Agenda
Testing Considerations
Physical Layer Design Consideration Logical Design Considerations
EtherNet/IP Considerations Additional On-site Information
What you will learn
Design guidance, recommendations, best practices and solutions
developed by Rockwell Automation and our ecosystem of partners to help customers successfully design and deploy robust, secure and
future-ready Plant-wide EtherNet/IP networks utilizing common network
EtherNet/IP Network Infrastructure Booth
Additional On-site InformationNetwork Infrastructure Wall
Additional On-site Information Integrated Architecture – Booth 915
Cisco – Booth 1307
Industrial Intelligence enabling secure network access, cloud computing, mobility and
collaboration solutions
Panduit – Booth 1301
Enterprise and industrial automation Unified Physical Infrastructure (UPI)
Fluke Networks – Booth 1511
Common tool sets for enterprise and industrial automation applications
Convergence-Ready OEM Machine High Availability Time Synchronization Integrated Safety Integrated Motion Convergence-ReadyOEM Machine
Workshops, Hands-On Lab
Additional On-site Information L19 - Applying EtherNet/IP in Real-Time Applications
Rockwell Automation
8:00AM, 10:00AM, 12:30PM, 2:30PM
W15 - Designing EtherNet/IP Machine Level Networks
Rockwell Automation
12:30PM
W16 - Fundamentals of Securing EtherNet/IP Networks
Rockwell Automation and Cisco
2:30PM
W21 - Scalable Secure Remote Access Solutions
Rockwell Automation and Cisco
EtherNet/IP: “IP” - Industrial Protocol
EtherNet/IP Considerations Standard
IEEE 802.3 - standard Ethernet, Precision Time Protocol (IEEE-1588)
IETF - Internet Engineering Task Force, standard Internet Protocol (IP)
IEC - International Electrotechnical Commission – IEC 61158
ODVA - Common Industrial Protocol (CIP)
IT Friendly and Future-Ready (Sustainable)
Established - products, applications and vendors
Multidiscipline control and information platform
ODVA
Supported by global industry vendors such as
Cisco Systems®, Omron®, Schneider Electric®
Bosch Rexroth AG® and Rockwell Automation
Conformance & Performance Testing
http://www.odva.org
What’s the difference?
Ethernet IP
Converged Industrial Application
EtherNet/IP Considerations Machine Control and Operator Interface
Integrated Machine Safety
Time Synchronization
Integrated Motion
Video – inspection
Mobility & Collaboration
Controller
Motion Network Safety Network I/O Network Plant Network
Disparate Network Technology
Safety I/O
Single Network Technology
Camera Controller VFD Drive HMI I/O Servo Drive Plant
Plant-Floor Network Convergence
EtherNet/IP ConsiderationsEtherNet/IP – Enabling & Driving
Industrial Network Design Methodology
EtherNet/IP Considerations Understand application and functional requirements
Devices to be connected – industrial and non-industrial
Data requirements for availability, integrity and confidentiality
Communication patterns, topology and resiliency requirements
Types of traffic – information, control, safety, time synchronization, motion control, voice, video
Develop a logical framework (roadmap)
Define zones and segmentation
Place applications and devices in the logical framework
based on requirements
Develop a physical framework to align with and
support the logical framework
Determine security requirements
Take into consideration IT requirements
Establish early dialogue with IT for
plant-wide applications
Use technology & industry standards,
reference models and reference architectures
MANAGE / MONITOR IMPLEMENT AUDIT DESIGN/PLAN ASSESS
Avoiding
Network Sprawl!!
Because Network
Infrastructure Matters!!
Enabling Plant-wide Network Convergence
EtherNet/IP ConsiderationsSuccessful Plant-wide Network
Convergence Requires
Collaboration
Simplification
EtherNet/IP Ecosystem Partners
EtherNet/IP ConsiderationsPlant-wide EtherNet/IP Ecosystem - Design and Deployment
The Established #1 Industrial Ethernet
Network Testing, Verification, Certification & Troubleshooting Tools
Physical Layer Network Infrastructure IT Convergence
http://www.ethernetippartners.net/
Leader in Industrial Network
Infrastructure
EtherNet/IP Ecosystem Partners
EtherNet/IP ConsiderationsThese industry leaders are collaborating to provide recommendations, design guidance, best practices and solutions to help customers successfully design and deploy robust, secure and future-ready Plant-wide EtherNet/IP
networks utilizing common network infrastructure assets.
