The Scalable Coherent Interface and Related Standards Projects* David B
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802.11 B/G/N Standalone Wi-Fi + BLE 4.1Module with Integrated Antenna
Product Brief AVIC 802.11 b/g/n Standalone Wi-Fi + BLE 4.1Module with Integrated Antenna Description AVIC is a highly integrated low power single-stream (1x1) IEEE 802.11 b/g/n standalone Wi-Fi + BLE 4.1 Module. This highly tuned certified Module integrates crystals, flash and antenna for easy hardware design. This feature-rich Module using Qualcomm QCA4010 and CSR 8811 SoCs are specially designed for various verticals of Internet of Things (IoT) like Smart Home, Industrial IoT, Smart Retail and Smart City. The AVIC Module includes a suite of communication protocols including HTTP, IPv4v6, TCP, SSL 3.0, TLS1.0, TLS1.1, TLS1.2, DHCP, ICMP, IGMP, MQTT, mDNS and DNS, as well as support for multiple cloud agents like AWS and Azure. Size: 16 mm x 20 mm x 2.1 mm AVIC with integrated low power MCU, it is designed to answer manufacturer demand for easy integration, low power with Applications advanced features while minimizing size, cost and power consumption. This low power highly secure Module with its Smart Home sensor networks integrated security engine is suitable for battery powered portable Smart city sensor networks wireless applications. High performance HID controllers Internet of Things (IoT) sensor networks Smart door locks Features Smart lighting networks Industry-leading single stream IEEE 802.11bgn Wi-Fi and Connected white goods Bluetooth Low Energy (BLE) v4.1 connectivity solution Integrated on-chip application processor and user memory (800 KB) Data rate up to 72.2 Mbps MCS7 HT20 Block Diagram UART, SPI, I2C, I2S, -
SIS4100 VME to FASTBUS Interface User Manual
SIS Documentation SIS4100 FASTBUS Master SIS4100 VME to FASTBUS Interface User Manual SIS GmbH Moorhof 2d 22399 Hamburg Germany Phone: ++49 (0) 40 60 87 305 0 Fax: ++49 (0) 40 60 87 305 20 email: [email protected] http://www.struck.de Version: 1.01 as of 27.07.99 Page 1 of 57 SIS Documentation SIS4100 FASTBUS Master Revision Date Modification 0.1 01.02.99 Generation 1.0 26.07.99 First official release 1.01 27.07.99 some additions Copyright note: You are welcome to copy or reproduce this manual in part or whole as long as SIS GmbH is clearly indicated as originator (by the SIS GmbH FASTBUS icon on the top of the page e.g.). Page 2 of 57 SIS Documentation SIS4100 FASTBUS Master Table of contents 1 Introduction..................................................................................................................................................... 5 2 NGF Working Principle .................................................................................................................................. 6 3 Design ............................................................................................................................................................. 7 3.1 Features ................................................................................................................................................... 7 3.2 Mechanical concept................................................................................................................................. 7 3.3 VME properties...................................................................................................................................... -
Publication Title 1-1962
publication_title print_identifier online_identifier publisher_name date_monograph_published_print 1-1962 - AIEE General Principles Upon Which Temperature 978-1-5044-0149-4 IEEE 1962 Limits Are Based in the rating of Electric Equipment 1-1969 - IEEE General Priniciples for Temperature Limits in the 978-1-5044-0150-0 IEEE 1968 Rating of Electric Equipment 1-1986 - IEEE Standard General Principles for Temperature Limits in the Rating of Electric Equipment and for the 978-0-7381-2985-3 IEEE 1986 Evaluation of Electrical Insulation 1-2000 - IEEE Recommended Practice - General Principles for Temperature Limits in the Rating of Electrical Equipment and 978-0-7381-2717-0 IEEE 