Experion Simulation Specification

Experion Simulation Specification

Technical Information

EP03-360-520 Release 520

21 September 2021, Version 1.0

Experion Simulation Specification, EP03-360-520 1

Version 1 Honeywell Proprietary 21 September 2021

Revision History

Revision Date Description

1.0 21 September 2021 Release version



Table of Contents

1. Product Introduction ...................................................................................................................................................... 3

1.1. Experion System ....................................................................................................................................................... 3

1.2. Architecture Overview ............................................................................................................................................... 3

1.3. Experion Simulation Overview .................................................................................................................................. 4

1.4. Available simulation environments ............................................................................................................................ 5

1.5. UNISIM compatibility ................................................................................................................................................. 5

1.6. Features with limited support .................................................................................................................................... 5

2. Simulation Capacity and Performance ......................................................................................................................... 8

2.1. Simulation Capacity Limits ........................................................................................................................................ 8

2.1.1. Simulation Capacity Definitions ............................................................................................................................................ 8

2.1.2. Simulation Capacity Formulas ............................................................................................................................................. 8 2.2. Simulation Performance ............................................................................................................................................ 9

2.2.1. SIM-C200 / SIM-C200E Configuration Options .................................................................................................................... 9

2.2.2. SIM-C300 Configuration Options ........................................................................................................................................10

2.2.3. SIM-ACE Configuration Options .........................................................................................................................................10

2.2.4. SIM-FFD Configuration Options ..........................................................................................................................................11

2.2.5. SIM-C200, SIM-C200E, SIM-C300 Communications Performance .....................................................................................12

2.2.6. SIM-ACE Communications Performance ............................................................................................................................13

2.2.7. SIM-FFD Communications Performance .............................................................................................................................13

2.2.8. UNISIM performance ..........................................................................................................................................................14

2.2.9. Simulation Node Performance ............................................................................................................................................14 3. Model Numbers ............................................................................................................................................................. 15

3.1. Simulation as part of an on process control system ................................................................................................ 15

3.2. Simulation node Platform Requirements ................................................................................................................. 15

3.3. Simulation as part of an operator training system ................................................................................................... 16

4. Glossary ........................................................................................................................................................................ 19



1. Product Introduction

1.1. Experion System

The Experion Process Knowledge System (PKS) is Honeywell’s unified control system for process, business, and asset

management that helps industrial manufacturers increase their profitability and productivity. Experion takes customers well

beyond distributed control system (DCS) functionality with an advanced automation platform solution and innovative

application integration to improve business performance and peace of mind.

Refer to the “Experion CEE-based Controllers and I/O Overview” (document number EP03-290-rrr) for prerequisite

information. This document is written with the expectation that the reader understands the information and concepts covered

in the overview document.

1.2. Architecture Overview

The Experion platform comprises many different integrated hardware and software solutions depending upon the needs of

the application. This pictured architecture is a representation of many of the possible nodes that can be utilized in the

Experion architecture. Note that the architecture is highly scalable and not all nodes are necessary or required.

Figure 1 - Sample Experion Architecture



1.3. Experion Simulation Overview

The Experion simulation capability supports two types of control simulation, one is where an engineer would like to do control

strategy checkout. In this case the engineer can configure a tail to mouth closed loop with a delay function to test a control

strategy or he can do open loop testing by simulating input values directly from the Control Builder interface.

The second type is the operator training simulation in combination with the Honeywell’s UNISIM product. In the latter case

the process is simulated by the UNISIM process simulator using actual output values from the controller simulation and

feeding new input values back to the control simulation. The complete system behaves as if it was controlling the real plant.

Release 520 Experion Simulation Specification® 22 September 2021 Version 1

1.4. Available simulation environments

The Experion system currently supports the following simulated control environments:

• SIM-C200 ; this is the simulation environment for the C200 controller

• SIM-C200E; this is the simulation environment for the C200E controller

• SIM-C300 ; this is the simulation environment for the C300 controller

• SIM-IOLIM; this is the simulation environment for the IOLIM module used to connect PMIO to the C200 controller

• SIM-ACE; this is the simulation environment for the Application Control Environment

• SIM-FFD; this is the simulation environment for the Series C Fieldbus Interface Module (FIM4, FIM8)

• SIM-EHPM, this is the simulation environment for the EHPM controller

All simulation environments execute on a server grade PC platform, each platform supports multiple simulation

environments.

