretty good, if it comes out soon enough.

The Isaiah II based quad-core chip, featuring 2.00 GHz clock speeds, and 2 MB of L2 cache, was put through SANDRA. The BGA chip was running on a VIA-made motherboard, with its own VIA VX11H chipset. It was compared to AMD Athlon 5350 (quad-core "Jaguar" with 2.05 GHz clocks), and Intel Atom Z3770 (quad-core "Silvermont" with 2.40 GHz clocks). The results are tabulated below. At 2.00 GHz, armed with the latest multimedia and cryptography instruction-sets, VIA's chip is faster than Intel's in most tests, despite lower clocks. It trades blows - and wins - against AMD's chip, in most tests. VIA is expected to launch the first chips based on Isaiah II in late-August, 2014. VIA is hedging its bets with efficient compact PCs, kiosks, and digital signage, with its new chip.

Eurotech, a leading provider of embedded and supercomputing technologies, has teamed up with Applied Micro Circuits Corporation and NVIDIA to develop a new, original high performance computing (HPC) system architecture that combines extreme density and best-in-class energy efficiency. The new architecture is based on an innovative highly modular and scalable packaging concept.

Eurotech, which has years of significant experience in designing and manufacturing original HPC systems, has successfully developed an HPC systems architecture that optimizes the benefits of greater density, as well as the energy efficiency of ARM processors and high-performance GPU accelerators.

NVIDIA today announced that multiple server vendors are leveraging the performance of NVIDIA GPU accelerators to launch the world's first 64-bit ARM development systems for high performance computing (HPC).

ARM64 server processors were primarily designed for micro-servers and web servers because of their extreme energy efficiency. Now, they can tackle HPC-class workloads when paired with GPU accelerators using the NVIDIA CUDA 6.5 parallel programming platform, which supports 64-bit ARM processors.

GIGABYTE Technology, a leading creator of high performance server hardware, and Cavium, Inc. (NASDAQ: CAVM), a leading provider of semiconductor products that enable intelligent processing for enterprise, data center, cloud, wired and wireless networking, today announced a strategic partnership to deliver workload optimized server platforms based on Cavium's 64-bit ARMv8 ThunderX product family.

GIGABYTE's award winning product portfolio has been long recognized in the industry as a leader in design and innovation. With a broad offering of volume server platforms GIGABYTE has demonstrated engineering expertise in areas of system level integration of compute with I/O, large memory configurations and power optimization. With a world-wide presence GIGABYTE is uniquely positioned to accelerate the delivery and deployment of ThunderX based systems into cloud and data center.

Cavium, Inc., a leading provider of semiconductor products that enable intelligent processing for enterprise, data center, cloud, wired and wireless networking, today announced the introduction of a new game changing category of processors that are workload optimized for a range of applications in the cloud and data center. The 2.5GHz 48 core ThunderX is the world's highest performing low-power 64-bit ARMv8 SoC family of workload optimized processors with a range of SKUs and form factors for high performance volume compute, storage, secure compute and networking specific workloads.

Data center infrastructure transformation is one of the key trends driving IT spending in 2014 and beyond. Analysts predict that the global data center infrastructure market, including servers, storage, networking, security and virtualization, will reach $128 billion in 2014. Key trends driving this disruption include rapid adoption of Software as a Service (SaaS), Platform as a Service (PaaS), and Infrastructure as a Service (IaaS) enabled by Software Defined Data Center (SDDC) with virtualized on demand compute, Software Defined Networking (SDN) and Software Defined Storage (SDS). The continued growth and adoption of Open Source Software with almost 100 billion lines of code and nearly 10 million active developers is also radically changing installed base software requirements.

AMD today announced a roadmap of near- and mid-term computing solutions that harness the best characteristics of both the x86 and ARM ecosystems, called "ambidextrous computing." The cornerstone of this roadmap is the announcement of AMD's 64-bit ARM architecture license for the development of custom high-performance cores for high-growth markets. Today's announcement also provides a forward-looking glimpse into AMD's development plans to deliver truly unmatched ambidextrous computing and graphics performance using a shared, flexible infrastructure to enable its customers to blaze new paths of innovation for the embedded, server and client markets as well as semi-custom solutions.

"Before today, AMD was the only company in the world to deliver high performance and low-power x86 with leadership graphics. AMD now takes a bold step forward and has become the only company that can provide high-performance 64-bit ARM and x86 CPU cores paired with world-class graphics," said Rory Read, AMD president and CEO. "Our innovative ambidextrous design capability, combined with our portfolio of IP and expertise with high-performance SoCs, means that AMD is set to deliver ambidextrous solutions that enable our customers to change the world in more efficient and powerful ways."