2001 for the Evaluation of Electrical Insulation 100-2000 - The Authoritative Dictionary of IEEE Standards 978-0-7381-2601-2 IEEE 2000 Terms, Seventh Edition 1000-1987 - An American National Standard IEEE Standard for 0-7381-4593-9 IEEE 1988 Mechanical Core Specifications for Microcomputers 1000-1987 - IEEE Standard for an 8-Bit Backplane Interface: 978-0-7381-2756-9 IEEE 1988 STEbus 1001-1988 - IEEE Guide for Interfacing Dispersed Storage and 0-7381-4134-8 IEEE 1989 Generation Facilities With Electric Utility Systems 1002-1987 - IEEE Standard Taxonomy for Software Engineering 0-7381-0399-3 IEEE 1987 Standards 1003.0-1995 - Guide to the POSIX(R) Open System 978-0-7381-3138-2 IEEE 1994 Environment (OSE) 1003.1, 2004 Edition - IEEE Standard for Information Technology - Portable Operating System Interface (POSIX(R)) - 978-0-7381-4040-7 IEEE 2004 Base Definitions 1003.1, 2013 -
JTAG Controller Board Specification
JTAG Controller Board Specification Rice University April 27, 2011 Introduction The board is intended for evaluation of the National Semiconductor JTAG 1149.1. SCANSTA101 System Test Access Master [1]. Its block diagram is shown on Fig.1. The board is build as a VME A24D16 Slave; the dimensions are 6U x 160 mm. The VME interface circuitry is implemented in the Xilinx XCR3128 CPLD. The SCANSTA101 Master provides JTAG access to external devices via two front panel connectors. One 14-pin connector is compatible with the Xilinx JTAG cable (LVTTL levels), and another 16-pin connector is compatible with the JTAG cable for the CSC EMU Trigger Motherboard [2] (LVDS levels). Fig.1: Block Diagram of the JTAG Controller Board 1. SCANSTA101 JTAG Master The SCANSTA101 is designed to function as a test master for the IEEE 1149.1 boundary scan test system. It is an enhanced version, and a replacement for, the SCANPSC100 device. The interface from the SCANSTA101 to the system processor (VME bus master, in our case) is implemented by reading and writing registers, some of which map to locations in the SCANSTA101 memory. Hardware handshaking and interrupt lines are provided as part of the processor interface. The block diagram of the device is shown in Fig.2. The external JTAG slave devices are connected via the front panel connectors. These may be any JTAG- compatible FPGA, programmable memories and others. The internal Test and Debug Interface Port (Fig.2) is not used, although its inputs and outputs are available on the board as a test points. -
Overview of Xilinx JTAG Programming Cables and Reference Schematics for Legacy
R Overview of Xilinx JTAG Programming Cables and Reference Schematics for Legacy XTP029 (v1.0) March 28, 2008 Parallel Cable III (PC3) Summary This technical publication provides an overview of Xilinx JTAG Cables and a reference schematic for the legacy Xilinx Parallel Cable III product (PC3) for educational use. Description Xilinx offers the Hi-Speed Platform Cable USB (PCUSB) and the Parallel Cable IV (PC4) cables. The PC4 cable supports both the IEEE 1284 parallel port interface and IEEE STD 1149.1 (JTAG) standards for in-system programming or embedded debug. These cables are more thoroughly described in the “Overview of Xilinx JTAG Solutions.” For reference purposes, the PC3 product schematic is also provided in this document. Note: The PC3 cable product has been discontinued and replaced by PCUSB and PC4. Both the PCUSB and PC4 cables have expanded capabilities, superior download performance, and robust immunity to system interface sensitivities when compared to the legacy PC3 cable. The PC3 product was first introduced in 1998 and then discontinued in 2002. Software support for PC3 was removed starting in March 2008 with the 10.1 release of Xilinx iMPACT software. Versions of iMPACT software after 10.1 release do not support the PC3 cable. See “Notice of Disclaimer” regarding warranty and support of the PC3 schematic information. Overview of Xilinx recommends the Platform Cable USB (PCUSB) or Parallel Cable IV (PC4) for new Xilinx JTAG designs. The PCUSB and PC4 offer reliable operation, higher speed download, voltage support down to 1.5V, keyed ribbon cable connector for error-free insertion, and improved ground/signal Solutions integrity. -
