indicates that death or severe personal injury will result if proper precautions are not taken.
WARNING
indicates that death or severe personal injury may result if proper precautions are not taken.
CAUTION
indicates that minor personal injury can result if proper precautions are not taken.
NOTICE
indicates that property damage can result if proper precautions are not taken.
WARNING
Siemens products may only be used for the applications described in the catalog and in the relevant technical
ambient conditions must be complied with. The information in the relevant documentation must be observed.
Legal information
Warning notice system
This manual contains notices you have to observe in order to ensure your personal safety, as well as to prevent
damage to property. The notices referring to your personal safety are highlighted in the manual by a safety alert
symbol, notices referring only to property damage have no safety alert symbol. These notices shown below are
graded according to the degree of danger.
If more than one degree of danger is present, the warning notice representing the highest degree of danger will
be used. A notice warning of injury to persons with a safety alert symbol may also include a warning relating to
property damage.
Qualified Personnel
The product/system described in this documentation may be operated only by personnel qualified for the specific
task in accordance with the relevant documentation, in particular its warning notices and safety instructions.
Qualified personnel are those who, based on their training and experience, are capable of identifying risks and
avoiding potential hazards when working with these products/systems.
Proper use of Siemens products
Note the following:
documentation. If products and components from other manufacturers are used, these must be recommended
or approved by Siemens. Proper transport, storage, installation, assembly, commissioning, operation and
maintenance are required to ensure that the products operate safely and without any problems. The permissible
Trademarks
All names identified by ® are registered trademarks of Siemens AG. The remaining trademarks in this publication
may be trademarks whose use by third parties for their own purposes could violate the rights of the owner.
Disclaimer of Liability
We have reviewed the contents of this publication to ensure consistency with the hardware and software
described. Since variance cannot be precluded entirely, we cannot guarantee full consistency. However, the
information in this publication is reviewed regularly and any necessary corrections are included in subsequent
editions.
2.2 Security information ................................................................................................................ 13
2.3 Protective measures for the HCS4300 ................................................................................... 13
3 System overview ................................................................................................................................... 15
3.1 Area of application .................................................................................................................. 15
3.2 Features .................................................................................................................................. 16
3.3 System configuration .............................................................................................................. 18
3.4 Central interface module (CIM) ............................................................................................... 19
3.4.1 Function and design................................................................................................................ 19
3.5 Power output module (POM) .................................................................................................. 21
3.5.1 Function and design................................................................................................................ 21
A Appendix............................................................................................................................................. 199
A.1 Certificates and approvals .................................................................................................... 199
A.1.1 Certificates and approvals .................................................................................................... 199
A.2 Article numbers for spare parts/accessories......................................................................... 200
A.2.1 Ordering data ........................................................................................................................ 200
Note
Applicable for devices up to firmware version 1.x of the CIM:
•
•
•
•
Applicable for devices up to firmware version 2.1 of the CIM:
•
•
Applicable for devices up to firmware version 2.3 of the CIM:
•
Applicable for devices as of firmware version 2.3 of the CIM:
•
Product label
Abbreviation
Central Interface Module
CIM
I/O module
PM
Power Output Module
POM
SIPLUS HCS4300
HCS
1.1 Introduction
Scope of the document
This document is valid for all components of the SIPLUS HCS4300 specified below and
describes the current delivery state.
A maximum of 6 POMs can be operated.
Expansion module, PMs and the DP connection are not available
The following applies for reading data records 152, 200 and 201: The information that is
read is always for the full configuration, i.e. for 54 channels or 6 POMs.
The data records 160, 190 and 202 are not available.
No phase control can be configured for a POM4320.
Data record 50 is not available.
POM4320 Highend cannot be configured.
The "Phase control" mode is only available for POM4320 with MLFB -0AA2 as of
HW version 02.
Naming conventions and abbreviations
Instead of product labels, the following abbreviations are also used in this document.
The following product labels and abbreviations are used:
This device corresponds to the approvals printed on the type plate. If you have questions
about whether it is permissible to install the device in the planned environment, contact your
service representative.
