Synonyms for microtca or Related words with microtca

advancedtca              atca              compactpci              picmg              cpci              versamodule              xenpak              eurodocsis              pxie              qsfp              intermateability              spacewire              pigmg              globalplatform              eurocard              jpca              xfp              advancedmc              advancedmcs              compacttca              lonworks              pmbus              ncits              subrack              xlaui              gbic              telcordia              gothiatek              zhaga              cxp              minipci              xpak              ieeee              fakra              unipro              nessi              aingr              caui              futurebus              jesd              hiperaccess              synche              fdmi              xenpack              homepna              canopen              flexray              multibus              bellcore              knx             



Examples of "microtca"
Versions of MicroTCA with fewer AdvancedMC card slots are informally known as "NanoTCA" and "PicoTCA".
The AdvancedMC card is considered powerful enough that there are situations where the processing functionality is the only requirement. The MicroTCA standard is targeted at supplying a COTS chassis that will allow AMC cards to function without any AdvancedTCA carrier card. The function of the ATCA carrier board and of the ATCA shelf manager are concentrated on one board, which is called the MicroTCA Carrier Hub (MCH). On July 6, 2006 MicroTCA R1.0 was approved. Since this approval, companies like Advantech, Kontron, N.A.T., Annapolis Micro Systems, VadaTech, and others, have launched AMC and MCH products.
High availability systems (AdvancedTCA, MicroTCA) use 2-way redundant I²C for shelf management. Multi-master I²C capability is a requirement in these systems.
The HPI to xTCA Mapping Specification serves two audiences. The first consists of platform developers who want to incorporate an HPI interface into an AdvancedTCA or MicroTCA platform. The specification provides a template for modeling the systems.
In February 2010, Buzzinbees announced its collaboration with PT on a messaging server: Bee-IRON. The Bee-IRON platform is a flagship product from Buzzinbees which can deliver and route 2,500 SMS per second in a single node. It complements PT's MicroTCA server.
This PICMG specification provides a framework for combining AdvancedMC modules directly, without the need for an AdvancedTCA or custom carrier. MicroTCA is aimed at smaller equipment – such as wireless base stations, Wi-Fi and WiMAX radios, and VoIP access gateways where small physical size low entry cost, and scalability are key requirements.
From 2002 onwards, several updates to the HPI specification have been published. Additionally, specifications for accessing an HPI implementation via Simple Network Management Protocol(SNMP) and specifications describing the use of HPI on AdvancedTCA and MicroTCA platforms have been produced. Table 1 lists all specifications published by the SA Forum in the HPI family.
Elma enclosures are centered on 19” and 23” Eurocard specification, primarily for VME/ VME64x, CompactPCI, VXS/VPX, VXI/PXI, AdvancedTCA/MicroTCA and other architectures. Elma supplies these products either pre-assembled or un-assembled. Elma is currently an Executive Member of the PICMG consortium
These platforms are built on PT's hardware combined with PT's NexusWare Carrier Grade Linux operating system, enabling a range of IP (Internet protocol)-interworking in data acquisition, sensor, radar, and control applications for aviation, weather, and other infrastructure networks. PT's Monterey 8000 platform is the newest Monterey MicroTCA products.
Based on industry-managed standards such as AdvancedTCA, MicroTCA, Carrier Grade Linux and Service Availability Forum specifications, communications servers are the foundational platform upon which equipment providers build network infrastructure elements for deployments such as IP Multimedia Subsystem (IMS), IPTV and wireless broadband (e.g. WiMAX).
Hybricon Corporation is a provider of systems packaging solutions serving the Military, Aerospace, Homeland Security, Medical and high-end Industrial markets and develops embedded computing systems and solutions for war fighter critical missions using OpenVPX, VPX, VXS, VMEbus, VME64X, CompactPCI, Rugged MicroTCA, and custom bus structures.
The Surf engine is an off-the-shelf fully converged audio/video media processing subsystem that integrates easily into media gateways and servers. It is available in various integration levels, such as AdvancedMC, PMC/PTMC, PCIe and PCI form factor resource boards or DSP chips, which are pre-integrated with leading AdvancedTCA, MicroTCA and CPCI carrier boards and blades.
A primary motivator for the development of the HPI specification was the emergence of modular computer hardware platforms and commercial off the shelf (COTS) systems in the late 1990s and early 2000s. This included CompactPCI platforms and, later, the AdvancedTCA and MicroTCA(xTCA) platforms standardized by the PCI Industrial Computer Manufacturers Group (PICMG). These platforms include hardware management infrastructures based on the Intelligent Platform Management Interface (IPMI). Concurrently, major Enterprise vendors such as HP and IBM also developed modular and bladed systems.