Enabling Network Convergence
Plant-floor (industrial) network convergence
Plant-floor & Enterprise (IT) network convergence
Providing Collateral Design Guides Application Guides Whitepapers Webcasts Seminars
EtherNet/IP Ecosystem Partners
EtherNet/IP ConsiderationsLogical Framework Physical Framework
Micro Data Center Racks Patching Cable Management Copper/Fiber Catalyst 3750 StackWise Switch Stack
FactoryTalk Application Servers
View Historian AssetCentre, Transaction Manager FactoryTalk Services Platform Directory Security/Audit Data Servers Gbps Link for Failover Detection Firewall (Active) Firewall (Standby) I/O Levels 0–2 HMI Cell/Area Zone #1 Redundant Star Topology Flex Links Resiliency
Cell/Area Zone #3 Bus/Star Topology Cell/Area Zones Demilitarized Zone (DMZ) Enterprise Zone Levels 4 and 5 Rockwell Automation Stratix 8000 Layer 2 Access Switch
Cisco ASA 5500
Industrial Zone Site Operations and Control
Level 3 Remote Access Server Catalyst 6500/4500 ERP, Email, Wide Area Network (WAN)
Network Services
DNS, DHCP, syslog server
Network and security mgmt
Drive Controller HMI I/O Controller Drive Controller Drive HMI Cell/Area Zone #2 Ring Topology
Resilient Ethernet Protocol (REP)
I/O I/O End Device Control Panel Network Zone Copper, Fiber, Wireless Testers Network Discovery Protocol Statistics Network Discovery Protocol Statistics Common Toolsets Patch Management Remote Gateway Services Application Mirror
AV Server Plant Firewall:
Inter-zone traffic segmentation
ACLs, IPS and IDS
VPN Services
Portal and Terminal Server proxy
Reference Architectures
Logical Design ConsiderationsRecommendations and guidance to help reduce Latency and Jitter, to
help increase data Availability, Integrity and Confidentiality, and to help design and deploy a Robust, Secure and Future-Ready EtherNet/IP
network infrastructure
Robust Physical Layer
Segmentation
Resiliency Protocols and Redundant Topologies
Time Synchronization
Prioritization - Quality of Service (QoS)
Multicast Management
Convergence-Ready Solutions
Security - Defense-in-Depth
Segmentation
Logical Design Considerations
Segmentation techniques for smaller building block approach, to create
smaller Layer 2 domains
Structure and Hierarchy
Logical Model – Geographical and Functional Organization of IACS Devices
Campus Network Model - Multi-tier Switch Model – Layer 2 & Layer 3
Logical Framework
Physical Segmentation
Multiple Network Interface Cards (NICs) - CIP Bridge
NAT Appliance
Logical Segmentation
VLANs
Minimize Network Sprawl
Smaller Fault Domains (e.g. Layer 2 loops)
Smaller Broadcast Domains
Segmentation - Physical - Isolation
Logical Design ConsiderationsController VFD Drive HMI I/O I/O Servo Drive Controller VFD Drive HMI I/O I/O Servo Drive Controller VFD Drive HMI I/O I/O Servo Drive Sneakernet Islands of Automation
Segmentation - Physical - Multiple NICs
Logical Design Considerations Isolated networks - two NICs for
physical network segmentation Converged networks – logical segmentation
Benefits
Clear network ownership demarcation line
Challenges
Limited visibility to control network devices for asset management
Limited future-ready capability
Benefits
Plant-wide information sharing for data collection and asset management
Future-ready
Challenges
Blurred network ownership demarcation line
Converged Network Shared Layer 2 Network VLAN 102 Control Network Levels 0-2 Plant Network Level 3 Layer 2 Network Layer 2 Network Control Network Levels 0-2 Plant Network Level 3
Segmentation - Physical - Multiple NICs
Logical Design Considerations Converged networks logical segmentation
-two NICs for scalability, performance, capacity and flexibility
Isolated networks - two NICs for
physical network segmentation
Benefits
Clear network ownership demarcation line
Challenges
Limited visibility to control network devices for asset management
Limited future-ready capability
Benefits