• Alterations to the devices are not permitted. Failure to observe these guidelines shall
constitute a revocation of the approvals and manufacturer's warranty.
• The HCS4300 heating control system is not a safety product. In the event of a fault, the
machine must be brought to the safe state on the plant side.
Warning symbols on the device
When this warning symbol
instructions for the device. The operating instructions contain information about the
potential risks and enable you to recognize risks and implement countermeasures.
Note before connecting the device
The supply system to which the heating control system is connected must have a circuit
breaker. The device must be switched off and secured against switching on again, before
connecting to the line voltage. Otherwise, there is a risk of electric shock.
appears on the device, you must consult the operating
Working on the device or on components connected to it
• Voltages of more than 60 V can occur in the control cabinet. Suitable safety precautions
to prevent contact must therefore be taken before and during commissioning and
maintenance work.
• Before working on the heating control system or the connected components, ensure the
system is disconnected.
Fuse replacement
Use only the prescribed fuse types. If you operate a heating controller with unapproved
fuses, the device could be destroyed.
Repairs
Incorrectly performed repairs can result in substantial damage to equipment or endanger
the user. Return the device to Siemens for repair.
Siemens provides products and solutions with industrial security functions that support the
secure operation of plants, systems, machines and networks.
In order to protect plants, systems, machines and networks against cyber threats, it is
necessary to implement – and continuously maintain – a holistic, state-of-the-art industrial
security concept. Siemens’ products and solutions constitute one element of such a concept.
Customers are responsible for preventing unauthorized access to their plants, systems,
machines and networks. Such systems, machines and components should only be
connected to an enterprise network or the internet if and to the extent such a connection is
necessary and only when appropriate security measures (e.g. firewalls and/or network
segmentation) are in place.
For additional information on industrial security measures that may be implemented, please
visit (https://www.siemens.com/industrialsecurity).
Siemens' products and solutions undergo continuous development to make them more
secure. Siemens strongly recommends that product updates are applied as soon as they are
available and that the latest product versions are used. Use of product versions that are no
longer supported, and failure to apply the latest updates may increase customers' exposure
to cyber threats.
To stay informed about product updates, subscribe to the Siemens Industrial Security
RSS Feed visit (https://www.siemens.com/industrialsecurity).
2.3 Protective measures for the HCS4300
Protective measures for the HCS4300 heating control system
Only authorized personnel are permitted to access the system and make changes to it.
The SIPLUS HCS 4300 heating control system is used to activate and switch heating
elements in industry, such as quartz, ceramic, flash, halogen or infrared emitters. It is of
modular design and can be flexibly adapted to suit the specific requirements of the
respective application.
Typical application areas are:
● PET blow molding
● Drying of enamels and coatings
● Thermal treatment of fabric and plastics
● Welding of plastic parts
● Handling of carbon materials
In general, the HCS4300 can be used wherever compact or modular concepts are required
with high levels of power output.
An HCS4300 system comprises one Central Interface Module (CIM) and up to
24 Power Output Modules (POM). As an option, one I/O module can be operated on
the CIM.
The following figure shows an example of an HCS4300, consisting of a CIM4310 for
PROFINET, a POM4320, as well as a POM4320 Highend for busbar mounting.
Figure 3-1 HCS4300 consisting of CIM ①, POM4320 ② and POM4320 Highend ③
A complete heating control system with HCS4300 includes the following components:
● Central Interface Module (CIM) 4310 with PROFINET or PROFIBUS
● Power Output Module (POM) 4320 for busbar or panel mounting
● Higher-level controller, e.g. SIMATIC S7-1500 automation system with
PROFINET/PROFIBUS
● Field PG, optional for commissioning and diagnostics
● HMI panel, optional, e.g. SIMATIC HMI TP1500
● Heat emitter array
Figure 3-2 System components
Centralized and distributed heating application
A maximum of 8 POM4320 or 6 POM4320 Highend can be operated at a CIM. In the
maximum configuration with 2 expansion modules, up 24 POM4320 or
18 POM4320 Highend can be operated.
System configurations can be realized for distributed, decentralized heating applications,
such as PET blow molding, where the heating controller is located below the heating boxes,
as well as central heating applications, for example, in thermoforming, where the heating
elements are implemented in numerous arrays and the modular heating control system is
located in a central control cabinet.
