DOCSLIB.ORG

10Mb/S Extended Reach Single Twisted Pair Ethernet PHY Call for Interest

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
10Mb/S Extended Reach Single Twisted Pair Ethernet PHY Call for Interest 10Mb/s Extended Reach Single Twisted Pair Ethernet PHY Call for Interest IEEE 802.3 Ethernet Working Group 1 CFI Panel Members Chair and Presenter: Supporters and experts for the Question and Answer session 2 Supporters - Page 1 3 Supporters - Page 2 4 CFI Objective . To gauge the interest in starting a Study Group for: 10Mb/s Extended Reach Single Twisted Pair Ethernet PHY . This meeting will NOT: . Fully explore the problem . Debate strengths and weaknesses of solutions . Choose a solution . Create a PAR or 5 Criteria . Create a standard or specification 5 Agenda . Industrial Networking Market Need . Industrial Networking Solution Requirements . Target Markets . Market Potential . Technical Feasibility . CFI Proposal . Q&A . Straw Polls 6 Industrial Networking Market Need 7 Industrial Automation Landscape Factory . Factory Automation Automation . Discrete units of output (Discrete) . Rapid operations . Process Automation . Continuous output . Expansive applications Batch . Often hazardous Automation (Hybrid) . Batch Automation . Batch output Process . Combination of both Automation continuous and discrete (Continuous) 8 Ethernet Conversion Gap in Industrial Networking . Ethernet is propagating . Desire to converge on one network type . Non-Ethernet fieldbuses still required to complete communications to the edge . Challenges: Cost, reach, special environments Credit: Dr. Raimund Sommer, Endress + Hauser, ODVA Industry Conference, Oct. 2014. Ethernet Gap 9 Too Many Fieldbus Variants Partial list… . Big challenges for end users Process Discrete . Labor skills FOUNDATION PROFIBUS DP . Installation complexity Fieldbus H1 PROFIBUS PA DeviceNet . Maintenance complexity HART CANOpen . Interoperation issues Modbus CC-Link Many Ethernet Variant Application INTERBUS EtherNet/IP Gateways PROFINET CompoNet FF HSE AS-Interface Modbus TCP HART-IP IO-Link Fieldbus 10 Cannot Meet New Application Needs: Higher Rates from the Edge . IIoT, Big Data, and Analytics . Embedded web servers . High-speed data logging . Installation and . Production details, equipment maintenance conditions, environment state, energy consumption,… . Optimization, maintenance, . Video safety, compliance,… . Reduced footsteps . Safety . Product quality sensor . Security 11 Industrial Networking Solution Requirements: Why 10Mb/s Extended Reach Single Twisted Pair Ethernet PHY? 12 Why Ethernet to the Edge? . Single network paradigm . Contemporary features . Leverages of economy of scale . Security . Reduces complex gateways . Embedded web servers . More rapid commissioning . No dongles or special apps . More rapid fault diagnosis and repair . Larger pool of talent to install and manage 13 Why 10Mb/s and Extended Reach? Fieldbus Longest Reach Highest Rate . Common fieldbuses PROFIBUS DP 9.6kb/s @ 1200m 12Mb/s @ 100m reach 400-5000m CANopen 10kb/s @ 5000m 1Mb/s @ 20m . 1200m believed to address most fieldbus Modbus RTU 100kb/s @ 1200m 2Mb/s @ 50m applications CC-Link 156kb/s @ 1200m 10Mb/s @ 100m 1200 baud @ 1524m (24AWG) HART No enhanced rate . Common fieldbuses 1200 baud @ 3048m have rates up to 12Mb/s (20AWG) DeviceNet 125kb/s @ 500m 500kb/s @ 100m . 