11 th IEEE World Conference on Factory Communication Systems 2015

ABB Corporate Research, Linus Thrybom, Team Manager Industrial Communication, 2015-05-27 Industrial Communication and Networking in Automation System...
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ABB Corporate Research, Linus Thrybom, Team Manager Industrial Communication, 2015-05-27

Industrial Communication and Networking in Automation Systems – Today and Tomorrow 11th IEEE World Conference on Factory Communication Systems 2015 May 28, 2015

Industrial Communication and Networking in Automation Systems Outline 

Introduction



Process and power automation examples





© ABB Group May 28, 2015

| Slide 2



Oil & Gas



Mining



Power Grid

Industrial Communication & Networking R&D 

Industrial Fieldbus / Ethernet



Wireless

Summary

Well positioned in attractive markets ABB today

Power & Automation

What (Offering) Power ~ 40% of revenue

For whom (Customers)

Automation ~ 60% of revenue

Utilities

Industry

Transport & Infrastructure

~35% of revenue

~45% of revenue

~20% of revenue

Globally

Where (Geographies) AMEA1 37% $42 bn revenue

© ABB Group May 28, 2015

| Slide 3

~100 countries

Americas 29% ~145,000 employees

Europe 34% Single “A” credit rating

HQ Zurich

Power and automation are all around us You will find ABB technology… orbiting the earth and working beneath it,

crossing oceans and on the sea bed,

in the fields that grow our crops and packing the food we eat, on the trains we ride and in the facilities that process our water, in the plants that generate our power and in our homes, offices and factories

© ABB Group May 28, 2015

| Slide 4

Process Automation

Process Automation

© ABB Group May 28, 2015

| Slide 6

Well positioned in attractive markets Automation: a leading partner in the 4th industrial revolution

© ABB Group May 28, 2015

| Slide 7

Process Automation – Oil & Gas Goliat – a recent example

© ABB Group May 28, 2015

| Slide 8



Floating production, storage, and offloading vessel



Bucket shape to withstand artic conditions



Will produce more than 100,000 oil drums and 3.9 million cubic meters of gas per day.



The 75 MW cable is the longest, most powerful cable ever delivered for an offshore application (106 km)

Process Automation – Oil & Gas Goliat – a recent example

© ABB Group May 28, 2015

| Slide 9



The automation scope includes Electrical, Instrumentation, Control and Telecoms



Goliat is the quintessential Industrial IoTSP project, all systems are integrated with the control system: 

Electrical, safety, telecoms etc.



Instrumentation diagnostics



Large scale data collected from process and production assets



Including the capability to be remotely operated from an onshore control center

Process Automation – Oil & Gas Goliat – a recent example Wireless field instruments

Seamless integration into ABB Control systems Extended Operator Workplace

System 800xA workplace

Gateway AC 800M Controller

© ABB Group May 28, 2015

| Slide 10

Process Automation – Mining Future Mines 





Use cases 

Process system, vehicle/transport system, VoIP



Tele-remote control of vehicles and safety application based on positioning

Advantages of integrated automation systems 

Production status, reports, analyses and statistics



Location and status of vehicles/equipment



New production plans can be supplied to the operational teams

Remote operation centers 

© ABB Group May 28, 2015

| Slide 11

Data from all parts of the operation flow together – from rockface, the process, via electrical system to end customer – across multiple sites

Industrial Communication & Networking Positioning – an Outlook 

Automation and autonomous operation will increase, as well as positioning 



Mining 

Personnel health and safety applications (under ground)



Fleet management, drilling and shoveling (open pit)

Shipping port 



Oil & Gas 



© ABB Group May 28, 2015

| Slide 12

Autonomous handling of shipping containers

Access control (e.g. entering dangerous areas)

Requiring industrial positioning systems to be 

Secure



Safe



Reliable

Process Automation – Mining Future Mines 

© ABB Group May 28, 2015

| Slide 13

Mine Location Intelligence (https://vimeo.com/108124661)

Power Systems

Well positioned in attractive markets Power: a leading partner in the “big shift”

© ABB Group May 28, 2015

| Slide 15

Leading the transition to digital grid Big shift in the electrical value chain Traditional grid

© ABB Group May 28, 2015

| Slide 16

New grid

Solutions for a changing grid – digital substations Automating the grid

© ABB Group May 28, 2015

| Slide 17

Solutions for a changing grid – digital substations Automating the grid – IEC 61850 Station Bus IEC 61850 Station Bus between bays

IEC 61850-8-1

Interface to field Hardwired point to point connections between primary and all secondary equipment

Solutions for a changing grid – digital substations Automating the grid – IEC 61850 IEC 61850-8-1 GOOSE / MMS