PROFINET combines the industrial experience of PROFIBUS with the openness and flexible
options of Ethernet. PROFINET enables high-speed and secure data exchange at all levels,
thus making it possible to implement innovative machine and plant concepts.
PROFIBUS has been established for years as the fieldbus for machines and plants. Based
on serial bus technology, it is the foundation for the distributed concepts that are common
today.
Combined operation with HCS4200 heating controller
You can operate a POM4320 with the HCS4200. See SIPLUS HCS4200
PROFINET/PROFIBUS DP operating instructions.
Combined operation of a POM4320 Highend with the HCS4200 heating controller is not
possible.
3.4 Central interface module (CIM)
3.4.1 Function and design
Function
The Central Interface Module (CIM) handles the communication with the higher-level
controller and with the connected Power Output Modules (POM). In addition, the CIM
provides the 24 V DC power supply for the connected POMs. The CIM is available in two
versions: with a PROFINET interface or with a PROFIBUS interface.
The Power Output Module (POM) offers power outputs for resistive loads and can be
operated in TN and TT networks. The POM is available in versions for busbar or panel
mounting.
The I/O module PM4000 U/I provides inputs for measuring mains voltage and mains current.
● Voltage measurement
Either the supplied line-to-line voltage or the star voltage is measured (parameterizable)
The rms effective value is calculated from the measured values.
● Phase current measurement
Three current transformers can be connected to the module (L1, L2, L3). The rms
effective value is calculated from the measured values. The measuring accuracy depends
on the current transformers used.
The measured values are transferred via the fieldbus and can be evaluated and further
processed by the user.
Design
Status LEDs
①
• RUN LED lights up green:
– Power ON
– Initialization status
In the basic configuration with one CIM, a maximum of 8 POM4320 or 6 POM4320 Highend
can be operated. An EM4315 expansion module enables operation of up to 8 additional
POM4320 or 6 POM4320 Highend is possible.
Two EM4315 expansion modules can be used in the maximum configuration. This means
the following can be operated on one CIM in total:
The device can be damaged by inappropriate shipping. Transport the device, therefore,
only in the original packaging. This will give it the necessary protection against shock and
impact.
Lifting and carrying the power output module (POM)
The power output module (POM) is connected to the busbar adapter with 3 leads.
Do not use these leads to lift or carry the POM.
4.2 Storage
It is absolutely essential that the device is stored in compliance with the storage conditions
as described in Chapter Technical specifications (Page 163). In the event of ingress of dirt or
liquid into the equipment, formation of condensation, damage or any other failures to comply
with the prescribed storage conditions, the equipment must not be commissioned until the
correct remedial procedure has been discussed with Siemens AG.
3. Check the device for transport damage by visual inspection.
Damaged parts can result in damage to the system. Only put undamaged parts into
operation.
Application planning
Note
Installation in control cabinet/device connection box
The SIPLUS HCS4300 heating control system is intended for installation in a control cabinet
or a device connection box.
•
•
•
NOTICE
Damage due to overheating
4.4 Installation location
4.4 Installation location
Installation location requirements
In these cases, only the LEDs on the front of the device will remain visible during
commissioning. Take this into consideration for subsequent operation of the device.
The control cabinet / device connection box must satisfy the regulations regarding fire-
protection housing.
Ensure that all cables and leads that protrude externally are equipped with adequate
strain relief.
Mounting position and clearance dimensions
You must comply with all the instructions regarding the installation site and mounting
position. Otherwise the device might malfunction or incur permanent damage as a result of
overheating.
● The device is installed and operated vertically.
● Ensure that the permissible ambient temperature range is not exceeded
(see section Technical specifications (Page 163)).
● Maintain the minimum clearances from walls and other devices:
– Sides 0 mm (side-by-side mounting permitted), top 100 mm, bottom 100 mm for
ventilation and deaeration
Degree of pollution
SIPLUS HCS4300 is designed for pollution degree 2. According to the EN 50178 standard,
pollution degree 2 is non-conductive pollution under normal circumstances, which can,
however, become temporarily conductive as a result of condensation when the device is not
in service.
