DOCSLIB.ORG

Communications

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
Communications Communications The Drilling Systems Automation Roadmap Communications section provides guidance to the future technologies and processes used to communicate information in all forms across all aspects of drilling systems automation. Contents Functional Description .................................................................................................................................. 4 Performance targets (including KPI’s with dates) ......................................................................................... 4 Current and future situation of systems that use communications ............................................................. 5 Downhole Transmission Tools .................................................................................................................. 5 Current situation: .................................................................................................................................. 5 Challenges: ............................................................................................................................................ 5 Future State: ......................................................................................................................................... 5 Downhole to surface (vice Versa telemetry) review ............................................................................ 6 Surface acquisition systems ...................................................................................................................... 8 Current situation: .................................................................................................................................. 8 Challenges: ............................................................................................................................................ 8 Future State: ......................................................................................................................................... 8 Sub Sea Control Systems ........................................................................................................................... 8 Aggregators and Historians ....................................................................................................................... 9 Current situation: .................................................................................................................................. 9 Challenges: ............................................................................................................................................ 9 Future State: ......................................................................................................................................... 9 Remote Advisory Centers ....................................................................................................................... 10 Current situation: ................................................................................................................................ 10 Challenges: .......................................................................................................................................... 10 Future State: ....................................................................................................................................... 10 Scope of Communications .......................................................................................................................... 10 Rig v’s Office ............................................................................................................................................ 10 Device to Device ...................................................................................................................................... 10 Device to Process and Process to Device ................................................................................................ 11 Communications Process to Process................................................................................................................................... 11 Interoperability ....................................................................................................................................... 11 Contextual / Situation Awareness .......................................................................................................... 11 Communication Protocols ........................................................................................................................... 11 Protocols (TCP vs UDP)............................................................................................................................ 11 WITS ........................................................................................................................................................ 12 WITSML ................................................................................................................................................... 12 Energistics Transfer Protocol (ETP) ......................................................................................................... 12 SYSML ...................................................................................................................................................... 13 OPC classic vs UA .................................................................................................................................... 13 OPC and Drilling Automation ...................................................................................................................... 13 History ..................................................................................................................................................... 13 OPC UA .................................................................................................................................................... 13 Implementation ...................................................................................................................................... 14 OPC UA and Drilling Automation ............................................................................................................ 14 Agents of Change ........................................................................................................................................ 15 Internet of Things .................................................................................................................................... 15 In Stream capabilities .............................................................................................................................. 15 Behavioral and pattern based Cyber Security ........................................................................................ 16 Problem Statement (barriers, needs, critical success factors).................................................................... 16 Barriers .................................................................................................................................................... 16 Proprietary Attitude ............................................................................................................................ 16 Lack of a common standard ................................................................................................................ 17 Lack of Open Interfaces ...................................................................................................................... 17 Way Ahead .................................................................................................................................................. 17 Standardized downhole and rig to office telemetry ............................................................................... 17 Downhole Telemetry .............................................................................................................................. 18 Timeline: (Ongoing but expect significant change in the next 5 years) .............................................. 19 State Based Information ......................................................................................................................... 19 Timeline: Imminent ............................................................................................................................ 19 Operational Intent .................................................................................................................................. 19 Timeline: Long term (5+ years) .......................................................................................................... 20 Confidential Information Copyright © DSARoadmap.org 2017 Page 2 Communications Rig Information Model ............................................................................................................................ 20 Timeline: Ongoing (~ 2-5 years) .......................................................................................................... 20 Data Federation ...................................................................................................................................... 20 Timeline: imminent through the next 2 – 5 years .............................................................................. 22 Multiplexed Communications ................................................................................................................. 22 Timeline: Imminent but developing
Load more

Recommended publications
  • ML50 Catalog R5p0
    ML50 Compact Logic Controller AUTOMATION MADE EASY & COMPACT Honeywell Solutions for Machine Automation 1 | P a g e M a s t e r L o g i c 5 0 S e r i e s SPECIAL FEATURE Compact ML50 series is extremely compact providing both powerful functions and performance. The dual combination of Compactness & Performance is what makes ML50 such an ideal product. unit=mm(in) Item W H D W Main Unit MLM-D_ _S 30(1.18) 90(3.54) 60(2.36) MLC(I)-D_32H 114(4.49) 90(3.54) 64(2.52) D MLC(I)-D_64H 180(7.09) 90(3.54) 64(2.52) MLI-D_SU 135(5.3) 90(3.54) 64(2.52) MLI-D20E/30E MLI-D_10E/14E 100(3.94) 90(3.54) 64(2.52) H MLI-D_ _U 135(5.31) 90(3.54) 64(2.52) Expansion Modules 20(0.79) 90(3.54) 60(2.36) H H W D W D H D W For detailed dimension information, please refer to it for each module. 1 | P a g e M a s t e r L o g i c 5 0 S e r i e s SPECIAL FEATURE Ultimate ‘U’ Performance Block Type (MLI series / MLI-D_ _U_) MLI U sets new standards in Ultimate Performance with its many innovations. IoT(Internet of Things) realizes smart factories, MLI-U series is a ‘User-Oriented’ controller. Exandable with existed modules for ML50 Applicable max 2 expansion modules with High speed backplane(for network-positioning modules only) Applicable upto 10 expansion modules Max.