Wish you could run one of those awesome Unreal Engine 4 tech demos on your own hardware instead of watching its lossy, pixellated video-grabs on YouTube? Well, now you can. Epic's "Elemental" tech demo for Unreal Engine 4 cropped up on the web, and we wasted no time in re-hosting it for you. The demo doesn't appear to be a public release, but something developers put together for demos to be run by Epic and its partners, only. To begin with, it doesn't come with an installer. You have to extract its files into a folder, and manually edit its settings INI file to specify resolution, window behaviour, and other settings. You then have to install VC++ 2013 runtime if you don't already have it (the redistributables are included in the archive), and then run the demo from the relevant batch file. Unreal included both 32-bit and 64-bit executables. When you're done drooling rainbows at the demo, only an Alt+F4 closes the thing down (there's no in-demo UI). There's no internal benchmark, and you're left to use third-party frame-rate loggers. These little issues aside, the demo sure makes Unreal Engine 4 look promising. We also added a collection of five other tech-demos for your viewing pleasure.DOWNLOAD: Unreal Engine 4 Elemental Demo (RAR archive) | Unreal Engine 4 Five Tech Demos

AMD today added a major new milestone to its list of seminal developments in server technology. The company displayed a comprehensive development platform for its first 64-bit ARM-based server CPU, fabricated using 28 nanometer process technology, the first from an established server vendor. AMD also announced the imminent sampling of the ARM-based processor, named the AMD Opteron A1100 Series, and a development platform, which includes an evaluation board and a comprehensive software suite. In addition, AMD announced that it would be contributing to the Open Compute Project a new micro-server design using the AMD Opteron A-Series, as part of the common slot architecture specification for motherboards dubbed "Group Hug."

The AMD Opteron A-Series processor, codenamed "Seattle," will sample this quarter along with a development platform that will make software design on the industry's premier ARM-based server CPU quick and easy. AMD is collaborating with industry leaders to enable a robust 64-bit software ecosystem for ARM-based designs from compilers and simulators to hypervisors, operating systems and application software, in order to address key workloads in Web-tier and storage data center environments. The AMD Opteron A-Series development platform will be supported by a broad set of tools and software including a standard UEFI boot and Linux environment based on the Fedora Project, a Red Hat-sponsored, community-driven Linux distribution.

NVIDIA's next-generation GPU architecture, codenamed "Maxwell," will debut this February, with the unexpectedly positioned GeForce GTX 750. The card will launch on February 18, to be specific. Maxwell will introduce a host of new features for NVIDIA, beginning with Unified Virtual Memory. The feature lets the GPU and CPU share the same memory. Such a feature is already implemented on the current CUDA, but Maxwell could be designed to reduce overhead involved in getting the thing to work. The next big feature is that Maxwell GPUs will embed a 64-bit ARM CPU core based on NVIDIA's "Project Denver." This CPU core will allow the GPU to reduce dependency on the system's main processor in certain GPGPU scenarios. Pole-vaulting the CPU's authority in certain scenarios could work to improve performance

Getting back to the GeForce GTX 750 Ti, NVIDIA's aim is simple, to see how "Maxwell" performs on the existing, proven 28 nanometer silicon fab process, before scaling it up on the future 20 nm nodes, with bigger chips. Given its name, we expect it to be positioned in between the GTX 760 and the GTX 660 in terms of gaming performance, but we won't be surprised if it falls into an entirely different league with GPGPU. There are no specifications at hand.

AMD announced its 2014 A-Series APU for the desktop platform, code-named "Kaveri," after the southern-Indian river. Built in the new FM2+ package, the APUs run only on socket FM2+ motherboards based on the AMD A88X, A78, and A55 chipsets; while the socket itself can seat older FM2 APU families, "Trinity" and "Richland." In many ways, the socket transition is similar to that of socket AM3+. "Kaveri" sees AMD integrate two of its newest CPU and GPU micro-architectures, "Steamroller" for CPU, and Graphics CoreNext 2.0 for the GPU. "Kaveri" is also built on newer generation 28 nm silicon fab process.

"Steamroller" is an evolution of the same modular CPU core design as its predecessors, "Piledriver" and "Bulldozer." AMD promises a 10 percent improvement in performance clock-by-clock, per core, which falls in line with AMD's normal scheme of annual incremental performance updates on its CPU micro-architectures. A "Steamroller" module is a combination of two 64-bit x86 cores, which feature dedicated and shared components. "Kaveri" has two such modules, and so physically, it features a quad-core CPU.