Due to the different physical properties of heat emitters, restrictions can be imposed on their
permissible switching capacity depending on the type of heat emitter.
Short-wave halogen or infrared emitters ("flash emitters") have a high starting current due to
their relatively low cold resistance. The starting current can be several times the rated
current, especially during the first half waves.
Overloading of the internal fuses of the POM can occur depending on the number of
switching operations as well as the duration of switching operations and pause times.
The power limit for each POM is set by the technical parameter "Current carrying capacity
per output, max. for heating elements with high inrush current"
(see Technical specifications (Page 163)) for each POM.
Therefore, we recommend you to have Siemens AG measure radiation sources with a high
inrush current
In this regard, read the information about using Category AC 3 contactors (see
Connecting the three-phase line supply (Page 57)).
Selection of the incoming fuse for POM4320 Highend
Depending on the selected connection type, an incoming fuse is also required for the
POM4320 Highend. This fuse must only meet the requirements for line protection. This
means that gG fuses of size 14x51 can be used. The nominal value of the current depends
on the connected load.
Recommended fuses: e.g. Siemens SENTRON, cylindrical fuse-link, 14x51 mm, 3NW61
If you connect channels in parallel, only one fuse is possible up to a current of 50 A. You
must use 2 identical fuses for higher values. For UL applications, use the same fuses as for
fusing the outgoing line.
Derating of fuses
Note that fuses are subject to derating at high ambient temperatures, i.e. the rated current
for a fuse is reduced.
You can find the power ratings for the example in section POM4320 Highend for wall
mounting (Page 40), section "Connecting between phase and phase (400/480 V), single
connection of outputs".
Can cause death, serious injury or damage to property
5.1 Requirements
Safety guidelines
Before starting installation or connection work on the HCS4300 heating control system, you
must switch off the heating control system and secure it from being switched on again.
Can cause death, serious injury or damage to property
NOTICE
Clockwise rotating field
Note
Residual current protective device
If
circuit breaker of Type A is sufficient for the HCS4300.
Note
Due to the weight of the POM4320 we recommend
devices.
5.2 Installing the Power Output Module (POM)
5.2 Installing the Power Output Module (POM)
5.2.1 Busbar mounting
5.2.1.1 Preparations
Busbar system
The mains infeed for the power output module is connected via a 3-phase busbar system.
These include the following busbar systems:
● Siemens AG, SENTRON 60 mm
● Wöhner GmbH & Co. KG, 60 mm EQUES
Dangerous voltages can be present on the busbar system.
The busbar system must therefore be isolated and secured against reclosing before work
begins for mounting and connecting the HCS4300 heating control system.
When connecting the busbar system, make sure that the energy system is connected
clockwise.
a residual current protective device is provided for the busbar system, a residual current
You need a Phillips screwdriver, size 0.6 x 3.5 mm.
Adjusting the busbar adapter to the thickness of the busbar
The busbar adapter of the POM can be adjusted for the following busbar thicknesses:
● 5 mm (delivery state)
● 10 mm
On the busbar adapter of the POM, there are four fastening blocks, which you can use to
adjust the busbar adapter to the rail thickness. The following figure shows the position of the
fastening blocks.
Hazardous voltages from the mains power input or heating element feeder cables
Will cause death, serious injury or damage to property
WARNING
Electric shock hazard
Can cause death or serious injury
WARNING
Electric shock hazard
Can cause death or serious injury
The following apples to the UL version of the heating control system:
6.1 Safety instructions and guidelines
Safety instruction
Dangerous voltages might be present on mains from the supply and to heating elements.
Before work starts on connecting the HCS4300 heating control system, the mains and
heating element lines must be disconnected and secured against being switched on again.
• Voltages of more than 60 V can occur in the control cabinet. Suitable safety precautions
to prevent contact must therefore be taken before and during commissioning and
maintenance work.
• Before working on the heating control system or the connected components, ensure the
system is disconnected.
The mains supply to which the device is connected must have a circuit breaker or a fuse.