Plant-wide information sharing for data collection and asset management
Future-ready
Challenges
Blurred network ownership demarcation line
Layer 2 Network Layer 2 Network Segmented (using VLANs), Layer 2 Network VLAN 103 VLAN 102 Converged Network Control Network Levels 0-2 Plant Network Level 3 Control Network Levels 0-2 Plant Network Level 3
Segmentation - Physical - NAT Appliance
Logical Design ConsiderationsNAT 9300-ENA Machine 1 Subnet 10.10.10.0/24 Machine 2 Subnet 10.10.10.0/24 Line Subnet 10.17.10.0/24 Layer 2 Network Layer 2 Network Layer 2 Network
Segmentation – Logical - VLANs
Logical Design Considerations Layer 2 network service, VLANs segment a
network logically without being restricted by physical connections
VLAN established within or across switches
Data is only forwarded to ports within the
same VLAN
Devices within each VLAN can only
communicate with other devices on the same VLAN
Segments traffic to restrict unwanted
broadcast and multicast traffic
Software configurable using managed
switches
Benefits
Ease network changes – minimize network cabling
Simplifies network security management - domains
of trust
Increase efficiency
= VLAN 42 - Scanners/Cameras = VLAN 102 - EtherNet/IP Device = VLAN 10 - VoIP
Drive
Segmentation - Logical - VLANs
Logical Design Considerations Layer 2 VLAN Trunking
Independent of physical switch location
Logically group assets by type, role, logical
area, physical area or a hybrid of these
Devices communicate as if they are on the
same physical segment – no re-cabling required
Software configurable using managed
switches
A Layer 3 device (Router or Layer 3
switch) is required to forward traffic between different VLANs
Inter-VLAN routing
Segmentation - Logical - VLANs
Logical Design Considerations Multi-Layer Switch
Layer 2 VLAN Trunking
Layer 3 Inter-VLAN routing
= VLAN 42 – Scanners/Cameras = VLAN 102 – EtherNet/IP Device = VLAN 10 - VoIP
Drive
Controller HMI
= VLAN 42 – Scanners/Cameras = VLAN 102 – EtherNet/IP Device = VLAN 10 - VoIP Drive Controller HMI Layer 3 Switch Layer 2 Network
Multiple VLANs Layer 2 Network
Segmentation - Logical - VLANs
Logical Design ConsiderationsLevels 0–2 Cell/Area Zones Stratix 8000 (Layer 2) Switches Catalyst 3750 StackWise Switch Stack Servo Drive I/O Controller VFD Drive Industrial Zone Controller I/O VFD Drive I/O HMI I/O I/O Servo Drive Controller Controller I/O Safety I/O VFD
Drive Cell/Area Zone #2 VLAN 20 Subnet 10.20.10.0/24 Cell/Area Zone #3 VLAN 30 Subnet 10.30.10.0/24 Cell/Area Zone #4 VLAN 40 Subnet 10.40.10.0/24 Management VLAN VLAN 50 Subnet 10.50.10.0/24
Multiple VLAN Routing on Stratix 8000 (REP) Ring
Cell/Area Zone #1 VLAN 10 Subnet 10.10.10.0/24 HMI HMI HMI
Physical Layer Design Considerations
Design and implement a
robust physical layer
Environment Classification - MICE
More than cable
Connectors
Patch panels
Cable management
Grounding, Bonding and Shielding
(noise mitigation)
Standard Physical Media
Wired vs. Wireless
Copper vs. Fiber
UTP vs. STP
Singlemode vs. Multimode
SFP – LC vs. SC
Standard Topology Choices
Switch-Level & Device-Level
Cable Selection ENET-WP007
LAN Troubleshooting Guide
Industrial Ethernet Physical Infrastructure Reference Architecture Design Guide
ODVA Guide
Fiber Guide ENET-TD003
Unified Physical Infrastructure
Physical Layer Design ConsiderationsAlign Converge Optimize
Building: Enterprise Solution Plant-Floor: Industrial Automation Solution
Office: Data Center Solution
Network Infrastructure
Physical Layer Design Considerations
Fiber Routing Systems Copper Cabling Systems Fiber Cabling Systems Grounding & Bonding Systems Cable Management Cable Ties and Accessories Zone Cabling Systems Managed Network Systems Cabinets & Rack Systems Identification IN-ROUTE™ IN-FIELD™ IN-PANEL™ IN-ROOM™ IN-FRASTRUCTURE ™
Network Distribution Installation Pitfalls
Physical Layer Design ConsiderationsInstallation is critical for system performance, security and testability.