JTAG Advanced Capabilities and System Design
SCANSTA101,SCANSTA111,SCANSTA112, SCANSTA476 JTAG Advanced Capabilities and System Design Literature Number: SNLA211 SIGNAL PATH designer® Tips, tricks, and techniques from the analog signal-path experts No. 117 JTAG Advanced Capabilities Feature Article ............... 1-6 and System Design Comms Applications .........2 — By David Morrill, Principal Applications Engineer he JTAG bus, originally intended for board-level manufacturing test, has evolved into a multipurpose bus also used for In-System Program- Tming (ISP) of FPGAs, FLASH, and processor emulation. Th is article’s intent is to provide a brief overview of JTAG. Several system-level design options will be proposed, from the simplest board-level JTAG chain through a complex embedded multidrop system. Finally, an appendix is included that contains some useful defi nitions. Overview: What is JTAG? Th e Joint Test Action Group (JTAG) is an industry group formed in 1985 to develop a method to test populated circuit boards after manufacture. Th e group’s work resulted in the IEEE 1149.1 standard entitled Standard Test Access Port and Boundary-Scan Architecture. Th e terms 1149.1, JTAG, “dot 1”, and SCAN all refer to the same thing, the IEEE 1149.1 Standard for Boundary Scan Test. What is JTAG and what does it do? 1) It is a serial test bus. 2) It adds a Test Access Port (TAP) consisting of four pins to an IC (fi ve with optional RESET) as shown in Figure 1. – TDI (Test Data In) – TDO (Test Data Out) – TCK (Test Clock) – TMS (Test Mode Select) – TRST (Test Reset) JTAG provides access to interconnected digital cells on an IC: 1) with a method of access for test and diagnostics and the – ability to do factory and remote testing and diagnostics, – ability to perform software debug, and – reduce “No-Fault-Found” problems 2) with a method for in-circuit upgrades and the – ability to remotely perform system-wide fi rmware upgrades High Effi ciency. -
Uc1394a Carrier Product Overview
UC1394a Carrier product overview UC1394a Carrier Highly flexible ultra-compact© carrier board with FPGA, IEEE 1394 (FireWire®) + USB interfacing and various I/O Key features Customer benefits ® © Hardware: · micro-line and ultra-compact boards offer the opportunity to directly reduce time to · Highly flexible carrier board for the ultra- © market compact multi chip module (MCM) family ® © ® · micro-line and ultra-compact boards · micro-line bus compatibility allows direct maximize software creativity and minimize connection between micro-line® and ultra- © high density and sensitive high frequency compact products hardware design · Capable to carry UC1394a-1, UC1394a-2 ® © © · micro-line and ultra-compact boards are and further ultra-compact daughter multi the perfect target hardware for system chip modules development, prototyping and volume · User programmable Xilinx SPARTAN II production FPGA with 50 kGates enables various I/O · overall shorter design and system cycles interface- or test pattern- realization for the © ® dramatically reduce development costs ultra-compact -or the micro-line -bus ® © · micro-line and ultra-compact boards are · Onboard FPGA booting Flash with various manufactured according to ISO 9002:2000 available standard FPGA solutions also · CE-qualification ensures first-class product allow to run the system without additional performance and industrial quality FPGA design effort · Attractive quantity pricing · Equipped with interface connectors for IEEE 1394 (FireWire®), USB 1.1 (slave), RS232 and 4 channel analog -
Dataman 48Pro Specification