The circuit breaker or fuse must be easily accessible and clearly assigned to the device.
We recommend locating the circuit breaker or fuse near to the device. Take the maximum
current consumption of the heating control system into consideration when selecting the
circuit breaker or fuse.
• The mains supply to which the device is connected must have a circuit breaker
(according to UL489) or a fuse (UL-listed branch circuit fuse).
• Observe the SCCR rating on the rating plate. Only use the device in circuits limited
accordingly.
● The mains supply is disconnected at the installation location of the device and secured
against secured against reconnection.
● The mains voltage is secured by an easily accessible isolating mechanism. It is
recommended that the external isolating mechanism is located close to the device.
● The cables to be connected are not live.
6.2 Connecting the protective conductor
Connecting the protective conductor
Connect the POM to the protective conductor (PE). An M6 threaded bolt ① is provided on
the front of the POM for connection of the protective conductor.
Figure 6-1 POM4320: Connecting the protective conductor
• The protective conductor must be connected to the threaded bolt indicated.
• The cross-section of the lead to the protective conductor must be at least 16 mm
• The cable lug used must have a tinned surface to guarantee corrosion protection.
• When connecting the protective conductor, the applicable national or local regulations
• Torque for protective conductor connection: 6 Nm
Connect X1 / X2 to the higher-level controller and/or the next
PROFINET device using an Ethernet cable according to the
PROFINET specification.
Use shielded Ethernet cables for this purpose.
Connecting PROFIBUS / setting PROFIBUS address
• The PROFIBUS address is assigned using the S1 / S2 address
selector switches. Addresses can be set from 0 to 99.
• Connect X1 to the higher-level controller and/or the next
PROFIBUS device via cable in accordance with the PROFIBUS
specification.
6.4 Connect 24 V DC power supply
Power is supplied to the Central Interface Module (CIM) and EM4315 expansion module via
an external 24 V DC supply. Use a power supply unit which conforms to IEC 60536,
protection class III (PELV). Power supply units from the SITOP product line are suitable, for
example.
The CIM and the EM4315 can both also supply up to 8 POM4320 or 6 POM4320 Highend
via the HCS system interface.
55
Wiring
24 V connection CIM and EM4315
Connect the 24 V DV supply voltage to the device as follows:
+
+24 V DC
Note
An external lightning protection element should be connected upstream in the 24
supply line:
Dehn, Blitzductor BVT Type AD24, No. 918402 or equivalent.
When using other items, you must ensure that the model used is equivalent
lightning
The lightning protection module must be installed and used in accordance with the
manufacturer's specifications.
6.4 Connect 24 V DC power supply
Design of the 24 V DC power supply
You can determine the design of the 24 V DC power supply using the following calculation
formula:
Minimum power =
3 W + (number of POM4320 • 8 W) + (number of POM4320 Highends • 10 W) +
(number of I/O modules • 1 W)
Example:
Supply of an HCS4300 consisting of CIM4310 PROFINET with one I/O module and
6 connected POM4320.
The minimum power rating in accordance with the formula above is 52 W, i.e. the
power pack must be able to supply current of at least 2167 mA.
Connect 24 C DC supply voltage to CIM and EM4315
External lightning protector
protection manufacturer).
● The following interference immunity is obtained with a lightning protection component:
– 1.0 kV symmetrical with R
– 2.0 kV asymmetrical with R
- GND
V DC
(consult with
= 2 Ω; assessment criterion B
i
= 12 Ω; assessment criterion B
i
● Without lightning protection, the following interference immunity is obtained:
When using radiation sources with inrush current, we recommend using
Category AC
Note
The permissible tightening torque for the terminals of the devices for panel mounting is
3.5 Nm.
6.5 Connecting the heating elements and three-phase line supply
6.5 Connecting the heating elements and three-phase line supply
6.5.1 Connecting the three-phase line supply
In the case of POM4320 for busbar mounting, the network infeed is via a 3-phase busbar
system. See section Busbar mounting (Page 44).
With the POM4320 for panel mounting, three screw terminals, L1, L2 and L3, provide the
mains supply. The position of the screw terminals on the POM is shown in section Function
and design (Page 21).