Office Industrial
Environmental Focus - M.I.C.E.
Physical Layer Design ConsiderationsTIA 1005
M.I.C.E. provides a method of
categorizing the environmental
classes for each plant Cell/Area zone.
This provides for determination of the level of “hardening” required for the network media, connectors,
pathways, devices and enclosures.
The MICE environmental
classification is a measure of product robustness:
Specified in ISO/IEC 24702
Part of TIA-1005 and ANSI/TIA-568-C.0
standards Examples of rating: 1585 Media : M3I3C3E3 M12: M3I3C3E3 RJ-45: M I C E ncreased Environmental Severity
Control Panel Solutions
Mitigate EMI noise risk, save space and optimize EtherNet/IP connectivity
S
f
Simplifying network
infrastructure from
Enterprise to Plant
Network Zone Enclosure
Building Block for Robust, Secure, Scalable Network Distribution
Micro Data Center
Building Block for Enterprise to Plant-Floor Convergence
Validated Building Blocks
Physical Layer Design ConsiderationsLeverage Reference Architecture & Validated Building Blocks
to Speed Deployment and Reduce Risks
Control Panel Networking
Physical Layer Design Considerations No room for deploying fiber or copper drops?
Concerns about high voltage, arc flash risks?
Need to improve manageability?
CONTROL PANEL TOO CROWDED FOR
Control Panel Networking
Physical Layer Design Considerations1. Mount Integrated Zone Enclosure- robust, secure, tested 2. Distribute copper or fiber to panel
3. Use DIN Patch box to patch to devices in panel
IN-FRASTRUCTURE -
Grounding/Bonding
Physical Layer Design Considerations
For the Data Center For Control Panels
Reduce risks of noise coupling at every level with robust,
structured grounding/bonding
Fiber Optic Infrastructure Planning
Physical Layer Design Considerations Joint application guide
Increase the integrity and
availability of EtherNet/IP networks with fiber solutions from trusted partners!
Polymer Coated Fiber:
Physical Layer Design Considerations
Defense-in-Depth - Physical Security
Physical Layer Design Considerations Keyed solutions for
copper and fiber
Lock-in, Blockout
products secure connections
Design/Spec Tools
Physical Layer Design Considerations
Robust, Secure, Future-Ready Network Distribution
Challenges:
Scalability issues
Diagnostics & troubleshooting
Evolving cable management
Solutions:
Building block approach
Media selection & security
Cable routing
BEFORE AFTER
Network Distribution Simplification
Summary
Physical Layer Design Considerations
Planning and installing physical
infrastructure based on standards, best practices and reference architectures will result in higher availability, integrity and performance
Need help? Leverage Ecosystem partners:
Rockwell Automation Network and
Security Services
Panduit Certified Installers
Fluke Networks’ training
Vision Strategy Execution
Because Network
Testing Considerations
Common Network Infrastructure Assets
Copper and fiber cable certification and troubleshooting Communication networks testing
Datacom Installers Enterprise IT Network
Engineers
Distributed and handheld LAN and WAN test and analysis
solutions
Control & Automation Engineers
Networks solutions from deployment,
to troubleshooting, testing, verification
The Network is Slow
Testing Considerations Voice Virus Hacking Multicast DNS Peer-to-peer Worms Top hosts, conversations, protocols What’s really happening on my network?Real World Example
Real World Example
Real World Example
What is important?