Dataman 48Pro www.dataman.com • Universal 48 pin ZIF socket accepts both 300/600 mil DIP devices up to 48 pin • Intelligent pin drivers allow varying voltages to be applied to any pin delivering signals without overshoot, increasing The Dataman 48Pro is a universal 48pin driver, PC based programmer programming yield with ISP capabilities with USB 2.0 and parallel connectivity. The 48Pro is built to meet the demands of development labs and field engineers • Pin drivers operate for universal programming. down to 1.8V so you'll Supporting over 22,000 devices with new support being added monthly, be ready to program the Dataman 48Pro can program without the need for a family-specific the full range of module, giving you the freedom to choose the optimal device for your design. Using the built-in, in-circuit serial programming (ISP) connector, tomorrow’s advanced the programmer is able to program ISP compatible chips in circuit. low-voltage devices • ISP capable using the Hardware General JTAG interface • FPGA based totally reconfigurable 48 powerful TTL pindrivers provide H/L/pull_up/pull_down and read capability for each pin of the socket. Advanced pindrivers incorporate high-quality high-speed circuitry to • Multiprogramming deliver signals without overshoot or ground bounce for all supported devices. Pin drivers operate down to 1.8V so you'll be ready to program the full range of today's advanced low-voltage devices support allows one PC • The programmer performs device insertion tests and contact checks before device programming. These to control up to eight capabilities, supported by overcurrent protection and signature-byte check help prevent chip damage due to operator error units programming • Built-in protection circuits eliminates damage to programmer and/or device due to environment or independently or as a operator failure. -
FASTBUS SOFTWARE WORKSHOP Geneva, 23 and 24 September
CERN 85-15 4 November 1985 Data Handling Division ORGANISATION EUROPÉENNE POUR LA RECHERCHE NUCLÉAIRE CERN EUROPEAN ORGANIZATION FOR NUCLEAR RESEARCH FASTBUS SOFTWARE WORKSHOP Geneva, 23 and 24 September 1985 PROCEEDINGS GENBVA 1985 © Copyright CERN, Genève, 1985 Propriété littéraire et scientifique réservée pour Literary and scientific copyrights reserved in ail tous les pays du monde. Ce document ne peut countries of the world. This report, or any part of être reproduit ou traduit en tout ou en partie sans it, may not be reprinted or translated without l'autorisation écrite du Directeur général du written permission of the copyright holder, the CERN, titulaire du droit d'auteur. Dans les cas Director-General of CERN. However, permission appropriés, et s'il s'agit d'utiliser le document à will be freely granted for appropriate non• des fins non commerciales, cette autorisation commercial use. sera volontiers accordée. If any patentable invention or registrable design Le CERN ne revendique pas la propriété des is described in the report, CERN makes no claim inventions brevetables et dessins ou modèles to property rights in it but offers it for the free use susceptibles de dépôt qui pourraient être décrits of research institutions, manufacturers and dans le présent document; ceux-ci peuvent être others. CERN, however, may oppose any attempt librement utilisés par les instituts de recherche, by a user to claim any proprietary or patent rights les industriels et autres intéressés. Cependant, le in such inventions or designs as may be des• CERN se réserve le droit de s'opposer à toute cribed in the present document. -
Force CPCI-680 Manual (Pdf)
Full-service, independent repair center -~ ARTISAN® with experienced engineers and technicians on staff. TECHNOLOGY GROUP ~I We buy your excess, underutilized, and idle equipment along with credit for buybacks and trade-ins. Custom engineering Your definitive source so your equipment works exactly as you specify. for quality pre-owned • Critical and expedited services • Leasing / Rentals/ Demos equipment. • In stock/ Ready-to-ship • !TAR-certified secure asset solutions Expert team I Trust guarantee I 100% satisfaction Artisan Technology Group (217) 352-9330 | [email protected] | artisantg.com All trademarks, brand names, and brands appearing herein are the property o f their respective owners. Find the Emerson / Motorola / Force Computers cPCI-680 at our website: Click HERE PPC/PowerCoreCPCI-680 Reference Guide P/N 214452 Revision AB September 2001 Copyright The information in this publication is subject to change without notice. Force Computers, GmbH reserves the right to make changes without notice to this, or any of its products, to improve