The figure below shows the main connections between the HCS4300 heating controller and
the main supply and heating elements. The power outputs are protected internally with two
fuses per power output.
For 2-pin switching of the outputs, the loads must be switched via the power semiconductors
from two channels. This has the following advantage: In case of a breakdown of the
depletion layer of one of the two main power semiconductors (short-circuit), operation is still
possible or the load can be turned off.
Figure 6-5 POM4320 Highend – connection between phase and phase: Single connection of
The maximum permission current of the connector is 8 A.
Pin
Assignment
Pin
1
GND
Digital output 1
2
3
GND
Digital output 2
4 5 GND
Digital output 3
6
7
GND
Digital output 4
8
9
GND
Digital output 5
10
11
GND
Digital output 6
12
13
GND
Digital output 7
14
15
GND
Digital output 8
16
17
GND
P24
18
Pin
Assignment
Pin
1
GND
Digital input/output 9
2
3
GND
Digital input/output 10
4
5
GND
Digital input/output 11
6 7 GND
Digital input/output 12
8
11
GND
Digital input/output 14
12
15
GND
Digital input/output 16
16
17
GND
P24
18
6.9 Connecting I/O modules
For each connector, one pin each is available for the connection or the reintroduction of the
24 V supply voltage and the 0 V supply voltage. All 24 V and GND pins of both connectors
are respectively connected so that, with consideration to the maximum current, a loopingthrough of the supply voltage is possible (daisy chain).
X1: Digital outputs:
18-pin connector with spring-loaded connection and interlock. The mating connectors are
included in the scope of supply.
X2: Digital inputs / outputs
18-pin connector with spring-loaded connection and interlock. The mating connectors are
included in the scope of supply.
Before commissioning starts, the system components must be installed and wired up.
The following is necessary:
● A SIMATIC S7 CPU / SIMOTION with PROFINET/PROFIBUS interface
● A SIPLUS HCS4300 heating control system, comprising one central interface module
(CIM) and at least one power output module (POM).
7.2 Commissioning
Procedure
1. Switch on the 24 V DC power supply.
2. Switch on the three-phase power supply for the heating control system.
The components CIM, POM and PM, if installed, of the heating control system start up.
Observe the operating mode indicators (see section Process and system messages,
error handling (Page 145)).
Because of the protective impedances in the device, the isolation resistance of a device of
each phase to ground with an open load is around 124 kΩ and around 70kΩ with connected
heating loads. These values must be taken into account during the insulation test on the
system.
If there are several devices in one circuit, you must allow for the parallel connection of the
impedances. If necessary, you must remove the device from the circuit before
the insulation test.
Protective conductor current
Due to the protective impedances, the following protective conductor current flows under
normal operating conditions:
8.1 Integrating the HCS4300 into the PROFINET configuration
Procedure with SIMATIC S7
If the hardware catalog of your configuration software does not feature the HCS4300 yet, it
can be integrated by installing an HSP. An HSP is available for TIA Portal and can be
downloaded from the Siemens Service&Support area
(http://www.siemens.com/automation/service&support /).
Procedure with non-Siemens controllers
For PROFINET configuration you will need the language-specific GSDML file. The GSDML
file must be installed in the configuration software.
The GSDML file "GSDML-V2.34-Siemens-002A-HCS4300from the Siemens Service&Support area
(http://www.siemens.com/automation/service&support).
If a non-Siemens PROFINET controller is used, install the GSDML file as described in the
manufacturer's instructions.
yyyymmdd
" can be downloaded
8.2 Integrating the HCS4300 into the PROFIBUS configuration
Procedure with SIMATIC S7
If the hardware catalog of your configuration software does not feature the HCS4300 yet, it
can be integrated by installing the GSD file. The file is available in German (SIEM81C5.gsg)
and English (SIEM81C5.gse) and can be downloaded from the Siemens Service&Support
area (http://www.siemens.com/automation/service&support /).
