EmbPower Provides Nvidia Tegra K1 RTX Modules, Carrier Boards, and Industrial Computers

EmbPower is a Taiwanese company that first focused on graphic cards, but has since then also developed other solutions requiring high GPU performance for military & aerospace applications as well as medical equipment. One of these products is TK1 Carrier Board with TK1 SoM powered by Nvidia Tegra K1 quad core processor, that can be encapsulated into TK1 PowerUnit industrial computer. There are actually two TK1 carrier boards: the larger V1.2 with more ports and features, and the smaller V2.0 that is used in TK1 PowerUnit Box, but they share most of the same (preliminary) specifications: SoC – Nvidia Tegra K1 quad core ARM Cotax-A15 processor with Nvidia Kepler 192-core GPU System Memory – 2GB DDR3 @ 933 MHz Storage – 16GB eMMC flash and SPI serial flash. V2.0 only: Adds micro SD slot; V1.2 only: Adds SD slot and SATA Connectivity – Gigabit Ethernet; optional 802.11ac and Bluetooth 4.0 Display / Video Output HDMI and optional LVDS port V1.2 …

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Atmel SAM S70 and SAM E70 Cortex M7 MCUs, SAM V71 Xplained Board Are Now Shipping

ARM Introduced Cortex M7 IP in September, and ST Micro simultaneously announced its STM32F7 Cortex M7 MCU clocked up to 200 MHz, and boards are now available, including some running Linux. But two other companies have licenses Cortex M7, Freescale with its Kinetis KV5x micro-controllers which are yet to be mass-produced, and Atmel which has recently announced their SAM S70 and E70 micro-controllers are now in mass production. SAM E70 and S70 have similar features, but E70 offers some extra interface like CAN and Fast Ethernet: ARM Cortex-M7 core running at up to 300MHz (1500 CoreMark) Up to 2MB Flash and 384kByte SRAM Floating point unit (FPU) for high-precision computing and accelerated data processing High-performance internal memory architecture with user configurable Tightly Couples Memories and System memory, and 16kB I and D-cache High Speed USB Host and Device with on-chip high-speed PHY CMOS image sensor interface AES hardware encryption engines, TRNG and SHA-based memory integrity checker Advanced analog front end …

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ARM TechCon 2013 Schedule – ARM Servers, Internet of Things, Multicore, Hardware and Software Optimization and More

ARM Technology Conference (TechCon) 2013 will take place on October 29 – 31, 2013, in Santa Clara, and the detailed schedule for the event has just been made available. In the previous years, the conference was divided into  Chip Designs day (1 day), and the other 2 days were reserved for Software & System Design, but this year it does not appear to be the case. Whether you’ll be able to attend the event or not, it’s worth having a look at what will be discussed there in order to have a better understanding of what will be the key ARM developments in the near future in terms of hardware and software. There will be around 90 sessions categorized into 15 tracks: Accelerating Hardware Development – This track explores the resources, tools, and techniques that designers can employ to quickly bring hardware to market. Topics include multicore design, ARM IP, chip buses, analog integration, simulation, FPGA prototyping, design synthesis, debugging …

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Keil RTX RTOS is Now Available for Energy Micro EFM32 MCUs

Energy Micro has recently announced the availability of the Keil RTX real-time operating system (RTOS) as part of its Simplicity Studio tool suite. The Keil RTX has been optimized for ARM Cortex-M processors to provide flexible scheduling and high-speed operation, and has been improved to enable an ultra-low power, deep-sleep mode between tasks. Energy Micro has implemented a tickless mode in Keil RTX. This mode allows the EFM32 Cortex M3 MCUs to wake up only when needed, either at a scheduled time or on an interrupt event. This results in much lower power consumption in sleep mode compared to other SysTick implementations. The video below shows the difference between SYSTICK mode where the system consumes about 2.7mA in active mode, and 830 uA in sleep mode to the new tickless mode where the MCU still consume the same amount of energy in Active mode, but only 1uA in sleep mode, or in other words, an 830x improvement in power consumption. …

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