Testing ConsiderationsTroubleshoot copper, fiber and wireless LANs
Verify the quality of new and migratory
copper and fiber links
Provide advanced diagnostics to
pinpoint faults of network failure
Detect and solve security, coverage,
and interference problems on WiFi
Proper cabling + error free network communications = Healthy Network
Solve a wide range of physical and network layer problems fast
Guarantee network performance in new and existing networks
Measure end-to-end Ethernet performance
Monitor plant-wide network performance
Best Practices – Processes
Testing ConsiderationsPlanning & Documenting
Standards
Documentation & baselines
Have a documented plan - what, who, and how
Problem Prevention
Prevent problems before they happen
Do’s and Don’ts for end-users
Testing and certification
Early Problem Detection
Network monitoring
Periodic audits (update baselines)
Centralized help desk
Troubleshooting Methodology
Testing ConsiderationsStep 1 - Collect Information
Step 2 - Localize & Isolate the Problem Step 3 - Correct the Problem
Step 4 - Verify Problem Resolution Step 5 - Document What You Did
Cable Test Configurations
Testing ConsiderationsPerform channel testing with user cords connected
Performance specified for an application; transmission medium between transmitter
and receiver
Channel performance for installed cabling
Maintenance testing of “end-to-end” cabling of a network
Perform permanent link testing of “installed cabling”
Specify Permanent Link performance for installed cabling
Installation certification and Warranty service
Perform patch cord testing
The test limits are significantly more stricter for patch cord testing than channel testing.
For ring and linear topology today use channel testing
Compliant Permanent Link + Compliant Patch Cords =
Compliant Channel
Cabling Infrastructure Tools
Testing ConsiderationsFiber Certification Testing & Troubleshooting Used by fiber installers and network technicians
Certify each fiber link at installation and during unified migrations
Quickly test to basic/extended performance standards
Verify the quality of new fiber links with graphical traces
Troubleshoot quickly to distance to failures and reflectance, such as breaks & faults
Copper Certification Testing & Troubleshooting Used by cabling contractors and installers
Certify each copper link at installation
Quickly test to performance standards and document work
Qualify cabling performance & easily locate faults, opens & mis-wires
Network Installation Tools
Used by cabling installers and technicians
Installation tools to cut, strip and terminate copper connections.
Network Troubleshooting
Testing Considerations Switch Issues Port Problems Authentication Cable Faults VLAN Validation Device Issues DHCP Problems Availability Cable Faults Multicast Traffic Device Discovery Upstream FaultNetwork Solutions
Testing ConsiderationsPlant-wide tools (wired/wireless)
Intuitive, integrated solutions for LANs and
WLANs
Solve problems from application performance
to connectivity Network monitoring
Back-in-Time packet capture and
analysis
Troubleshoot real-time applications
including voice/video
The 2.4GHz and 5GHz RF represent the physical layer for 802.11 wireless LANs
2.4GHz 802.11b/g and 5GHz 802.11a
Not just 802.11 WiFi devices use these frequencies
Bluetooth, analog video cameras, cordless
phones, microwave ovens, motion sensors, florescent lights
The RF environment for good WiFi performance
Relatively free of interfering 802.11 and
non-802.11 devices
Adequate signal strength over the target
coverage area
Bluetooth Other Wi-Fi Networks
Microwave Ovens 2.4/5 GHz Cordless Phones Radar
Wi-Fi Troubleshooting
Testing ConsiderationsWireless Solution Portfolio
Testing Considerations Planning Deployment & Verification Troubleshooting & Interference 24x7 Performance & SecurityWired/WiFi Analysis WLAN Test & Analysis
OptiView® XG Portable Analyzer
Spectrum Analysis
AirMedic ®
USB Spectrum XTAirMagnet
AirCheck ™
Wi-Fi Tester AirMagnetWiFi VoFi AnalyzerAirMagnet Analyzer AirMagnet Enterprise AirMagnet Planner AirMagnet Survey OneTouch™ AT Network Assistant
Plant-Floor and Enterprise Requirements
Similarities and DifferencesSo, what are the similarities and
differences?