Procedure with non-Siemens controllers
You will need the language-specific GSD file for PROFIBUS configuration. The
SIEM81C5.gsx files can be downloaded from the Siemens Service&Support area
(http://www.siemens.com/automation/service&support /).
If a non-Siemens PROFIBUS controller is used, install the GSD file as described in the
manufacturer's instructions.
The device configuration in the project engineering must match the actual configuration of
the HCS.
Otherwise the system cannot start up. Exception: Using the configuration control (see
Configuration control
8.3 Device/hardware configuration in the TIA Portal
8.3 Device/hardware configuration in the TIA Portal
8.3.1 PROFINET device configuration
Device configuration
In the case of PROFINET, the structure of the hardware is mirrored in the TIA device
configuration:
Slot number 0
1 CIM head
I/O module
2 3 4 n
The configuration rules are as follows:
CIM
Slot 0 represents the PROFINET connection with the two ports. The CIM provides a slot for
an I/O module. The CIM module and the CIM I/O module are assigned to slot 1 and are
designed as submodules. If an I/O module is not used, subslot 1.2 remains empty.
8.3 Device/hardware configuration in the TIA Portal
8.3.3 Configuration parameters
8.3.3.1 CIM / POM configuration parameters
The configuration parameters are directly assigned to the respective module and are set
during device configuration. The transfer is performed automatically upon start-up and during
re-parameterization.
8.3 Device/hardware configuration in the TIA Portal
8.3.3.2 Configuration parameters for I/O modules
The configuration parameters are directly assigned to the respective I/O modules and are set
during device configuration. They are transferred on start-up and during re-parameterization.
Configuration parameters PM4000 temperature
Analog channel 1 measuring range
…
Analog channel 4 measuring range
Temperature channel 1 sensor type
Temperature channel 3 sensor type
Temperature channel 2 sensor type
Temperature channel 4 sensor type
This function requires the use of the example application or at least the data structure of the
example a
8.4 Software tools for commissioning support
8.4 Software tools for commissioning support
8.4.1 Overview of tools for commissioning support
Listed below are the tools that can provide support with configuration and commissioning.
SIMATIC WinCC
A library in TIA Portal for SIMATIC WinCC is available for integration in an HMI system. This
library contains a specific number of channels and fields; setpoints can be assigned and
actual values can be displayed.
Example application
An example project and a block library for TIA Portal are available for the SIMATIC S7-1500
automation systems to support commissioning of the heating control system.
HTML pages (SIMATIC S7)
SIMATIC controllers with PROFINET interface (e.g. S7-1500) have an integrated web server
that contains web pages for displaying diagnostics data. This web server can be accessed
via a standard web browser.
This supports scanning of the firmware version, diagnostics buffer, tag tables and module
status, as well as monitoring of communication links and displaying the topology of the plant.
In the event of a fault, the user can view the exact error message in plain text in the detail
view for the module.
SIEMENS PRONETA PC-based software tool that is provided free-of-charge, which
simplifies the commissioning of PROFINET systems by performing the following tasks:
● Topology overview that automatically scans PROFINET and displays all connected
components. This overview can be exported in the form of a device list. You have the
option of "Initializing" the components and performing other simple configuration tasks, as
well as comparing the actual configuration with a required configuration.
● IO check to quickly test the wiring of a plant and the module configuration of the
components. By reading and writing the inputs and outputs, PRONETA makes sure that
the distributed I/O devices with their sensors and actuators are correctly wired.
PRONETA can create test profile templates and store test logs to document the test
results.
● All tasks can be performed even before a CPU is integrated into the network. Moreover,
since no other engineering tools or hardware are required, PRONETA enables fast and
convenient checking of a plant configuration at an early stage. You can find additional
information on the PRONETA here
(http://support.automation.siemens.com/WW/view/de/67460624).
Configuration control (option handling) is used to operate various standard machine
configuration levels in one project without changing the configuration or the user program.
Operating principle of configuration control
You can use the configuration control to operate different expansion levels of a series
machine with a single configuration of the HCS.
● A station master is configured in a project (maximum configuration). The station master
comprises all modules needed for all possible plant parts of a modular standard machine.