    [Show full text]
  • Exporting Fieldbuses to Europe 1. Product Description
    Exporting fieldbuses to Europe Last updated: 05 July 2017 The development of Smart Industry and the Internet of Things has created a strong demand for industrial communication networks and their components, including fieldbuses. Fieldbuses make up over two thirds of the market for industrial communication networks. Due to their relative technical complexity, fieldbuses provide good market opportunities for manufacturers from developing countries. Contents of this page 1. Product description 2. Which European markets offer opportunities for exporters of fieldbuses? 3. What trends offer opportunities on the European market for fieldbuses? 4. What requirements should fieldbuses comply with to be allowed on the European market? 5. What competition do you face on the European fieldbus market? 6. Through what channels can you get fieldbuses on the European market? 7. What are the end-market prices for fieldbuses? 1. Product description The fieldbus is an industrial network system for real-time distributed control. It is an option to link instruments in a manufacturing plant and works in a network structure which typically allows daisy chain, star, ring, branch and tree network topologies. In the past, computers were connected using serial connections such as RS-232. In that way, no more than two devices were able to communicate. This would be the equivalent of the currently used 4-20 mA communication scheme, which requires that each device has its own communication point at the controller level. By contrast, the fieldbus is the equivalent of the current LAN-type connections, which require only one communication point at the controller level and allow multiple (hundreds) of analogue and digital points to be connected in parallel.
    [Show full text]
  • Iec 61784-3 ®
    This is a preview - click here to buy the full publication IEC 61784-3 ® Edition 3.0 2016-05 REDLINE VERSION INTERNATIONAL STANDARD colour inside Industrial communication networks – Profiles – Part 3: Functional safety fieldbuses – General rules and profile definitions INTERNATIONAL ELECTROTECHNICAL COMMISSION ICS 25.040.40; 35.100.05 ISBN 978-2-8322-3372-6 Warning! Make sure that you obtained this publication from an authorized distributor. ® Registered trademark of the International Electrotechnical Commission This is a preview - click here to buy the full publication – 2 – IEC 61784-3:2016 RLV IEC 2016 CONTENTS FOREWORD ......................................................................................................................... 8 0 Introduction ................................................................................................................. 10 0.1 General ............................................................................................................... 10 0.2 Transition from Edition 2 to extended assessment methods in Edition 3 ................ 12 0.3 Patent declaration ............................................................................................... 12 1 Scope .......................................................................................................................... 14 2 Normative references................................................................................................... 14 3 Terms, definitions, symbols, abbreviated terms and conventions..................................
    [Show full text]
  • IS7 Rapienet+ Option Module
    LS ELECTRIC strives to maximize your profits in gratitude for choosing us as your partner. IS7 RAPIEnet+ Option Module SV-iS7 Series [ RAPIEnet, EtherNet/IP, Modbus TCP Protocol ] iS7 RAPIEnet+ Option Manual Before using the product Thank you for purchasing the iS7 RAPIEnet+ communication board. SAFETY PRECAUTIONS Always follow safety instructions to prevent accidents and potentially hazardous situations. Safety precautions are classified into “WARNING” and “CAUTION,” and their meanings are as follows: Indicates a potentially hazardous situation which, if not avoided, WARNING may cause death or serious injury. Indicates a potentially hazardous situation, which, if not CAUTION avoided, may cause minor injury or damage to the product. Symbols used in this document and on the product indicate the following. Read and follow the instructions carefully to avoid dangerous situations. Presence of "dangerous voltage" inside the product that may cause harm or electric shock. Keep the operating instructions handy for quick reference. Read the operating instructions carefully to fully understand the functions of the SV-iS7 series inverters and use them properly. CAUTION Be careful not to damage the CMOS elements on the communication board. Static charge may cause malfunctioning of the product. Turn off the inverter before connecting communication cables. Otherwise, the module may be damaged or a communication error may result. Correctly align the communication board to the installation connector for installation and ensure that it is firmly connected to the inverter. Otherwise, the module may be damaged or a communication error may result. Check the parameter units when configuring the parameter values. Otherwise, a communication error may occur.