10Mb/s addresses most fieldbus applications ControlNet 5Mb/s @ 1000m No enhanced rate INTERBUS 500kb/s @ 400m No enhanced rate . Enables a standard MAC FOUNDATION H1 31.25kb/s @ 1900m No enhanced rate PROFIBUS PA 31.25kb/s @ 1900m No enhanced rate 14 Why Single Twisted Pair? . Many applications run for Fieldbus Cable Type Cable Power decades and upgrade multiple times FOUNDATION H1 FF-844 specified Yes . Lengthy fieldbus cables are HART Various Yes expensive to run (often in conduit) PROFIBUS PA IEC 61158 Type A* Yes . End nodes are easy to replace 4-20mA SP-50 instrumentation cable Yes Cable Reuse Valuable Cable Reuse . Certain cables are certified CANopen EIA-485* Yes Modbus RTU EIA-485* No CC-Link, Ver.1.10 specified . Single Twisted Pair is most CC-Link No common Shielded, 3- & 5-core ODVA DeviceNet specified DeviceNet Yes . Usually shielded (5-core, various classes) . Some devices require power ControlNet RG-6/U Coaxial No over the same pair INTERBUS 3 / 6 no. twisted pairs, various Yes . New PoDL CFI / Amendment? PROFIBUS DP IEC 61158 Type A (22AWG?) No 15 Why Single Twisted Pair? . Expected benefits: . Less complex to install . Lower cost . Smaller size . Benefits enable a large volume of small and cost-sensitive Factory Automation components to migrate to Ethernet . Previously un-networked discrete devices . Low end fieldbus devices 16 Summary: Why 10Mb/s Extended Reach Single Twisted Pair Ethernet PHY? . Desire to have one network type throughout facility/factory/plant . Alternative to hugely fragmented Fieldbus landscape . Ease of installation . Single pair essential – lower skilled labour force . Ease of maintenance . Availability of Ethernet knowledge and networking configuration . Lower Total Cost of Ownership . Greater bandwidth required to support Industry 4.0 / Smart Factory / IIoT . Enabling new use cases with higher throughput, lower latency . Sensors running web servers! . Improved efficiencies . Existing Ethernet standards not addressing needs 17 Target Markets 18 Potential Markets . Industrial Automation . The dominant driving market for this CFI . Landscape breakdown described previously: . Process Automation . Factory Automation . Hybrid . Large market potential (i.e. port count) A 10Mb/s Extended Reach Single Twisted Pair Ethernet PHY anticipates significant leverage across other segments including: . Building Automation . Lighting Systems (Reference July 2014 IEEE 802 BoF “I Feel the Need… for Low Speed” (Carlson/Kennedy)) 19 Case Study – Process Automation Networked Devices . Largely Ethernet . Controllers . Stations . Servers . Largely Fieldbus . Flow . Level . Pressure . Temperature . Loggers and displays . Analytics . Bulk of nodes 20 Case Study – Process Automation Application Characteristics Same Devices Some Low Cost Extended Reach Shorter Reach Process Plants Process Skids 21 Case Study – Process Automation Networking History & Trends Pneumatics -> Electronics Analog -> Digital Pt-Pt -> Networks Ethernet Increased rates 10/100M Increased devices Fieldbus <100m, non-IS Mostly “Brownfield” updates 31.25 kb/s Digital HART Network 1200 baud 4-20 mA Instruments Pt-Pt CFI Pneumatic Actuators Pneumatics ~1950 1986 1996 2005 22 Case Study – Process Automation User Requirements . NAMUR Example . User Association of Automation Technology in Process Industries . Defines requirements for Fieldbus in Process Organisation (NE 74) . Select NE 74 Highlights . Flexible topology, cable length up to 1000m, spur up to 200m . 2-wire cable for data and power . Connection technology must be robust and easy to use, if possible by using existing cable infrastructure 23 Case Study – Process Automation Intrinsic Safety . “Intrinsic safety (IS) is a protection technique for safe operation of electrical equipment in hazardous areas by limiting the energy, electrical and thermal, available for ignition” - Wikipedia . Requirement within Industrial Process and Batch . Certification is of the networked equipment – not of the IEEE PHY . The PHY should not preclude the design of IS networked equipment Credit: Example Ignition Curve from CENELEC standard EN 50020 24 Case Study – Discrete Automation . On-machine devices Discrete Devices . Sensors (e.g. proximity, photoelectric,…) . Pushbutton stations, Tower Lights . Motor starters . In-cabinet devices . Pushbuttons Industrial Ethernet . Indicators . Overload relays . Motor starters . Soft starters . Power supplies Discrete wires Discrete wires Discrete wires . Safety sensors and actuators . E-Stops, Light curtains, Safety sensors, safety Safety contactors,… In-cabinet On-machine 25 Case Study – Discrete Automation Fieldbus Devices . Sensors . Valves . Encoders . Pushbutton stations Industrial Ethernet . Tower lights . Motor starters . Overload relays Fieldbus1 Fieldbus2 . Soft starters . Power supplies . …… 26 Case Study – Discrete Automation Networking History & Trends Fieldbus Industrial Ethernet Discrete wires Industrial Ethernet Discrete wires IO-Link Fieldbus S S S S S S S S S S S S Industrial Ethernet for Local I/O Remote I/O Industrial Ethernet for both control and field discrete wires, Fieldbus, control, fieldbus/IO-Link smart devices? Dumb devices Dumb devices for smart devices 1980s 1990s 2000s-2010s 2020s? 27 Case Study – Discrete Automation In-cabinet Application . IP20 protection level . Open connection . Manual wiring . Bus or daisy-chain topology . Short distance (<5m) . High node density . Pushbuttons, indicator and displays on door, other components in cabinet; . Mix of dumb wired and fieldbus devices 28 Case Study – Discrete Automation On-Machine Application . IP60 and higher protection level . Simple installation . Fast maintenance . Daisy-chain or Star topology . Most <50m distance . Mixed with extended reach . Power and communication in one cable . Standard and safety control 29 Case Study – Discrete Automation User Requirements ► Low cost ($1-2 incremental cost) ► Small size (<10cm2, 5cm2 may be typical) ► Low device power (<1W, 500mW may be typical) ► Adequate bandwidth (10Mb/s) ► Simple installation (wire reduction) ► Easy to use (common standard technology, good integration into control and supervisory system) 30 Case Study – Discrete Automation Challenges and Needs ► Today’s Industrial Ethernet M12-D can not meet smart devices’ Cat5e or above requirements . Cost is not low enough . Size is not small enough . Power is not low enough ► Lower cost,
Load more

Recommended publications
  • System Planner
    System Planner ACE3600 RTU ab 6802979C45-D Draft 2 Copyright © 2009 Motorola All Rights Reserved March 2009 DISCLAIMER NOTE The information within this document has been carefully checked and is believed to be entirely reliable. However, no responsibility is assumed for any inaccuracies. Furthermore Motorola reserves the right to make changes to any product herein to improve reliability, function, or design. Motorola does not assume any liability arising out of the application or use of any product, recommendation, or circuit described herein; neither does it convey any license under its patent or right of others. All information resident in this document is considered copyrighted. COMPUTER SOFTWARE COPYRIGHTS The Motorola products described in this Product Planner include copyrighted Motorola software stored in semiconductor memories and other media. Laws in the United States and foreign countries preserve for Motorola certain exclusive rights for copyrighted computer programs, including the exclusive right to copy or reproduce in any form the copyrighted computer program. Accordingly, any copyrighted Motorola computer programs contained in Motorola products described in this Product Planner may not be copied or reproduced in any manner without written permission from Motorola, Inc. Furthermore, the purchase of Motorola products shall not be deemed to grant either directly or by implication, estoppel, or otherwise, any license under the copyright, patents, or patent applications of Motorola, except for the normal non-exclusive, royalty free license to use that arises by operation in law of the sale of a product. TRADEMARKS MOTOROLA and the Stylized M Logo are registered in the U.S. Patent and Trademark Office.