Digital substation 1) All signals digital 2) Analog, status and commands 3) Acquire once, distribute on a bus

HSR/PRP IEC 61850-8-1 GOOSE IEC 61850-9-2 SV

IEEE 1588v2 C37.238-2011

Safety New sensors Less cabling / engineering

NCIT NCIT MU MU

NCIT

Non-conventional instrument transformers

Industrial Communication & Networking R&D

Industrial Communication & Networking Market Overview

[Industrial Ethernet book Issue 87/1]

© ABB Group May 28, 2015

| Slide 21

Industrial Communication & Networking Industrial Ethernet – an Outlook 





Introduction of Industrial Ethernet gave us +20 protocols, and: 

E.g. RSTP, MRP, PRP, HSR + proprietary protocols



E.g. IEC 62351 for security

Industrial Ethernet also enabled time synchronization 

SNTP



IEEE 1588v2

| Slide 22

IEEE C37.238-2011 (IEC 61850 profile)



IEEE 802.1AS-2011 (AVB profile)



Incompatibilities between these profiles are addressed

Solutions for a more deterministic Ethernet 

© ABB Group May 28, 2015



EtherCAT, PNIO IRT, etc

Industrial Communication & Networking Industrial Ethernet – an Outlook 

© ABB Group May 28, 2015

| Slide 23

802.1 TSN / Interworking 

802.1AS-2011/Cor 1 – Technical and Editorial Corrections



802.1ASbt – Timing and Synchronization: Enhancements and Performance Improvements



802.1Qbu – Frame Preemption



802.1Qbv – Enhancements for Scheduled Traffic



802.1CB – Frame Replication and Elimination for Reliability



802.1Qca – Path Control and Reservation



802.1Qcc – Stream Reservation Protocol (SRP) Enhancements and Performance Improvements



802.3br Interspersing Express Traffic Task Force



The intended result - “real time support” by the network

Industrial Communication & Networking Wireless Communication – an Outlook 

3G / 4G used e.g. for remote services, e.g. Robotics



The 5G vision by 5G PPP is:



© ABB Group May 28, 2015

| Slide 24



1000 X in mobile data volume / area



1000 X in number of connected devices / area



100 X in user data rate, data rate ≥ 10Gb/s



1/10 X in energy consumption compared to 2010



1/5 X in end-to-end latency reaching 5 ms for e.g. tactile Internet and radio link latency reaching a target ≤ 1 ms for e.g. Vehicle to Vehicle communication



1/5 X in network management OPEX



Aggregate service reliability ≥ 99.999%



Mobility support at speed ≥ 500km/h for ground transportation



Accuracy of outdoor terminal location ≤ 1 meter

[5G Vision brochure by 5G PPP]

The intended result - “real time support” by the mobile network

Industrial Communication & Networking Wireless Communication – an Outlook Wireless HART •



Standardization effort with goal to develop a single standard for instrumentation Wireless specification ratified 2007

ISA •

ISA100.11a, ratified 2009

WIA •

WIA-PA Chinese standardad Process Automation • WIA-FA Chinese standardad Factory Automation

Other • • • • • • © ABB Group May 28, 2015

802.11 Bluetooth WISA Profinet over Wireless ZigBee Proprietary | Slide 25

Monitoring / Control Co-existence Regulations

Industrial Communication & Networking Wireless Communication – an Outlook 

Automation applications have different requirements 

For WirelessHART the one hop latency time is theoretically about 30 milliseconds but in practice up to 2-3 seconds

 WirelessHART is used for monitoring, slow process  Control requires deterministic latency, often < 30 ms 

Co-existence challenge 



© ABB Group May 28, 2015

| Slide 26

The same medium is used by multiple wireless systems for radio transmissions

Regulations challenge

Industrial Communication & Networking Vertical Communication – an Outlook 



© ABB Group May 28, 2015

| Slide 27

OPC-UA (IEC 62541) makes cross-domain integration much easier (conclusion by Industry 4.0) 

OO, data models and communication



Real-time capabilities is addressed by OPC Foundation, guess how?

Other alternatives 

IEC 61850 (power domain)



OPC-DA (Predecessor of OPC-UA)



DCOM



OBIX (building automation domain)

Industrial Communication & Networking Automation Communication – an Outlook 

© ABB Group May 28, 2015

| Slide 28

How can these new communication properties be utilized? 

+40 Industrial Ethernet protocols?



Process plant operators?



Process automation?



Grid / Substation automation?



Industrial Internet of Things, Services and People?

Industrial Communication & Networking Summary 





© ABB Group May 28, 2015

| Slide 29

Automation examples 

Oil & Gas, Mining



Digital substation

Research & Development examples 

TSN



5G



WSN



OPC-UA

Industrial domain 

Long lived systems



Add-on instead of replace

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