Plant-Floor (Industrial) Requirements Enterprise (IT) Requirements
Plant-Floor and Enterprise Requirements
Similarities and Differences Network Technology
Standard IEEE 802.3 Ethernet
Standard IETF Internet Protocol (IPv4
and IPv6)
Standard application layer protocols –
e.g. SNMP, DNS, RTP, SSH
Wide Area Network (WAN) and
LAN; larger packets and frames
Network availability
Switch-Level topologies
Redundant Star Topology is
predominant
Standard IEEE, IETF, and vendor
specific Layer 2 and Layer 3 resiliency protocols
Network Technology
Standard IEEE 802.3 Ethernet and
proprietary (non-standard) versions
Standard IETF Internet Protocol (IPv4) and
proprietary (non-standard) alternatives
Industrial application layer protocols
-e.g. CIP, Modbus TCP
Local Area Network (LAN);
smaller frames for control traffic
Network availability
Switch-Level and Device-Level Topologies
Ring Topology is predominant for both,
Redundant Star for switch topologies is emerging
Standard IEEE, IEC and vendor specific
Layer 2 resiliency protocols
Enterprise Requirements Plant-Floor Requirements
Plant-Floor and Enterprise Requirements
Similarities and Differences Switches
Managed
Layer 2 and Layer 3
Traffic types
Voice, Video, Data
Performance
Low Latency, Low Jitter
Data Prioritization – QoS – Layer 3
IP Addressing Dynamic Security Pervasive Strong policies Switches
Managed and Unmanaged
Layer 2 is predominant
Traffic types
Information, control, safety, motion,
time synchronization, energy management
Performance
Low Latency, Low Jitter
Data Prioritization – QoS – Layer 2 & 3
IP Addressing
Static
Security
Emerging: open by default, must close
by configuration and architecture
Inconsistent industrial security policies
Enterprise Requirements Plant-Floor Requirements
Plant-Floor and Enterprise Requirements
Similarities and Differences Wireless
Centrally managed and autonomous
Mobile personnel – BYOD
Guest access
Computing
Desktop, Notebook
Tablets
19” Rack Server and Blade Server
Unified Computing Systems (UCS)
Virtualization
Widespread
Environment
Data Center
Data Communication Closet
IDF - Intermediate Distribution Frame
Wireless
Autonomous – point solutions
Mobile equipment (emerging) and
personnel (prevalent)
Computing
Industrial Hardened Panel Mount
Computers and Monitors
Desktop
Notebook
19” Rack Server
Virtualization
Emerging, becoming prevalent
Environment
Plant-floor
Control Room
Enterprise Requirements Plant-Floor Requirements
Plant-Floor and Enterprise Requirements
Switching - Similarities and Differences
Industrial Ethernet Switches
Industrial hardened
Panel or DIN mount
Managed or unmanaged
IT Switches
Campus, Data Center
19” rack mount – e.g. 1RU
Plant-Floor and Enterprise Requirements
Policies - Similarities and DifferencesPlant-Floor Network Enterprise Network
Focus 24/7 Operations, High OEE Protecting Intellectual Property and Company Assets
Precedence of Priorities Availability Integrity Confidentiality Confidentiality Integrity Availability
Types of Data Traffic Control, Information, Safety and Motion Converged Network of Data, Converged Network of Data, Voice and Video Access Control Simple Network Device AccessStrict Physical Access Strict Network Authentication and Access Policies Implications of a
Device Failure
Production is Down
($$’s/hour … or Worse) Work-around or Wait
Threat Protection Isolate Threat but Keep Operating Shut Down Access to Detected Threat
Organizational and Cultural Convergence
Plant-Floor and Enterprise Requirements IT and Plant-Floor Engineering
collaboration and sharing of best practices on:
Standardization of design and technology
System architecture design
Protocols and services
Service and support models
Industrial Security Policy
Consult reference architectures,
reference models and industry standards: Network Segmentation Network services Domains of Trust An open, two-way dialogue is critical!