    [Show full text]
  • White Paper: Implementing Industrial Ethernet Field Device Functionality by Using Fpgas
    WHITE PAPER PROFINET for the process industry Author: Dr. Ulla Reutner White Paper Table of Contents 1. Introduction: From fieldbuses to „Ethernet to the Field“ .....................................................................1 2. Special requirements in Ethernet to the Field process automation .......................................................2 3. PROFIBUS PA upgraded for PROFINET ................................................................................................... 3 3.1 General information on PA profiles ................................................................................................... 3 3.2 Special features of PA Profile 4.0 ....................................................................................................... 3 4. PROFINET redundancy models .............................................................................................................. 4 4.1 PROFINET S2 system redundancy ...................................................................................................... 5 4.2 PROFINET R1 system redundancy ...................................................................................................... 5 4.3 PROFINET R2 system redundancy ...................................................................................................... 5 4.4 High availability with a ring topology ................................................................................................ 6 5. Technical solutions for Ethernet to the Field in process manufacturing ...............................................6
    [Show full text]
  • DIGITALE TECHNOLOGIEN in DER PRAXIS WILLKOMMEN WELCOME Bei SAMSON DIGITAL LAB
    DIGITALE TECHNOLOGIEN IN DER PRAXIS WILLKOMMEN WELCOME bei SAMSON DIGITAL LAB. to SAMSON DIGITAL LAB. Read on and discover more. Welche Sprachversion möchten Sie wählen? Please select a language. © 2019 SAMSON AKTIENGESELLSCHAFT Frankfurt am Main, Germany INHALT DIGITALE TECHNOLOGIEN IN DER PRAXIS INTEROPERABILITÄT ALS VORAUSSETZUNG FÜR DIE DIGITALISIERUNG VERBREITERTE DATENBASIS DURCH UMFASSENDE VERNETZUNG BEDIENERFREUNDLICHE GESTALTUNG DURCH USER EXPERIENCE AUTOMATION IN DER ZUKUNFT 3 DIGITALE TECHNOLOGIEN IN DER PRAXIS „Das ROLF SANDVOSS INNOVATION CENTER ist ein Ort, der Interaktion er- möglicht und an dem Menschen aus der ganzen Welt, Partner und Kunden zu- sammenkommen, entwickeln, forschen, ausprobieren und testen können.“ 4 GEBÄUDE Grundstücksfläche: 3265 m² Anzahl der Stockwerke: 3 (+ Kellergeschoss) Brutto-Gesamtfläche: 9050 m² Nutzfläche: 7000 m² Umbautes Volumen: 53000 m³ Max. Bauhöhe: 22,3 m (inklusive Schalldämpfer: 25 m) Stahl: 1100 t (76,5 km) ANLAGENTECHNIK TGA-Leitungen: 4000 m Stromkabel: 40 km Daten- und MSR-Kabel: 50 km Wassertank: 400 m³, 78 t Rohrleitungssystem: 2070 m Anzahl der Signale (I/O): 1673 Anzahl der Ventile: 253 Anzahl der Pumpen: 8 Installierte Leistung: 5,5 MW 5 DIGITALE TECHNOLOGIEN IN DER PRAXIS SAMSON ist Produkt- und Lösungsanbieter für die Steue- rung und Regelung von Durchflussmedien aller Art. Bei der Entwicklung neuer Produkte und Dienstleistungen ste- hen neue Technologien und aktuelle Trends im Mittelpunkt. Das DIGITAL LAB ist Teil des ROLF SANDVOSS INNOVATION CENTER und versteht sich als Kompetenz-
    [Show full text]
  • Ethernet – to the Field
    Ethernet – To the Field Ethernet-APL™. Ease of adoption. Seamless integration. Simplified installation. Greater range. Valuable data. 01 Abstract Process plants operate for 20+ years and are required to be safe for people, the product, and the environment. Explosion potential in hazardous areas and harsh conditions require that any deployment of new technology is both thoroughly tested and provides added business benefits. Technology must not be complicated in handling or require extensive training. Ethernet is the de-facto communication standard in enterprises, but it does not meet the requirements in the field of process automation without modification. Ethernet with an Advanced Physical Layer (Ethernet-APL™) will enable long cable lengths and explosion protection via intrinsic safety with communication and power over two wires. Based on IEEE and IEC standards, Ethernet-APL supports any Ethernet-based automation protocol and will develop into a single, long-term stable technology for the entire process automation community. This white paper covers the business environment, technical specifi- cations, implications for different user types, and the development status of Ethernet-APL. Situation and Business Environment for Process Applications Process plants today compete to produce more products with less waste, and thin profit margins require increased output yield with increasing quality. Digital transformation has made it increasingly worthwhile for companies to consider making investments to obtain more plant data from process automation systems and instrumentation. However, to do so, new procedures and products are required to gain access to this data from every part of the plant and to extract more value on every production run. In the manufacturing industries, the Industrial Internet of Things (IIoT) and Industrie 4.0 are already part of everyday operations, and in the near future, these technologies will also enter the field of process automation and instrumentation.