reliability, performance, or design. Force Computers, GmbH shall not be liable for technical or editorial errors or omissions contained herein, nor for indirect, special, incidental, or consequential damages resulting from the furnishing, performance, or use of this material. This information is pro- vided “as is” and Force Computers, GmbH expressly disclaims any and all warranties, express, implied, statutory, or otherwise, including without limitation, any express, statutory, or implied warranty of merchantability, fitness for a particular purpose, or non-infringement. This publication contains information protected by copyright. This publication shall not be reproduced, transmitted, or stored in a retrieval system, nor its contents used for any purpose, without the prior written consent of Force Computers, GmbH. -
Microtca.4 at SIRIUS and a CLOSER LOOK INTO the COMMUNITY
8th Int. Beam Instrum. Conf. IBIC2019, Malmö, Sweden JACoW Publishing ISBN: 978-3-95450-204-2 ISSN: 2673-5350 doi:10.18429/JACoW-IBIC2019-WEBO02 MicroTCA.4 AT SIRIUS AND A CLOSER LOOK INTO THE COMMUNITY D. O. Tavares∗, G. B. M. Bruno, S. R. Marques, L. M. Russo, H. A. Silva, LNLS, Campinas, Brazil Abstract light source facilities and demonstrators of the ILC technolo- More and more facilities have been adopting MicroTCA.4 gies, DESY soon took a prominent role in the development as the standard for new electronics. Despite the advertised of ATCA and MicroTCA standard extensions for physics. advantages in terms of system manageability, high availabil- An evaluation campaign for both standards was launched ity, backplane performance and supply of high quality COTS around 2007 [5] and reported on 2009 [6, 7], with ATCA- modules by industry, the standard still lacks a greater accep- based LLRF demonstration and an AMC timing receiver tance in the accelerators community. This paper reports on developed in collaboration with the University of Stockholm. the deployment of MicroTCA.4 systems at Sirius light source, In the following years MicroTCA.4 was fully embraced by which comprised the development and manufacturing of sev- FLASH and European XFEL projects. More recently, an eral open hardware modules, development of a generic gate- R&D and technology transfer center has been established, ware/software framework and re-implementation of MMC the MicroTCA Technology Lab [8]. IPMI firmware as an open source project. A special focus will be given to the difficulties found, unforeseen expansions CURRENT STATUS of the system and general architectural aspects. -
MTCA.4 Backplane Architecture
MicroTCA.4 /4.1 Hardware Standards & Software Guidelines Progress Overview Ray Larsen SLAC National Accelerator Laboratory for the xTCA for Physics Collaboration TIPP’17Beijing PRC May 26, 2017 May 22-26 2017 TIPP’17 Beijing R. Larsen 1 Standard Platforms for Physics • Major Goals: Interoperable HW-SW components – 1. Interoperable HW-SW platform essentials, software diagnostics, interfaces – Lab users & Industry Collaboration to share, save on development costs – Speed “time to market”, lower costs by commercial availability, avoid 1-supplier traps (incl. custom lab sol’n) – Avoid dependence on vendor proprietary solution – Adaptable to new technology needs for >/= 2 decades TIPP’17 Beijing R. Larsen May 22-26 2017 2 Physics Standards History • Standards driven by new innovations for economic, performance advantages • Lab-Developed Standards Timeline – 50 Years ago, ~1965, NIM, Nuclear Instrument Module – 40 Years ago, ~1975, CAMAC Data bus modules – 30 Years ago, ~1985, FASTBUS 10X BW bidirectional – 12+ Years ago, ~2004, ATCA, MTCA announced • Multi-GHz serial technology backplane • Redundancy for 0.99999 Availability at Shelf (Crate) level • Intelligent Platform Management Interface (IPMI) – 7+ Years ago- 2009 MTCA.4 HW, SW WG’s begin TIPP’17 Beijing R. Larsen May 22-26 2017 3 Physics Standards Timeline MTCA.4.1, SW SDM, SPM ‘17 107-11 76-9 MTCA.4.1, SW HP, SHAPI ‘16 5-56 ATCA 3.8, MTCA.4 ’10,11 ATCA ‘04 4 3 FASTBUS ‘85 2 CAMAC ‘75 1 NIM ‘65 0 1940 1960 1980 2000 2020 TIPP’17 Beijing R. Larsen May 22-26 2017 4 Physics Standards History