● The project's user program provides for several station options for various standard
machine configuration levels as well as selection of a station option. For example, a
station option uses only some of the modules of the station master.
Advantages
● The standard machine manufacturer selects a station option for a configuration of the
standard machine. To do this, the project need not be modified, and it is not necessary to
load a modified configuration.
Using a custom control data record, you inform the HCS which modules in a station option
are missing or are located in a different slot as compared to the station master. The
configuration control does not have an impact on the parameter assignment of the modules.
The following figure shows 3 expansion levels of a heating control system with the
associated station options.
Figure 8-1 Configuration control
● Simple project execution and commissioning by using a single STEP 7 project for all
station options.
● Easy handling during maintenance, versioning and upgrades:
● Savings potential in the creation, commissioning and the documentation for standard
You define a control data record 196 V1.0, which includes a slot assignment for the
configuration control of an HSC. The control data record can also be read back.
The control data record is only processed with configured configuration control; otherwise it
is rejected.
Rules
Observe the following rules:
● The entry for slot 1 only identifies the PM (see also Table 8-1 Slot assignment (Page 94)).
● All modules up to the maximum possible configuration of the HCS must be registered in
control data record.
● The entries up to at least the last slot of the station master must be contained in the
control data record. Entries beyond the last slot must be pre-assigned with "Module not
available".
● Multiple configured slots must not be assigned to the same actual slot. In other words,
each station option slot can be present only once in the control data record.
The table below shows the structure of a control data record with explanations of the
individual elements. The control data record can also be read back.
Table 8- 2 Structure of the simplified control data record V1.0
0 Block length 4 +
1 Block ID 196
3 Version 0
4 Slot 1 of the station
5 Slot 2 of the station
28 Slot 25 of station mas-
ter
Slot assignment in the
Slot assignment in the
Slot assignment
Header
Contains the information on which
module is inserted in which slot.
The value that you need to enter in the
corresponding byte depends on the
following rule:
• If the module is included in the
station option, enter the slot number of the module from the station
master.
• If the module does not exist in the
station option, enter 0.
* Not possible if the slot is marked as not available.
8.5 Configuration control
8.5.3.3 Feedback data record
Operating principle
The feedback data record informs you about the accuracy of the module assignment and
gives you the option of detecting assignment errors in the control data record. The feedback
data record is mapped via a separate data record 197 V2.0. The feedback data record is
only processed with configured configuration control; otherwise it is rejected.
Rules
Observe the following rules:
● The feedback data record refers to the configured station configuration and always
includes the maximum configuration limits, which is 25 modules.
● Partial reading of the feedback data record is not possible.
● As long as a control data record is not sent, it is assumed that no modules are inserted
(DS197 has status "0").
Feedback data record
Table 8- 3 Feedback data record
0 Block length 4 +
54 Reserved 0
Header
Version
Status = 1:
• Module from station master is in-
serted in the station option
• Slot is marked as not available in
the control data record
For the structure of the control data record, see table (Page 95).
Error code
Meaning
80B1H
Invalid length; the length information in data record 196 is not correct.
80B5H
Configuration control parameters not assigned.
transferred in the startup program.
8.5 Configuration control
8.5.3.4 Transferring control data record in the startup program of the CPU
Required steps
Transfer the created control data record 196 to the CIM using the WRREC (Write data
record) instruction.
To verify the configuration, the feedback data record 197 can be queried by the CIM with the
RDREC instruction (read data).
Parameters of the instruction WRREC
Below, you will find explanations of individual parameters of the WRREC instruction which
you must supply with specific values in the configuration control context. You can find
additional information on the WRREC instruction in the STEP 7 online help.
RECORD Control data record to be transferred.
In case of an error, the WRREC instruction returns the following error messages through the
STATUS block parameter:
Table 8- 4 Error message WRREC
80E2H Data record was transferred in the wrong OB context. The data record must be
80B8H Parameter error
A parameter error is caused by:
• Incorrect block ID in the header (not equal to 196)
• Invalid version identifier in the header
• A reserved bit was set
• An invalid slot in the station option has been assigned to a slot of the station
master
• Multiple slots in the station master are assigned to the same slot in the station
option