1.5. UNISIM compatibility

A simulation environment needs to support advanced simulation capabilities like controller freeze, step execution, unfreeze

and dynamic data save and restore to be fully usable in an operator training scenario. The table below shows the simulation

environments compatibility

Simulation environment Compatible Description

SIM-C200 Yes

SIM-C200E Yes

SIM-C300 Yes

SIM-IOLIM Yes

SIM-ACE See 2.6 Some OTS operation is supported. See Section

2.6.

SIM-FFD No Advanced simulation capabilities not supported

by SIM-FFD.

1.6. Features with limited support

The SIM-C200, SIM-C200E, and SIM-C300 have limited support for certain IO related function blocks. However the normal

chassis, Rail IO (C200/C200E only) and PMIO modules and their associated channel are all supported blocks.

The following function blocks are not supported on SIM-C200/SIM-C200E or have limited support through UNISIM.

Limited support Description

PMIO HART The digital part of the Hart signal, Analog part is supported

Series A HART IO The digital part of the Hart signal, Analog part is supported

QIPACTERM Not supported



JAGXTERM Not supported

Mettler Toledo Integration Not supported

LC620 IO interface (LIOM) Not supported

IOMB and PB Channels Not supported

The following function blocks are not supported on SIM-C300 or have limited support through UNISIM.

Limited support Description

Fieldbus Foundation Fieldbus not supported, only through replacement with

standard IO types

PMIO HART The digital part of the Hart signal, Analog part is supported

Series C Hart IO The digital part of the Hart signal unsupported, Analog part is

supported.

QIPACTERM Not supported

JAGXTERM Not supported

Mettler Toledo Integration Not supported

IOMB and PB Channels Not supported

The table below details what is and is not supported on SIM-ACE through UNISIM.

Feature Description

Freeze/Unfreeze of SIM-ACE Supported

Dynamic Snapshot Save/Restore of SIM-

ACE and its CEE and all function blocks

from UniSim

Supported

Single/Multiple Stepping without STEPTIME

support

Supported

SCM Dynamic Fetch Supported

OPC Gateway Simulation. Supported

Inter-cluster communication using SIM-ACE

and SIM-ICG

Supported

Events Regeneration after dynamic

snapshot restore from UniSim

Supported

Bi-directional peer to peer communication

with other simulation environments

Supported

Ability to read data from on-process

controllers

Supported

Fast/Slow Execution support Not Supported

Longer Periods

(up to 24 hour execution period)

DSD save/restore not supported

Process Special (triggered execution) DSD save/restore not supported

CAB - Snapshot save/Restore support DSD save/restore may cause unpredictable results



Feature Description

CAB Background Execution

(running but not part of the cycle)

DSD save/restore may cause unpredictable results

OUT Blocks testing with UniSim.

(e.g. HIWAYOUT, UCNOUT)

Not supported



2. Simulation Capacity and Performance

2.1. Simulation Capacity Limits

Simulation Capacity Limits

Simulation Capacity Description Limit

Number of SCE nodes allowed per server cluster Only constrained by limits below

FTE ControlNet

Number of SIM-Cxxx Nodes allowed per server

(Includes Real Nodes and SIM Nodes connected to the same server network)

20 10

Number of SIM-ACE Nodes allowed per server


7 2

Number of SIM-FFD Nodes allowed per server


125 N/A

2.1.1. Simulation Capacity Definitions

HFD – High Fidelity Deterministic Simulation

This Simulation Configuration is required when the Experion Simulation System is integrated with the UniSim Operator

Training System (OTS). When this configuration is required, the SIM-XXX Nodes loaded on the SCE (Simulation Control

Environment) Server are expected to execute “deterministically” in the same Guaranteed Execution Order (GEO) and with

SIM-Cxxx CEE average base cycle executing every 50ms, and SIM-ACE CEE average base cycle every 500ms. In this

case, the Server PC performance and the quantity of SIM-CEEs loaded are very important and must adhere to the formula

listed below.

SCSC – System Configuration and Strategy Checkout Simulation

This Simulation Configuration can be used when Experion Simulation is not integrated with UniSim, but is being used by

Project Engineers or Customers to configure, load, and debug control strategies on the Experion system prior to actual

Controller & I/O Hardware being available. When this configuration is selected, the SIM-XXX Nodes loaded on the SCE

Server are expected to execute in the same Guaranteed Execution Order (GEO), but NOT necessarily in the same

Execution Time Periods as they would behave in their Native environment. In this case, the Server PC performance and the

quantity of SIM-CEEs loaded are not as important.