Converged Plantwide Ethernet (CPwE)
Plant-Floor and Enterprise Requirements Plant-Floor and Enterprise
network convergence
Plant engineer and IT network
engineer collaboration Plant-wide EtherNet/IP Architectures Hierarchical segmentation Scalability Resiliency Traffic management Policy enforcement Security policies Defense-in-depth
Secure remote access
Catalyst 3750 StackWise Switch Stack
FactoryTalk Application Servers
View Historian AssetCentre, Transaction Manager FactoryTalk Services Platform Directory Security/Audit Data Servers Gbps Link for Failover Detection Firewall (Active) Firewall (Standby) I/O Levels 0–2 HMI Cell/Area Zone #1
Redundant Star Topology Cell/Area Zone #3
Cell/Area Zones Demilitarized Zone (DMZ) Enterprise Zone Levels 4 and 5 Rockwell Automation Stratix 8000 Layer 2 Access Switch
Cisco ASA 5500
Cisco Catalyst Switch
Industrial Zone Site Operations and Control
Level 3 Remote Access Server Catalyst 6500/4500 Patch Management
Remote Gateway Services Application Mirror AV Server
ERP, Email, Wide Area Network (WAN)
Network Services
DNS, DHCP, syslog server
Network and security mgmt
Drive Controller HMI I/O Controller Drive Controller Drive HMI Cell/Area Zone #2 Ring Topology I/O I/O Plant Firewall:
Inter-zone traffic segmentation
ACLs, IPS and IDS
VPN Services
Portal and Terminal Server proxy
Common Network Infrastructure Assets
Enterprise (IT) Network Convergence Campus network framework for structure and hierarchy
best practices
Unified communications for mobility and collaboration
Voice, video & data
Unified computing systems for server, switch and firewall
virtualization
Integration with Cisco and IT network management
applications
Resiliency and availability features
REP, Flex Links, HSRP, StackWise
EtherNet/IP Advantage Summary
Single Network Technology for:
Discrete Control, Process Control, Batch Control, Configuration,
Information/Diagnostics, Safety Control, Time Synchronization, Motion Control and Energy Management
Established – 300+ Vendors, over 5,000,000 nodes
ODVA: Cisco Systems and Rockwell Automation are principal members
Supported – All EtherNet/IP products require conformance testing
Standard – IEEE 802.3 Ethernet and IETF TCP/IP Protocol Suite
IT friendly
Future-ready – Sustainable; Industry Standards
Topology & Media Independent – flexibility and choice
Portability and Routability
Physical layer and data link layer independence; seamless data forwarding
Common industrial application layer protocol
DeviceNet, ControlNet and EtherNet/IP
Additional Material
ODVA Website:
http://www.odva.org/
Media Planning and Installation Manual
http://www.odva.org/Portals/0/Library/Publications_Numbered/PUB00148R0_EtherNetI
P_Media_Planning_and_Installation_Manual.pdf
Network Infrastructure for EtherNet/IP: Introduction and Considerations
http://www.odva.org/Portals/0/Library/Publications_Numbered/PUB00035R0_Infrastruct
ure_Guide.pdf
Device Level Ring
http://www.odva.org/Portals/0/Library/CIPConf_AGM2009/2009_CIP_Networks_Conference_Tec
hnical_Track_Intro_to_DLR_PPT.pdf
The CIP Advantage
Additional Material
Rockwell Automation Networks Website: http://www.ab.com/networks/
EtherNet/IP Website: http://www.ab.com/networks/ethernet/
Media Website: http://www.ab.com/networks/media/ethernet/
Embedded Switch Technology Website:
http://www.ab.com/networks/switches/embedded.html
Publications:
ENET-AP005-EN-P Embedded Switch Technology Manual
ENET-UM001G-EN-P EtherNet/IP Modules in Logix5000 Control Systems …. provides
connection and packet rate specs for modules