    [Show full text]
  • XGT Series XGT Series, Innovative Solutions for System Integration from Field to Information Level
    Programmable Logic Controller XGT Series XGT series, innovative solutions for system integration from field to information level. Open Network System Integration FEATURES CPU SYSTEM NETWORK SSPECCIAL SOFTWARE 2 / 3 2_3 120 ~141 4 ~ 13 48 ~ 85 86 ~ 119 32 ~ 47 14 ~ 31 FEATURES FEATURES CPU SYSTEM NETWORK SPECIAL SOFTWARE Programmable Logic Controller neXt Generation Technology echnology Series T eneration eneration G t X ne Intro Welcome to XGT World! XGT series will meet your needs and expectations, enabling the highest possible productivity and performance levels and more. Programmable Logic Controller 4 / 5 Features XGT series is the next-generation solution with a new concept providing advanced engineering environment based on open network, fastest processing speed, compact size and user-friendly software. Programmable Logic Controller 6 / 7 The smallest size The smallest size(Dimensions 27 X 98 X 90) achieves cost-efficiency and various applications. Item Power Supply CPU 8-slot Base Size (WXHXD) 55X98X90 27X98X90 318X98X17 Features XGT series, neXt Generation Technology for easier, faster and smarter automation, will provide you with future-oriented solutions, bringing greener, safer and more convenient life for you... System Integration of Open Network XGT series support various communication solutions ranging from field control to information level with Fast Ethernet, Profibus-DP, DeviceNet, Modbus, etc. Programmable Logic Controller 8 / 9 FEn e t , Et h e r Ne t / IP, RAPIEn e t FEn e t , Et h e r Ne t / IP, RAPIEn e t , Fn e t D e v i c e Ne t , Pr o f i b u s - D P, Mo d b u s , CANo p e n , Rn e t Fast Ethernet Profibus- Item RAPIEnet EtherNet/IP Cnet Fnet DeviceNet Rnet FEnet FDEnet DP Transmission speed 10/100Mbps 100Mbps 100Mbps 300~115,200bps 1Mbps Max.12Mbps Max.500Kbps 1Mbps Transmission 100m (Node to Node, UTP/STP) Max.
    [Show full text]
  • Extracting and Mapping Industry 4.0 Technologies Using Wikipedia
    Computers in Industry 100 (2018) 244–257 Contents lists available at ScienceDirect Computers in Industry journal homepage: www.elsevier.com/locate/compind Extracting and mapping industry 4.0 technologies using wikipedia T ⁎ Filippo Chiarelloa, , Leonello Trivellib, Andrea Bonaccorsia, Gualtiero Fantonic a Department of Energy, Systems, Territory and Construction Engineering, University of Pisa, Largo Lucio Lazzarino, 2, 56126 Pisa, Italy b Department of Economics and Management, University of Pisa, Via Cosimo Ridolfi, 10, 56124 Pisa, Italy c Department of Mechanical, Nuclear and Production Engineering, University of Pisa, Largo Lucio Lazzarino, 2, 56126 Pisa, Italy ARTICLE INFO ABSTRACT Keywords: The explosion of the interest in the industry 4.0 generated a hype on both academia and business: the former is Industry 4.0 attracted for the opportunities given by the emergence of such a new field, the latter is pulled by incentives and Digital industry national investment plans. The Industry 4.0 technological field is not new but it is highly heterogeneous (actually Industrial IoT it is the aggregation point of more than 30 different fields of the technology). For this reason, many stakeholders Big data feel uncomfortable since they do not master the whole set of technologies, they manifested a lack of knowledge Digital currency and problems of communication with other domains. Programming languages Computing Actually such problem is twofold, on one side a common vocabulary that helps domain experts to have a Embedded systems mutual understanding is missing Riel et al. [1], on the other side, an overall standardization effort would be IoT beneficial to integrate existing terminologies in a reference architecture for the Industry 4.0 paradigm Smit et al.