2.1.2. Simulation Capacity Formulas

The capacity limits for the Simulation Control Environment (SCE) Server is variable based upon the selected Server PC (the

total number of processor cores) and the simulation type (HFD or SCSC) required and the mix of SIM-XXX nodes loaded on

the SCE server.

HFD – High Fidelity Deterministic Simulation

For HFD, the number of cores required on the simulation control environment (SCE) server is determined by the following

formula:

Cores Required = #SIM-ACEs + 0.4 x (#SIM-C300s + #SIM-C200s + #SIM-C200Es) + 0.1 x (#SIM-FFDs1 + #SIM-IOLIMs)



Notes:

1. Deterministic SIM-FFD integrated with UniSim is not supported.

The following example configurations would all require a 4 core machine:

• 10 SIM-C300s only

• 8 SIM-C200s and 8 SIM-IOLIMs

• 4 SIM-C200s, 4 SIM-C200Es and 8 SIM-IOLIMs

• 4 SIM-ACEs only

SCSC – System Configuration and Strategy Checkout Simulation

Capacity limits per SCE node for SCSC are not published or validated, and are generally described as “unlimited” within

certain overall server PC resource (CPU and memory) constraints, controller, FIM, and ACE limits per Experion server, and

overall CDA PPS performance per SCE. SIM-XXX nodes loaded in an SCSC configuration are automatically supported for

guaranteed execution order (GEO) because the CEE design always enforces ORDERINCEE and ORDERINCM, regardless

of the CPU and Memory resources available. However, the execution time period (base cycle) is not enforced, and as the

server CPU and memory become exhausted, all loaded SIM-CEEs will “slow down”. If there are “deterministic” requirements

for the Strategy Checkout, then the formula used above for HFD should be adhered to.

2.2. Simulation Performance

2.2.1. SIM-C200 / SIM-C200E Configuration Options

Simulation Node Configuration Options SIM–C200 & SIM–C200E

Base Execution Periods Supported 50 ms

Controller Redundancy Not applicable

Remote I/O Supported 3 Yes, to simulated IO

I/O Module Execution Period 50 ms

PM I/O supported 3 Yes, through SIM-IOLIM

Maximum Number of SIM-IOLIMs per simulated controller 2

Configurable Values for CM/SCM Execution Periods 50, 100, 200, 500, 1000 and

2000 ms

Configurable Values of Peer Update Rates (period). 1

Defines the period at which data is updated for all ‘pull/get’

requests for peer data required by all blocks within a SIMCEE.

100, 200, 500, & 1000 ms.

Configurable FB Pool Size See Note 2

Note 1 – Applies to all CEE peers of a SIM-C200 or SIM-C200E

Note 2 – The function block pool size is not configurable on each SIM-C2xx since this is a

simulation of the C2xx environment. The memory will be internally allocated to match what

is supported on the C200 (4MB) and C200E (16MB).

Note 3 – Module & IOP simulation is supported by no communication to any real on-process IOLIM

or other I/O is allowed.



2.2.2. SIM-C300 Configuration Options

Simulation Node Configuration Options SIM–C3003

Base Execution Periods Supported 50 ms

Controller Redundancy Supported Not applicable

Maximum Number of SIM-C300s per four core Simulation node 2 10 (guaranteed determinism)

20 (guaranteed execution

order)

Configurable Values for CM/SCM Execution Periods 50, 100, 200, 500, 1000 and

2000 ms

Configurable Values of Peer Update Rates (period). 1,2



100, 200, 500, & 1000 ms

Configurable FB Pool Size See Note 2

Note 1 – Applies to all CEE peers of a SIM-C300

Note 2 – The function block pool size will not be configurable on each SIM-C300 since this is a

simulation of the C300 environment. The memory will be internally allocated to match the

C300 (16 MB).

Note 3 – Simulation for the 20ms C300 Controller is not supported.