    [Show full text]
  • 10Mb/S Extended Reach Single Twisted Pair Ethernet PHY Call for Interest
    10Mb/s Extended Reach Single Twisted Pair Ethernet PHY Call for Interest IEEE 802.3 Ethernet Working Group 1 CFI Panel Members Chair and Presenter: Supporters and experts for the Question and Answer session 2 Supporters - Page 1 3 Supporters - Page 2 4 CFI Objective . To gauge the interest in starting a Study Group for: 10Mb/s Extended Reach Single Twisted Pair Ethernet PHY . This meeting will NOT: . Fully explore the problem . Debate strengths and weaknesses of solutions . Choose a solution . Create a PAR or 5 Criteria . Create a standard or specification 5 Agenda . Industrial Networking Market Need . Industrial Networking Solution Requirements . Target Markets . Market Potential . Technical Feasibility . CFI Proposal . Q&A . Straw Polls 6 Industrial Networking Market Need 7 Vision . Multidrop . RS-485 . HART modem . CAN . Proprietary/custom . Point-point IEEE 802.3 . 4-20mA . HART modem . RS-232 . Proprietary/custom . New whitespace applications . Enabled through new capabilities 8 Industrial Automation Landscape Factory . Factory Automation Automation . Discrete units of output (Discrete) . Rapid operations . Process Automation . Continuous output . Expansive applications Batch . Often hazardous Automation (Hybrid) . Batch/Hybrid Automation . Batch output Process . Combination of both Automation continuous and discrete (Continuous) 9 Ethernet Conversion Gap in Industrial Networking . Ethernet is propagating . Desire to converge on one network type . Non-Ethernet fieldbuses still required to complete communications to the edge . Challenges: Cost, reach, special environments Credit: Dr. Raimund Sommer, Endress + Hauser, ODVA Industry Conference, Oct. 2014. Ethernet Gap 10 Too Many Fieldbus Variants Partial list… . Big challenges for end users Process Discrete . Labor skills FOUNDATION PROFIBUS DP . Installation complexity Fieldbus H1 PROFIBUS PA DeviceNet .
    [Show full text]
  • ETHERNET TECNOLOGIES 1º: O Que É Ethernet ?
    ETHERNET TECNOLOGIES 1º: O Que é Ethernet ? Ethernet Origem: Wikipédia, a enciclopédia livre. Este artigo ou se(c)ção cita fontes fiáveis e independentes, mas que não cobrem todo o conteúdo (desde setembro de 2012). Por favor, adicione mais referências e insira-as no texto ou no rodapé, conforme o livro de estilo. Conteúdo sem fontes poderá serremovido. Encontre fontes: Google (notícias, livros, acadêmico) — Yahoo! — Bing. Protocolos Internet (TCP/IP) Cam Protocolo ada 5.Apl HTTP, SMTP, FTP, SSH,Telnet, SIP, RDP, I icaçã RC,SNMP, NNTP, POP3, IMAP,BitTorrent, o DNS, Ping ... 4.Tra nspo TCP, UDP, RTP, SCTP,DCCP ... rte 3.Re IP (IPv4, IPv6) , ARP, RARP,ICMP, IPsec ... de Ethernet, 802.11 (WiFi),802.1Q 2.Enl (VLAN), 802.1aq ace (SPB), 802.11g, HDLC,Token ring, FDDI,PPP,Switch ,Frame relay, 1.Físi Modem, RDIS, RS-232, EIA-422, RS-449, ca Bluetooth, USB, ... Ethernet é uma arquitetura de interconexão para redes locais - Rede de Área Local (LAN) - baseada no envio de pacotes. Ela define cabeamento e sinais elétricos para a camada física, e formato de pacotes e protocolos para a subcamada de controle de acesso ao meio (Media Access Control - MAC) do modelo OSI.1 A Ethernet foi padronizada pelo IEEE como 802.3. A partir dos anos 90, ela vem sendo a tecnologia de LAN mais amplamente utilizada e tem tomado grande parte do espaço de outros padrões de rede como Token Ring, FDDI e ARCNET.1 Índice [esconder] 1 História 2 Descrição geral 3 Ethernet com meio compartilhado CSMA/CD 4 Hubs Ethernet 5 Ethernet comutada (Switches Ethernet) 6 Tipos de