Advanced Mezzanine Cards are printed circuit boards (PCBs) that follow a specification of the PCI Industrial Computers Manufacturers Group (PICMG), with more than 100 companies participating. Known as AdvancedMC, the official specification designation is AMC."x" (see below). AdvancedMC is targeted to requirements for the next generation of "carrier grade" communications equipment. This series of specifications are designed to work on any carrier card (primarily AdvancedTCA) but also to plug into a backplane directly as defined by MicroTCA specification.
Because HPI is widely used on AdvancedTCA systems, the SA Forum published a Mapping Specification, labeled SAIM-HPI-B.01.01-ATCA in January 2006. The purpose of this specification is to provide guidance to implementers of HPI management interfaces on a recommended way to model this complex system architecture with HPI. In February 2010 a new mapping specification, SAIM-HPI-B.03.02-xTCA was published that revises this mapping and extends it to MicroTCA systems.
Elma Electronic is a publicly traded Swiss electronics company founded in 1960 and based in Wetzikon, Switzerland. The company has 5 product divisions: Systems Platforms, Backplanes, Enclosures & Components, Rotary Switches, and Cabinet Enclosures. The largest segment is systems packaging solutions serving the military, aerospace, homeland security, medical and industrial markets. The Elma Bustronic division develops backplanes, including VME320, which was the world's fastest VME backplane in 1997. Elma Bustronic also develops backplanes in OpenVPX, VMEbus, VME64X, CompactPCI, MicroTCA, and custom bus structures. Elma is an executive member of the PCI Industrial Computer Manufacturers Group (PICMG), VME International Trade Association, and member of the OpenVPX Industry Working Standards Group.
Devices with this new functionality were first demonstrated in late 2007 and early 2008. One of the first such devices was Lime Microsystems microTCA Broadband transceiver, demonstrated at Mobile World Congress in February 2008. This had a frequency range of 350MHz to 4GHz and was suited to WiMax. FPRF designs have subsequently emerged from a range of companies and, to date, the most flexible FPRF currently on the market delivers 300 MHz to 3.8 GHz and allows operation on a range of standards, including FDD-LTE, TDD-LTE, W-CDMA, CDMA-2000 and HSDPA+ and WiMAX.
EPICS interfaces to the real world with IOCs (Input Output Controllers) . These are either stock-standard PCs, VME, or MicroTCA standard embedded system processors that manage a variety of "plug and play" modules (GPIB, RS-232, IP Carrier etc.) which interface to control system instruments (oscilloscopes, network analyzers) and devices (motors, thermocouples, switches, etc.). Some instruments also can come with EPICS already embedded within them, like certain Oscilloscopes . The IOC holds and runs a database of 'records' which represent either devices or aspects of the devices to be controlled. IOC software used for hard-real-time normally use RTEMS or VxWorks, though work has been ongoing in porting to other systems. Soft real-time IOC software sometimes runs on Linux or Microsoft Windows based machines.
The second audience consists of HPI users that wish to create portable application or middleware programs across multiple AdvancedTCA or MicroTCA platforms. However, HPI users that wish to provide portable programs for both xTCA and other hardware platform architectures do not necessarily need to reference the HPI to xTCA Mapping Specification. This is because HPI implementations that follow the HPI to xTCA Mapping Specification will present basic platform management capabilities in a way that is discoverable and usable via the standard HPI interface. Some platform management capabilities that are unique to xTCA platforms are not usable without referencing the Mapping Specification, but these may be reasonably ignored by most general purpose HPI user applications.
AdvancedMC and MicroTCA specifications. An Upgrade Agent (Ex:ipmitool) upgrades firmware via any IPMI interfaces (IPMB-0 or IPMB-L, LAN, UART or any Shelf-Carrier Manager).The specification also describes format of upgrade image. The upgrade image can contain one or more than one component's firmware. The upgrade agent upgrades the component's firmware one by one. The IPM controller can have more than one component (U-Boot, Linux, rfs, FPGA, etc.). The firmware upgrade procedure contains three stages (Preparation Stage, Upgrade Stage, and Activation Stage). In preparation stage Upgrade Agent gets target capabilities and all component properties. Then it compares this information with Upgrade image. If there is a mismatch, Upgrade Agent abandons the firmware upgrade. Otherwise it moves into Upgrade stage. In Upgrade stage upgrade agent sends all components firmware one by one. After successfully receiving the firmware, IPM controller waits for activation. In Activation stage Upgrade Agent activates newly uploaded firmware. If self-test is supported by IPM controller, then it is invoked. If self-test fails, IPM controller automatically rolls back to previous firmware. If IPM controller does not support automatic roll back, operator or Upgrade Agent has to initiate the manual roll back.