2.2.3. SIM-ACE Configuration Options

Simulation Node Configuration Options SIM–ACE

Base Execution Periods Supported 3 500 ms

Controller Redundancy Supported Not supported

Configurable Values for CM Execution Periods 500 ms, 1s, 2s, 5s, 10s, 20s,

30s, 1min, 2min, 5min,

10min, 20min, 30min, 1hr,

2hr, 4hr, 8hr, 12hr, 24hr

Configurable Values for SCM Execution Periods 500 ms, 1s, 2s, 5s, 10s, 20s

Configurable Values of Peer Update Rates (period). 1



500 ms, 1s, 2s, 5s, 10s

Configurable FB Pool Size 2 32M, 64M, 96M, 128M

Note 1 – Applies to all CEE peers of a SIM-ACE

Note 2 – Matches capability of ACE.



2.2.4. SIM-FFD Configuration Options

Simulated FF System Specifications

Capacity Description SIM-FIM21 SIM-FIM4 SIM-FIM8

Maximum Number of SIM-FIMs per

Controller

Notes: C300 only supports SIM-FIM4 & SIM-FIM8

N/A 15

Redundant or non-redundant in

any combination

(60 H1 Links)

8

Redundant or non-redundant

in any combination

(64 H1 Links)

Maximum Number of SIM-FIMs per Server

Note: Combinations of FIM2, FIM4, & FIM8 and

Simulated FIMs on the same Server is supported on

FTE-based systems at the 125 FIM limit.

N/A 125

Redundant or non-redundant in

any combination of FIMs and

Simulated FIMs

125

Redundant or non-redundant

in any combination of FIMs

and Simulated FIMs

Number of Simulated H1 Links per FIM N/A 4 8

Maximum Number of Simulated FF Blocks per

Fieldbus Device

N/A 30 30

Maximum Number of Simulated FF Blocks per

SIM-FIM

ATTENTION

Note: Blocks are counted whether or not the

FF Device’s Blocks are being used/loaded or

not in the FIM strategy. Resources to

support every Device’s Block set must be

reserved when the FF Device is configured

on one of the FIM’s H1 Networks.

N/A 1600 3200

Maximum Number of Unique FF Block Types

per SIM-FIM

Note: Unique FF Block Types are defined as the

number of unique blocks across all devices

connected to a FIM. Each time a new unique device

is connected to the link, one unique block type may

be reserved for each unique block in that device.

For example, suppose device X, containing an AI

and a PID block, is connected to a FIM. This would

reserve two unique block types. Adding several

more of this device to the FIM would not require

additional unique block types. Suppose a different

device Y, containing an AO, is connected to the FIM.

This would reserve one unique block type.

N/A 200 200

Maximum Number of Parameters in SIM-FIM

cache

Note: The maximum number of parameters in the

SIM-FIM cache defines the maximum number of

parameters that may be accessed for control,

monitoring, and configuration at any given time.

N/A 1600 1600

Note 1 – SIM-FFD does not support simulated FIM2.



2.2.5. SIM-C200, SIM-C200E, SIM-C300 Communications Performance

Controller Communications Performance SIM–C200 &

SIM-C200E SIM-C300

Overall Communications Performance 50ms CEE 50ms CEE

Maximum Total Parameter Access Response Rate from UniSim simulator (only

applicable for HFD Simulation Type)

1000 PPS 1000 PPS

Maximum Total Parameter Access Response Rate

(Includes display, Fast/Slow History, Excel I/ODBC Exchange, and peer

communications, excludes UniSim access above)

2000 PPS 2500 PPS

Display Data Access Capacity 50ms CEE 50ms CEE

Maximum Total Subscribed Parameters per CEE

(Includes all Server Data Requests and Console Station Data Requests)

2000 3000

Request / Response Data Access Performance 50ms CEE 50ms CEE

Maximum Request / Response Parameter Access Rate

(Includes all Slow Server Data Requests, e.g. >10 sec OPC data, Slow History,

Data Writes, etc…)

3000 PPM Read

1500 PPM Write

3000 PPM

Read

1500 PPM

Write

Peer-to-Peer Communications Performance per SIM CEE 50ms CEE 50ms CEE

Maximum number of peer to peer connections initiated to other allowed CEE type

environments

30

30

Maximum number of peer to peer connections as target, initiated by other allowed

CEE type environments

30

30

Maximum Initiator Node Pull/Get Request Rate (to all target nodes).

(Based on the number of requests for peer data and the peer update rate.)