    [Show full text]
  • A Direct Sequence Code-Division Multiple-Access Local Area Network Model
    Air Force Institute of Technology AFIT Scholar Theses and Dissertations Student Graduate Works 3-2002 A Direct Sequence Code-Division Multiple-Access Local Area Network Model James R. Rapallo Jr. Follow this and additional works at: https://scholar.afit.edu/etd Part of the Digital Communications and Networking Commons Recommended Citation Rapallo, James R. Jr., "A Direct Sequence Code-Division Multiple-Access Local Area Network Model" (2002). Theses and Dissertations. 4460. https://scholar.afit.edu/etd/4460 This Thesis is brought to you for free and open access by the Student Graduate Works at AFIT Scholar. It has been accepted for inclusion in Theses and Dissertations by an authorized administrator of AFIT Scholar. For more information, please contact [email protected]. A Direct Sequence Code-Division Multiple-Access Local Area Network Model THESIS James R. Rapallo Jr., Captain, USAF AFIT/GE/ENG/02M-22 DEPARTMENT OF THE AIR FORCE AIR UNIVERSITY AIR FORCE INSTITUTE OF TECHNOLOGY Wright-Patterson Air Force Base, Ohio Approved for public release; distribution unlimited Report Documentation Page Report Date Report Type Dates Covered (from... to) 15 Mar 02 Final Jun 01 - Mar 02 Title and Subtitle Contract Number A Direct Sequence Code Division Multiple Access Local Area Network Model Grant Number Program Element Number Author(s) Project Number Capt James R. Rapallo, Jr., USAF Task Number Work Unit Number Performing Organization Name(s) and Performing Organization Report Number Address(es) AFIT/GE/ENG/02M-22 Air Force Institute of Technology Graduate School of Engineering and Management (AFIT/EN) 2950 P Street, Bldg 640 WPAFB, OH 45433-7765 Sponsoring/Monitoring Agency Name(s) and Sponsor/Monitor’s Acronym(s) Address(es) AFCA/ITAI ATTN: Mr.
    [Show full text]
  • (12) United States Patent (10) Patent N0.: US 8,155,012 B2 Austermann, III Et A1
    US008155012B2 (12) United States Patent (10) Patent N0.: US 8,155,012 B2 Austermann, III et a1. (45) Date of Patent: Apr. 10, 2012 (54) SYSTEM AND METHOD FOR ADAPTING A FOREIGN PATENT DOCUMENTS PIECE OF TERMINAL EQUIPMENT DE 3907652 A1 9/1990 (75) Inventors: John F. Austermann, III, Huntington (Continued) Woods, MI (US); Marshall B. Cummings, Troy, MI (U S) OTHER PUBLICATIONS (73) Assignee: ChriMar Systems, Inc., Farmington Entertainment Services and Technology Association (ESTA)iRec Hills, MI (US) ommended Practice for Ethernet Cabling Systems in Entertainment Lighting Applications [44 pages] (1996). ( * ) Notice: Subject to any disclaimer, the term of this patent is extended or adjusted under 35 (Continued) U.S.C. 154(b) by 331 days. Primary Examiner * Chi Pham (21) Appl. No.: 12/239,001 Assistant Examiner * Soon-Dong Hyun Filed: Sep. 26, 2008 (74) Attorney, Agent, or Firm * Harness, Dickey & Pierce, (22) P.L.C. (65) Prior Publication Data US 2009/0022057 A1 Jan. 22, 2009 (57) ABSTRACT In accordance with the teachings of the present invention, a Related US. Application Data communication system (17) is provided for generating and (63) Continuation of application No. 10/ 668,708, ?led on monitoring data over pre-existing conductors (2A-2D) Sep. 23, 2003, now Pat. No. 7,457,250, which is a between associated pieces of networked computer equipment continuation of application No. 09/370,430, ?led on (3A-3D). The system includes a communication device (16) Aug. 9, 1999, now Pat. No. 6,650,622, which is a attached to the electronic equipment that transmits informa continuation-in-part of application No.