    [Show full text]
  • Real-Time Ethernet Technology Comparison SERCOS Seminar Atlanta September 16, 2009
    www.infoPLC.net Real-Time Ethernet Technology Comparison SERCOS Seminar Atlanta September 16, 2009 Peter Lutz, Managing Director SERCOS International e.V. www.infoPLC.net Real-Time Ethernet Competition (c) SERCOS International 2009 No. 2 Overview on Real-Timewww.infoPLC.net Ethernet Technologies (Selection) CC Link IE PowerDNA Drive CliQ Profinet EPA RAPIEnet EtherCAT RTEX EtherNet/IP + CIP Sync SafetyNET p Ethernet Powerlink SERCOS III IEEE 1588 / PTP SynqNet JetSync TCnet Modbus RTPS Varan Mechatrolink III Vnet/IP Source: http://www.real-time-ethernet.de/ (c) SERCOS International 2009 No. 3 Overview on Real-Timewww.infoPLC.net Ethernet Technologies (Selection) CC Link IE PowerDNA Drive CliQ Profinet EPA RAPIEnet EtherCAT RTEX EtherNet/IP + CIP Sync SafetyNET p Ethernet Powerlink SERCOS III IEEE 1588 / PTP SynqNet JetSync TCnet Modbus RTPS Varan Mechatrolink III Vnet/IP Source: http://www.real-time-ethernet.de/ (c) SERCOS International 2009 No. 4 Overview on Real-Timewww.infoPLC.net Ethernet Technologies (Selection) CC Link IE PowerDNA Drive CliQ Profinet EPA RAPIEnet EtherCAT RTEX EtherNet/IP + CIP Sync SafetyNET p Ethernet Powerlink SERCOS III IEEE 1588 / PTP SynqNet JetSync TCnet Modbus RTPS Varan Mechatrolink III Vnet/IP Source: http://www.real-time-ethernet.de/ (c) SERCOS International 2009 No. 5 Overview on Real-Timewww.infoPLC.net Ethernet Technologies (Selection) CC Link IE PowerDNA Drive CliQ Profinet EPA RAPIEnet EtherCAT RTEX EtherNet/IP + CIP Sync SafetyNET p Ethernet Powerlink SERCOS III IEEE 1588 / PTP SynqNet JetSync TCnet
    [Show full text]
  • 汉阳大学 2015年度中国留学生招生 教授及研究室简介 2015 Applicants Laboratory List Hanyang University ERICA Campus
    汉阳大学 2015年度中国留学生招生 教授及研究室简介 2015 Applicants Laboratory List Hanyang University ERICA Campus NO. Name Department Name of Laboratory Page 1 Ahn, Seong-hoon BIO Molecular & Life Science Molecular Cell Biology Laboratory 1 2 Bert Binas BIO Molecular & Life Science Stem Cell Laboratory 4 3 Bang, Jin-ho Applied Chemistry Nanomaterial synthesis Laboratory 6 4 Chun, Hyung-phil Applied Chemistry Molecular Solids Laboratory 11 Electronics & System Ubiquitous Network 5 Hong, Seung-ho 13 Engineering Systems Laboratory Electronics and Wireless Communications 6 Jin, Hu 18 Communication Engineering Systems Laboratory Electronics & System Energy Transform System 7 Kwon, Byung-il 20 Engineering Laboratory construction materials & building 8 Lee, Han-seung Architectural Engineering 24 Laboratory Electronics & Communication 9 Shin, Hyun-chul Digital System Laboratory 26 Engineering Sustainable Building Evaluation 10 Tae, Sung-ho Architectural Engineering 30 Special Technology Lab 11 Yoon, Joon-yong Mechanical Engineering Fluid Engineering LAB 34 12 Yoon, Jong-hun Mechanical Engineering CHAMP Lab 36 PROFESSOR INFORMATION OF HANYANG UNIVERSITY ≫ BASIC INFO. NAME Ahn, Seong-Hoon 中文姓名 TELEPHONE 031-400-5518 FAX NO. 031-400-5457 NO. E-MAIL [email protected] HOMEPAGE www.mcblab.net ≫ EDUCATIONAL BACKGROUND B.S: Sungkyunkwan University, 1996 M.S.: Sungkyunkwan University, 1998 Ph.D.: Sungkyunkwan University, 2001 ≫ EXPERIENCE 2001 – 2005, Post-Doc. (Harvard Medical School, BCMP, PI: Stephen Buratowski). 2005 – 2010, Assistant Professor (Hanyang University at ERICA campus) 2010 – present, Associate Professor (Hanyang University at ERICA campus) ≫ RESEARCH INTERESTS Our research addresses the mechanism of gene transcription by epigenetic histone modifications in eukaryotes. Our lab currently works on histone methylation, ubiquitylation, and acetylation with their relationships with the phosphorylations within RNA polymerase II C-terminal domain and the regulation of cellular lifespan.