500 PPS

with

50 @ 100 ms

100 @ 200 ms

250 @ 500 ms

500 @ 1 sec

1000 PPS

with

100 @ 100 ms

200 @ 200 ms

500 @ 500 ms

1000 @ 1 sec

Maximum Target Node Response Rate to Pull/Get Requests (from all initiator

nodes).

500 PPS 1000 PPS

Maximum Initiator Node Push/Store Request Rate (to all target nodes)1,2 50 PPS 50 PPS

Maximum Target Node Response Rate to Push/Store Requests (from all initiator

nodes).

50 PPS 50 PPS

Exchange Block Simulation Capacity 50ms CEE 50ms CEE

Maximum Number of REQUEST blocks per CEE/CPM 32 32

Maximum Number of RESPONSE blocks per CEE/CPM 32 32

Maximum Number of “active” Target Devices (connections available) for REQUEST

blocks per SIM-CEE/CPM.

(See Note 3) (See Note 3)

Definition: PPS = Average Parameters per Second

Note 1 – Currently the SCM Step and Push blocks are the only block types that can initiate peer push/store requests for CEE-

to-CEE peer communications.

Note 2 – Simulation Nodes cannot actually write data to any “On-Process” nodes, nor can any “On-Process” nodes read

Simulation Node data.

Note 3 – The simulated Request Exchange Blocks do not actually communicate with their corresponding target Response

Blocks within or outside the simulation environment.



2.2.6. SIM-ACE Communications Performance

Controller Communications Performance SIM–ACE

Overall Communications Performance per SIM-ACE 500ms CEE

Maximum Total Parameter Access Response Rate

(Includes display, Fast/Slow History, Excel I/ODBC Exchange, and peer

communications)

3000 PPS

Display Data Access Capacity 500ms CEE

Maximum Total Subscribed Parameters per SIM-ACE

(Includes all Server Data Requests and Console Station Data Requests)

6000

Request / Response Data Access Performance 500ms CEE

Maximum Request / Response Parameter Access Rate

(Includes all Slow Server Data Requests, e.g. >10 sec OPC data, Slow History, Data

Writes, etc…)

3000 PPM Read

1500 PPM Write

Peer-to-Peer Communications Performance per SIM CEE 500ms CEE

Maximum number of peer to peer connections initiated to other allowed CEE type

environments

30

Maximum number of peer to peer connections as target, initiated by other allowed

CEE type environments

30

Maximum Initiator Node Pull/Get Request Rate (to all target nodes).

(Based on the number of requests for peer data and the peer update rate.)

1000 PPS

with

500 @ 500 ms

1000 @ 1 sec

2000 @ 2 sec

5000 @ 5 sec

10000 @ 10 sec

Maximum Target Node Response Rate to Pull/Get Requests (from all initiator nodes). 1000 PPS

Maximum Initiator Node Push/Store Request Rate (to all target nodes)1,2 50 PPS

Maximum Target Node Response Rate to Push/Store Requests (from all initiator

nodes).

50 PPS

Definition: PPS = Average Parameters per Second

Note 1 – Currently the SCM Step and Push blocks are the only block types that can initiate peer push/store requests

for CEE-to-CEE peer communications.

Note 2 – Simulation Nodes cannot actually write data to any “On-Process” nodes, nor can any “On-Process” nodes

read Simulation Node data.

2.2.7. SIM-FFD Communications Performance

SIM-FFD Communications Performance1

Capacity Description SIM-FIM4 SIM-FIM8

Maximum Peer Connections per SIM-FIM 2,3 5 5

FIM Publication Options 4

Note: The FIM Publication Method (PUBMETHOD) is configurable on a per segment

N/A N/A



/ H1 network basis on the FF Link function block and controls how frequently data is

published between the FIM2/FIM4/FIM8 and C200/C300 controller.

Overall Data Access Performance – CDA per SIM-FIM 5 1200 PPS 2000 PPS

FIM Cache Parameter Refresh Rate

Note: SIM-FIM Cache will refresh “simulated” parameter values at a maximum rate

of once per second.

1 sec 1 sec

Note 1 – UniSim does not support SIM-FFD.

Note 2 – SIM-FFD does not support Simulation for FIM2.

Note 3 – Simulation nodes cannot actually write data to any “On-Process” nodes, nor can any “On-Process” nodes read

simulation node data.

Note 4 – This option is not supported in the SIM-FFD environment. The SIM-FFD P2P rate will behave like the “immediate”

option.