    [Show full text]
  • Single Pair Ethernet – the Enabler for Iiot
    Single Pair Ethernet – The enabler for IIoT Matthias Fritsche (Germany) Niek Bessels (Netherlands) Senior Expert Ethernet Connectivity Product Manager Device Connectivity Member of several standards groups www.HARTINGbv.nl IEEE 802.3 (Ethernet transmission protocols) Phone: +31 6 13746391 [email protected] [email protected] 2021-03-23 SINGLE PAIR ETHERNET / The infrastructure for IIOT / www.Single-Pair-Ethernet.com ALL FOR ETHERNET @ HARTING THE FULL RANGE OF CONNECTIVITY AND CABLING SOLUTIONS 2021-03-23 SINGLE PAIR ETHERNET / The infrastructure for IIOT / www.Single-Pair-Ethernet.com Single Pair Ethernet 2 – The enabler for IIoT applications POLL RESULTS: HOW IMPORTANT IS SINGLE PAIR ETHERNET ALREADY TODAY AND WHAT ARE YOUR COMPANY'S PLANS FOR IT? Result of a poll during a live webinar in May 2020. 264 polled. Source: HARTING 90% say it's relevant or very relevant How companies rate the relevance of Single Pair Single Pair Ethernet already today and plan with it. Ethernet is 15% Very relevant, we plan a design-in. already 12% Very relevant, but currently no further steps. relevant. 63% Relevant, we currently inform ourselves. 10% Not relevant, no starting point yet. 2021-03-23 SINGLE PAIR ETHERNET / The infrastructure for IIOT / www.Single-Pair-Ethernet.com Single Pair Ethernet 3 – The enabler for IIoT applications THE SPE TECHNOLOGY – A VERY SHORT OVERVIEW Starting point of SPE was the BroadR-Reach® technology from Broadcom With the support of the global car industry SPE was international standardized from the IEEE
    [Show full text]
  • IO-Link Over Single Pair Ethernet
    Concept study Extension of IO-Link for Single Pair Ethernet transmission Authors: Dmitry Gringauz (Banner Engineering Corp.) Frank Moritz (SICK AG) Hartmut Lindenthal (Pepperl+Fuchs AG) Dr. Franz-Otto Witte (TEConcept GmbH) Version V1.00 January 27, 2020 Concept study - IO-Link over SPE Version 1.00 _____________________________________________________________________________________________________ File name: IO-Link_over_SPE_V100_Jan20 This document has been prepared by the IO-Link community. Important notes: NOTE 1 The IO-Link Community Rules shall be considered prior to the development and marketing of IO -Link products. The document can be downloaded from the www.io-link.com portal. Disclaimer: The attention of adopters is directed to the possibility that compliance with or adoption of IO-Link Community specifications may require use of an invention covered by patent rights. The IO -Link Community shall not be responsible for identifying patents for which a license may be requi red by any IO-Link Community specification, or for conducting legal inquiries into the legal validity or scope of those patents that are brought to its attention. IO-Link Community specifications are prospective and advisory only. Prospective users are res ponsible for protecting themselves against liability for infringement of patents. The information contained in this document is subject to change without notice. The material in this document details an IO-Link Community specification in accordance with the license and notices set forth on this page. This document does not represent a commitment to implement any portion of this specification in any company's products. WHILE THE INFORMATION IN THIS PUBLICATION IS BELIEVED TO BE ACCURATE, THE IO- LINK COMMUNITY MAKES NO WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, WITH REGARD TO THIS MATERIAL INCLUDING, BUT NOT LIMITED TO ANY WARRANTY OF TITLE OR OWNERSHIP, IMPLIED WARRANTY OF MERCHANTABILITY OR WARRANTY OF FITNESS FOR PARTICULAR PURPOS E OR USE.