    [Show full text]
  • PLC & Fieldbus Control Systems Automation Guidebook – Part 4
    PDHonline Course E448 (9 PDH) ______________________________________________________________________________ PLC & Fieldbus Control Systems Automation Guidebook – Part 4 Instructor: Jurandir Primo, PE 2014 PDH Online | PDH Center 5272 Meadow Estates Drive Fairfax, VA 22030-6658 Phone & Fax: 703-988-0088 www.PDHonline.org www.PDHcenter.com An Approved Continuing Education Provider www.PDHcenter.com PDHonline Course E448 www.PDHonline.org PLC & FIELDBUS CONTROL SYSTEMS AUTOMATION GUIDEBOOK – PART 4 CONTENTS: 1. PLC HISTORY 2. INTRODUCTION 3. INPUT/OUTPUT (I/O) CAPABILITIES 4. LADDER LOGIC PROGRAMS 5. HUMAN-MACHINE INTERFACE (HMI) 6. HOW THE PLCs WORK 7. FIELDBUS CONTROL SYSTEMS 8. DCS AND FIELDBUS DEVELOPMENT 9. FIELDBUS MODELS AND NETWORK STRUCTURE 10. DIAGNOSTICS & COMMUNICATION INTERFACES 11. BASIC COMMUNICATION STANDARDS 12. REFERENCES & LINKS ©2014 Jurandir Primo Page 1 of 101 www.PDHcenter.com PDHonline Course E448 www.PDHonline.org 1. PLC HISTORY The early history of the PLC (Programmable Logic Controller) goes back to the 1960’s when control systems were still handled using relay control. During this time the control rooms consisted of sev- eral walls containing many relays, terminal blocks and mass of wires. In 1968 Bill Stone, who was part of a group of engineers at the Hydramatic Division of General Mo- tors Corporation, presented a paper at the Westinghouse Conference outlining their problems with reliability and documentation for the machines at this plant. He also presented a design criteria de- veloped by the GM engineers for a “standard machine controller”, to eliminate costly scrapping of assembly-line relays. These specifications along with a proposal request to build a prototype were given to four control builders: • Allen-Bradley, by way of Michigan-based Information Instruments, Inc.
    [Show full text]
  • An Approach for Failure Recognition in IP-Based Industrial Control Networks and Systems
    INTERNATIONAL JOURNAL OF NETWORK MANAGEMENT Int. J. Network Mgmt 2012; 22: 477–493 Published online 21 March 2012 in Wiley Online Library (wileyonlinelibrary.com) DOI: 10.1002/nem.1804 An approach for failure recognition in IP-based industrial control networks and systems Youngjoon Won,1,*† Mi-Jung Choi,2 Byungchul Park3 and James Won-Ki Hong3 1Department of Information Systems, Hanyang University, Seoul, South Korea 2Department of Computer Science, Kangwon National University, Gangwon, South Korea 3Division of IT Convergence Engineering, Pohang University of Science and Technology, South Korea SUMMARY Industrial control networks (ICNs) and systems support robust communications of devices in process control or manufacturing environments. ICN proprietary protocols are being migrated to Ethernet/IP networks in order to merge various different types of networks into a single common network. ICNs are deployed in mission-critical operations, which require a maximum level of network stability. Network stability is often described using sev- eral categories of network performance quality-of-service metrics, such as throughput, delay, and loss measure- ments. The question arises as to whether these network performance metrics are sufficient to run valuable diagnostics of ICN components and their communications. Any abnormal decision with respect to typical IP traffic behavior does not necessarily coincide with ICN fault cases. A precise and specific diagnostic technique for ICNs is required to remove the uncertainty in detecting problems. However, existing Ethernet/IP diagnosis tools have not been able to fully handle fault symptoms and mainly focus on network diagnostics rather than process or device diagnostics. This paper demonstrates that the absence of advanced fault diagnosis techniques leads to the development of new methodologies that are suitazble for ICN.