Note 5 – Subject to the overall SCE CDA limit.

2.2.8. UNISIM performance

UniSim Performance

Communication performance 1000 pps per controller

Server cluster communication performance 16000 pps (R301)

20000 pps (R310)

SCADA Communication performance per Experion cluster 40000 pps

Dynamic snapshot restore – Persistent UniSim snapshots < 4 seconds

Dynamic snapshot restore – Non-persistent UniSim snapshot < 2 seconds

Dynamic snapshot save – Persistent UniSim Snapshots < 2 seconds

Dynamic snapshot save – Non-persistent UniSim Snapshots < .5 seconds

Base Execution period 125 ms

Concurrent Experion Servers supported 5

Note 1 – Specs represent one Shadow Plant interface engine, multiple Shadow Plant engines can

be run under one UniSim Operations session, so this spec is only hardware bound.

2.2.9. Simulation Node Performance

SCE Communications Performance

Overall Communication performance Per SCE

Maximum Total Parameter Access Response Rate for all loaded

SIM CEEs in a single SCE

(includes UniSim Simulator access – if HFD, Display, Fast/Slow

History, Excel I/ODBC Exchange, and peer communications)

10000 PPS



3. Model Numbers

3.1. Simulation as part of an on process control system

Simulation components can be used in as part of an on process system. In this case the user has the ability to add any

optional feature that an Experion system supports.

Simulation controllers can be added to an on process system by using the flowing the model numbers.

Model Number Description

TC-SIMCX1 Cxxx (C200/C300) Simulation Control environment

TC-SIMAC1 ACE Simulation Control Environment

TC-FFLX01 Fieldbus usage License, 1 FIM




The SIM ACE does not support all simulation features. See section 2.6.

The simulated controllers count against the maximum number of controllers per Experion server.

Currently, this is 20 controllers (C200, C200E, C300, SIM-C200, SIM-C200E, SIM-C300) and 7 ACE nodes (ACE, SIM-

ACE).

3.2. Simulation node Platform Requirements

System Configuration Standard Performance

Processor Single CPU: 2.33 GHz Four

Core XEON or faster

Single CPU: 2.8 GHz Four Core XEON or

faster

RAM1 3 GB 1 4 GB 1

Networking 100 Mbps Ethernet or FTE

Video Resolution 1024 x 768 65K colors 1024 x 768 65K colors

Hard Drive 80 GB 160 GB

Example Hardware2

MZ-PCSV71, 72 - Dell Power Edge

T320 Tower

MZ-PCSV61 - Dell PE R320. 1U Rack

mount

MZ-PCSV81 - HP DL380G7. 2U Rack

mount

MZ-PCSV73 - Dell PE T320. Tower

Note 1 – For better performance, users should upgrade the systems with an additional 1GB of RAM.

Note 2 – The systems listed here are for comparison only. The default system configuration of this platform sold by

Honeywell will meet or exceed the recommended components listed.



3.3. Simulation as part of an operator training system

A special set of model numbers is available for complete standalone simulation systems. These systems come with pre

determined model number selections which cannot be changed or expanded up on. When additional features are required a

normal flexible Experion system license should be selected instead.

Attention: Separate licenses are required for UNISIM products.

The model numbers are:

Model Number Description

EP-OTS001 Operator Training System (contents described below)

EP-OTU010 OTS – Experion Server TPS Enabler

EP-OTU020 OTS – Experion Station TPS Enabler

EP-OTU030 OTS – CAB Developer

EP-OTU060 OTS – ELCN SOFTWARE ENABLER 10 PACK

EP-OTU070 OTS - ELCN SOFTWARE ENABLER 1 PACK

The following system options are standard included in the simulation system model number EP-OTS001 and cannot be

altered:

Description Qty

Process Points 25000

SCADA Points 50000

Alarm Pager Enabled

ABB Totalflow EFM Enabler Enabled

ABB Totalflow Interface Enabled

Alarm Tracker Enabled

ACE Rapid Restart Enabled

ACE Simulation Environment 7

Batch Application Services Enabled

Batch Report Enabled

Batch Tracker Enabled

Bristol Babcock Open BSI EFM Interface Enabled

Bristol Babcock RTU Interface Enabled

CDA subsystems interface Enabled

CEE Profit Control MV(s) 4095

Class Based Recipes 10

CN100 Control & I/O Solver - Simulations 20



Description Qty

Console Stations 10

Control Builder Bulk Configuration tool Add-in Enabled

Control Builder Client License 4

Control Builder Template Support Enabled

Control HIVE Controller 5

ControlEdge PLC Integration Enabled

DeviceNet Usage Licenses 40

Display Builder 1

Display Version Control Enabled

DSA Enabling License Enabled

DSA Remote Server Connections 60

Dynamic Alarm Suppression Enabled

ELCN AM Singles 10

ELCN EHB Singles 10

ELCN ENIM Singles 10

ELCN EPLCG Singles 10

ELCN HM Singles 10

Equipment Point Counts 100

Ethernet Interface Module - Ethernet/IP 1

Experion Server Peer Responder Enabled

Experion Virtualization Client CALs 12

Experion Virtualization Server CALs 7

Fieldbus Simulation Licenses 125

Fieldbus Usage Licenses 125

Flex Stations 10

Fischer ROC EFM Enabler Enabled

Fischer ROC Interface Enabled

Gas Application Segment Capacitys 25

FMC Subsea Interface Enabled

Gas Compressor Capacitys 25

High availability seamless redundancy protocol Enabled

HMIWeb Advanced Solution Pack Enabled

IEC-61850 Interface Module 1

Leak Detection for Gas Applications 25

Limit Repository Integration Enabled

MeterSuite Control Library 1

Modbus (RTU, Plus, ASCII & TCP) Interface Enabled

Microsoft Excel Data Exchange Users 10



Description Qty

Multi-Window Flex Station Options 10

Network Server Enabled

Number of Peer EHPMs 100

ODBC Data Exchange Enabled

ODBC Driver Enabled

On-Process Migration Enabled

OMNI EFM Enabler Enabled

Omni Interface Enabled

OPC Advanced Client Enabled

OPC Client Interface Enabled

OPC Alarm and Event Server CAI 1

OPC Data Access Server CAIs 10

OPC UA Client Interface Enabled

Operator Touch Panels 10

Pan and Zoom Enabled

Parallel redundancy protocol Enabled

Peer Control Data Interfaces 60

Point Control Scheduler Enabled

Profibus Usage Licenses 40

Quick Builder 1

Recipe Management Enabled

Server Automation Object Enabled

Server Redundancy Enabled

Spirit IT Flow -X Interface Enabled

Spirit IT Flow-X EFM Meter Enabled

Virtualization ELCN appliance(s)s 100



4. Glossary

Term or Acronym Description

ACE Application Control Environment. Experion controller node hosted on a server computer platform. The

ACE node is ideally suited for supervisory control solutions and integration with third party control

systems.

C200 A specific type of Honeywell Process Controller

C300 A specific type of Honeywell Process Controller based on the series C form factor

CDA Control Data Access is the Experion system communication infrastructure and data access interface

schema that provides application integration with Experion system objects.

ControlNet Real-time control-layer network.

DSA Distributed System Architecture

Experion Server The node (optionally redundant) at the heart of Experion. The servers encompasses a wide range of

subsystems including history collection, SCADA interfaces, alarm/event, etc.

FIM Foundation Fieldbus Interface Module

FTE Fault Tolerant Ethernet, the Experion control network

IOLIM IO Link Interface Module. Services and processes all communications between the Experion Controllers

and Process Manager IO (PMIO)

SCE Simulation Control Environment. An Experion node that hosts the simulated controller environments.

For more information

To learn more about Honeywell’s products or

solutions visit our website

www.honeywellprocess.com or contact your

Honeywell account manager.

Automation & Control Solutions

Process Solutions

Honeywell

1250 West Sam Houston Parkway South

Houston, TX 77042

Honeywell House, Arlington Business Park,

Bracknell, Berkshire, England RG12 1EB UK

Shanghai City Centre, 100 Junyi Road

Shanghai, China 20051

www.honeywellprocess.com

Experion® is a registered trademark of Honeywell International Inc.

All other products and brand names shown are trademarks of their respective owners.

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merchantability and fitness for a particular purpose and makes no express warranties except as may be stated in its written

agreement with and for its customer.

In no event is Honeywell liable to anyone for any indirect, special or consequential damages. The information and specifications in

this document are subject to change without notice.

EP03-360-520

21 September 2021

© 2017 Honeywell International Inc.

Experion Simulation Specification

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Transcript of Experion Simulation Specification