    [Show full text]
  • Download Issue As PDF File
    02.2021 Issue 122 ISSN 1470-5745 The Journal of Industrial Networking & IIoT Industrial Internet of Things Progress Report 8 Open or proprietary Secure remote access via Securing industrial Edge computing for IIoT solutions? 19 public 5G networks 24 networks 31 smarter factories 38 Visit for the Latest Updates n www.iebmedia.com Industrial Ethernet Book The only publication worldwide dedicated to Industrial Networking and the IIoT. Visit iebmedia.com for latest updates. New website offers deepest, richest archive of Industrial Ethernet and IIoT content on the web. View and/or download latest issue of Industrial Ethernet Book and past issues. Search our database for in-depth technical articles on industrial networking. Learn what's trending from 5G and TSN, to Single Pair Ethernet and more. Keep up-to-date with new product introductions and industry news. Visit our new website at: www.iebmedia.com GET CONNECTED… Contents Software is the future ... In this issue of the Industrial Ethernet Book, we take an in-depth look at the Industrial Internet of Things, starting with our IIoT Progress Report starting on page 8 but also through a series of articles authored by industry experts on topics ranging from Industrial 5G to cybersecurity. As we look to the future for the Industrial Internet of Things, the overarching theme that comes back again and again is the increasing need for a software-centric approach. Software will be the determining factor in the Contents future of industrial automation, in contrast to the discrete automation systems that use Industry news 4 hardware focused architectures today.
    [Show full text]
  • PROFINET System Description Technology and Application
    PROFINET System Description Technology and Application Contents Introduction . 3 6.8 Higher Availability through System Redundancy ........................ 18 Information on the Contents . 4 6.9 Calling an Engineering Tool .......... 19 1 . PROFINET at a glance . 5 7 . Integration of other 1.1 Ten Reasons for PROFINET ............ 5 Communication Systems . 19 1.2 Conformance Classes ................ 6 7.1 Integration of Fieldbuses ............. 19 7.2 Integration of IO-Link ................ 20 2 . Modeling and Engineering . 6 2.1 System Model of a PROFINET 8 . Application Profiles . .. 20 System .............................. 6 8.1 PROFIsafe ........................... 21 2.2 Device Model of an IO Device ........ 7 8.2 PROFIdrive .......................... 21 2.3 Device Descriptions ................. 8 8.3 PROFIenergy ........................ 21 2.4 Communication Relations ........... 8 2.5 Addressing PROFINET Devices ....... 9 9 . PROFINET for Process 2.6 Engineering of an IO System ......... 9 Automation . 22 2.7 Web Integration ..................... 10 10 . Network Installation . 23 3 . Basic Functions . .. 10 10.1 Network Configuration ............. 23 3.1 Cyclic Data Exchange ................ 10 10.2 Cables for PROFINET ................ 24 3.2 Acyclic Data Exchange ............... 11 10.3 Connectors ......................... 24 3.3 Device/Network Diagnostics ......... 12 10.4 Security ............................ 25 4 . Network Diagnostics and 11 . PROFINET Technology and Management . .. 12 Certification . 25 4.1 Network Management Protocol ...... 12 11.1 Technology Support ................ 26 4.2 Neighborhood Detection ............ 12 11.2 Tools for Product Development ..... 26 4.3 Representation of the Topology ...... 13 11.3 Certification Test. 26 4.4 Device Replacement. 13 12 . Standardization . 26 4.5 Integration of Network Diagnostics into the IO System Diagnostics ....... 13 13 . PROFIBUS & PROFINET 5 . Synchronous Real-Time .
    [Show full text]