1783-UM003 Stratix 8000 and Stratix 8300 Ethernet Managed Switches User Manual ENET-WP0022 Top 10 Recommendations for plant-wide EtherNet/IP Deployments ENET-RM002A-EN-P Ethernet Design Considerations Reference Manual
ENET-AT004A-EN-E Segmentation Methods within the Cell/Area Zone
ENET-RM003A-EN-P Embedded Switch Technology Reference Architectures
Network and Security Services Website:
Additional Material
Fluke Networks Fluke Networks Websites
www.flukenetworks.com
www.flukenetworks.com\industrial
www.flukenetworks.com\knowledgebase
Frontline troubleshooting best practices
http://www.flukenetworks.com/FNet/en-us/findit?Document=9822807
Frontline LAN Troubleshooting Guide
http://networking.flukenetworks.com/?elqpurlpage=258&document=3331616
Industrial Ethernet Resource Portal
Additional Material
Panduit Corp Panduit Corp. Website:
http://www.panduit.com/
Industrial Automation Solutions:
http://www.panduit.com/Solutions/IndustrialAutomation/index.htm Industrial Automation Product Systems Brochure
Additional Material
Panduit, Cisco, Rockwell Automation Collaboration Plant-wide EtherNet/IP Ecosystem Partners Website
Fiber Optic Infrastructure Application Guide
Additional Material
Cisco and Rockwell Automation Alliance
Websites
http://www.ab.com/networks/architectures.html
Design Guides
Converged plant-wide Ethernet (CPwE)
Application Guides
Fiber Optic Infrastructure Application Guide
Education Series
http://www.ab.com/networks/architectures.html
Whitepapers
Top 10 Recommendations for plant-wide EtherNet/IP
Deployments
Securing Manufacturing Computer and Controller Assets Production Software within Manufacturing Reference
Architectures
Achieving Secure Remote Access to Plant-Floor Applications
Additional Material
Cisco and Rockwell Automation Alliance
Education Series Webcasts
What every IT professional should know about Plant-Floor Networking
What every Plant-Floor Engineer should know about working with IT
Industrial Ethernet: Introduction to Resiliency
Fundamentals of Secure Remote Access
for Plant-Floor Applications and Data
Securing Architectures and Applications
for Network Convergence
IT-Ready EtherNet/IP Solutions
Available Online
Additional Material
Network Sessions Fundamentals of EtherNet/IP
Networking
Designing the Physical Layer for
EtherNet/IP
Plant-floor and Enterprise Network
Convergence
Networking Design Considerations for
Real-Time EtherNet/IP Performance
Fundamentals of Network Resiliency
and Redundancy for EtherNet/IP
Fundamentals of Securing EtherNet/IP
Additional Material
Network Sessions
Knowledge
Network – Virtual Learning Series for
Partners
April 20th, 2010: Fundamentals of EtherNet/IP Networking
April 27th, 2010: Designing the Physical Layer for EtherNet/IP
May 4th, 2010: Fundamentals of Securing EtherNet/IP Networks
May 11th, 2010: Networking Best Practices for Real-Time- EtherNet/IP
Performance
May 18th, 2010: Fundamentals of Network Resiliency and Redundancy
for EtherNet/IP
July 13th, 2010: IT-Ready EtherNet/IP Network Solutions
August 10th, 2010: Physical Layer Reference Architectures for
Additional Material
Network Sessions NIS01 Designing the Physical Layer for EtherNet/IP
NIS02 Fundamentals of Securing EtherNet/IP Networks
NIS03 Scalable Secure Remote Access Solutions
NIS06 Fundamentals of EtherNet/IP
NIS08 EtherNet/IP Network Design Fundamentals
NIS09 EtherNet/IP Layer 3 Networking Capabilities
NIS10 Designing EtherNet/IP Machine-Level Networks
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Plant-wide Network Infrastructure
Workshop 14 - Automation Fair 2012
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