    [Show full text]
  • LS Electric LV Drives
    LV Drive Series M100 / G100 / S100 / H100 / iS7 / SP100 Scan the QR code marked on the product cover for further details on this product. Contents 04 LS Drive Comparison Table 06 Micro Drive M100 10 General Drive G100 16 Standard Drive S100 24 Fan & Pump Drive H100 30 High Performance Drive iS7 38 Bypass Package Solution SP100 Solution 02 LS Drive Solution LS Drive at a Glance LS Drive is characterized by its user-convenience interface, accurate and flexible control, and various functions. LS Drive Series with varied capacities and excellent functionality will be the optimal option for your company’s competitiveness. 1/8HP 1/2HP 3HP 5HP 10HP 30HP 75HP 100HP 300HP 500HP 600HP 1Ø 115V 115V 0.25~1HP is scheduled to be released in 2020. MicroM100 Drive 1Ø 230V 1Ø 115V : 0.25HP~1HP 1Ø 230V : 0.125HP~3HP 3Ø 230V G100 230/460V 15HP~30HP is scheduled to be released in 2020. General Drive 3Ø 460V 3Ø 230V: 0.5HP~30HP 3Ø 460V: 0.5HP~30HP 1Ø 230V 3Ø 230V StandardS100 Drive 3Ø 230V 1Ø 230V 0.5HP~3.0HP 3Ø 460V 3Ø 230V 0.5HP~20HP 3Ø 460V 0.5HP~100HP IP66 NEMA4X 3Ø 230V IP66 NEMA4X 3Ø 230V 0.5HP~20HP IP66 NEMA4X 3Ø 460V 0.5HP~30HP IP66 NEMA4X 3Ø 460V 3Ø 230V Fan & PumpH100 Drive 3Ø 460V 3Ø 230V:1.0HP~25HP 3Ø 460V:1.0HP~800HP 3Ø 230V High PerformanceiS7 Drive 3Ø 460V 3Ø 230V:1.0HP~100HP 3Ø 460V:1.0HP~600HP IP54 3Ø 230V IP54 NEMA12 3Ø 230V 1.0HP~30HP IP54 NEMA12 3Ø 460V 1.0HP~30HP IP54 3Ø 460V 3Ø 230V Bypass PackgeSP100 Solution 3Ø 230V:7.5HP~25HP 3Ø 460V 3Ø 460V:7.5HP~75HP 03 LS Drive Comparison Table S100 iS7 Model name M100 G100 H100 IP20(NEMA1) IP66(NEMA4X)
    [Show full text]
  • Overview of Building Automation Protocols
    Considerations and challenges when integrating systems to achieve smart(er) buildings Lance Rütimann / SupDet 2015 / 04 March 2015 Unrestricted © Siemens AG 2015 All rights reserved. Integrating systems is not new … The technological development has advanced the dimension of integrations, both in quantitative and qualitative terms: . relay contacts . parallel data . serial data Cumulating events on one central point had its weaknesses. Unrestricted © Siemens AG 2015 All rights reserved. 04 March 2015 SupDet 2015 2 … but it has become more complex. And we continue to learn. Numbers of Protocols A protocol is a defined set of rules and regulations that determine how data is . 20+ Building Automation protocols transmitted in telecommunications . 35+ Process Automation protocols and computer networking . 4 Industrial Control System protocols . 4 Power System automation Source: http://en.wikipedia.org/wiki/List_of_automation_protocols Source: http://www.drillingcontractor.org/from-islands-to-clouds-the-data-evolution-10675 Distributed systems = increased redundancy Unrestricted © Siemens AG 2015 All rights reserved. 04 March 2015 SupDet 2015 3 Overview of Building Automation protocols 1. 1-Wire 14.Modbus (RTU or ASCII or TCP) 2. BACnet 15.oBIX 3. C-Bus 16.ONVIF 4. CC-Link Industrial Networks 17.VSCP 5. DALI 18.xAP 6. DSI 19.X10 7. Dynet 20.Z-Wave 8. EnOcean 21.ZigBee 9. HDL-Bus 10.INSTEON 11.IP500 12.KNX (previously AHB/EIB) 13.LonTalk Unrestricted © Siemens AG 2015 All rights reserved. 04 March 2015 SupDet 2015 4 Overview of Process Automation Protocols 1. AS-i 14.FINS 27.PieP 2. BSAP 15.FOUNDATION 28.Profibus 3. CC 16.HART 29.PROFINET IO 4.
    [Show full text]