S7 Distributed Safety S7300DS GS E

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SIMATIC
S7 Distributed Safety
Getting Started

Edition 10/2004

Safety Guidelines
This manual contains notices that you should observe to ensure your own personal safety, as well as to
protect the product and connected equipment from damage. These notices are highlighted in the
manual by a warning triangle and are marked as follows according to the level of danger:

!

Danger
Indicates that death, severe physical injury, or substantial property damage will result if proper
precautions are not taken.

!

Warning
Indicates that death, severe physical injury, or substantial property damage can result if proper
precautions are not taken.

!

Caution
Indicates that minor physical injury or property damage can result if proper precautions are not taken.

Caution
Indicates that property damage can result if proper precautions are not taken.

Notice
Indicates important information relating to the product or draws special attention to part of the
documentation.

Qualified Personnel
This device/system may only be set up and operated by qualified personnel. Qualified personnel are
defined as persons who are authorized to commission, to ground, and to tag circuits, equipment, and
systems in accordance with established safety practices and standards.

Proper Use
Note the following:

!

Warning
This device and its components may only be used for the applications described in the catalog or the
technical description, and only in connection with devices or components from other manufacturers
which have been approved or recommended by Siemens.
This product can only function correctly and safely if it is transported, stored, set up, and installed
correctly, and operated and maintained as recommended.

Trademarks
SIMATIC®, SIMATIC HMI®, and SIMATIC NET® are trademarks of Siemens AG.
Other names in this publication might be trademarks, the use of which by third parties for their own
purposes may violate the rights of the registered holder.
이 기기는 업무용(A급) 전자파 적합기기로서 판매자 또는 사용자는 이 점을 주의하시기 바라며 가정 외의 지역에서 사용하는 것을 목적으로 합니다.

Copyright © Siemens AG 2004 All rights reserved

Disclaimer of Liability

The reproduction, transmission, or use of this document or its
contents is not permitted without express written authority.
Offenders will be liable for damages. All rights, particularly
rights resulting from patent grant or registration of a utility
model, are reserved.

We have checked the contents of this manual for agreement with the
hardware and software described. Since deviations cannot be precluded
entirely, we cannot guarantee full agreement. However, the
specifications in this manual are revised regularly, and any necessary
corrections are included in subsequent editions. Suggestions for
improvement are welcomed.

Siemens AG
Automation and Drives
Industrial Automation Systems
P.O. Box 4848, D- 90327 Nuremberg, Federal Republic of
Germany

Siemens Aktiengesellschaft

© Siemens AG 2004
Technical specifications subject to change

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Introduction
These instructions will guide you step-by-step through the configuration and programming
with S7 Distributed Safety based on a concrete example.
You will learn about basic functions and the special properties of S7 Distributed Safety.
It should take one or two hours to work through this example depending on your
experience.

Requirements for the Example
The following requirements must be met:
•

In order to understand these Getting Started instructions, you need general knowledge
about automation technology and also need to be familiar with the base software,
STEP 7.

•

You need an S7-300 station consisting of:

- Power supply (PS) with 2 A
- CPU 315F-2 DP with an inserted MMC
- Distributed I/O system ET 200S with:
- Interface module IM 151-1 HIGH FEATURE
- Power module PM-E 24-48 V DC
- Terminal modules such as TM-E30S44-01 and TM-E30C44-01
- Fail-safe digital input module ET 200S 4/8 F-DI DC24V
- Fail-safe digital output module ET 200S 4 F-DO DC24V / 2A
- Power module PM-E 24 V DC
- Digital electronic module 2DI 24 V DC ST
- SIGUARD laser scanner LS4-4/P1 with PROFIBUS interface
•

The following software packages must be correctly installed on your programming
device featuring an MPI interface:

- STEP 7 as of version 5.3, service pack 1
- S7 Distributed Safety as of version V5.3
- GSD file of the laser scanner (this is included in the product package of the laser
scanner; the file is also available in the Internet at
http://www.siemens.com/automation/service&support).
•

If the hardware components are not available, you can also use the add-on package
S7-PLCSIM (hardware simulation program) as of version 5.3. This add-on package
will enable you to simulate the hardware components as described in these Getting
Started instructions.

•

The programming device must be connected to the F-CPU via the MPI/DP interface
(187.5 Kbps baud rate).

•

The hardware must be fully installed and wired. Relevant information for this is
provided in the manual, ET 200S Distributed I/O System, Fail-Safe Modules

•

A description of the installation and wiring of the CPU 315F-2 DP is provided in the
Getting Started Collection, Automation System S7-300, CPU 31x: Commissioning.

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3

!

Warning
As a component in plants and systems, the S7-300 is subject to special standards and
regulations depending on the area of application. Please observe current regulation on
safety and accident prevention such as IEC 60204-1 (Emergency Stop Equipment),
EN 954-1 (Safety Related Parts of Control Systems) and IEC 61508 (Functional Safety).
The example in these Getting Started instructions serves as an introduction to
configuring and programming with S7 Distributed Safety. It does not lead to effective
operation in every case. Before you do this, we highly recommend that you refer to the
latest version of the manual, S7 Distributed Safety, Configuring and Programming. The
warnings and additional notes this manual contains must be heeded at all times even if
they are not repeated in this document!
Serious injury and damage to machines and equipment may result if these regulations
are neglected.

Design and Tasks in the Example

Safety door

Emergency
stop
Laser scanner

4

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Production cell with access protection
The walk-in production area is monitored with a laser scanner. The service area is
secured by a safety door.
Entering the production area or opening the safety door results in a stop or shutdown of
the production cell similar to an emergency stop.
The system can only be started when the emergency stop is interlock deactivated, the
safety door is closed and the laser scanner detects no one in the protected area. User
acknowledgment is required on site to restart production after the emergency stop has
been activated or the safety door has been opened.

Procedure
Configuration
Using HW Config you configure an ET 200S fail-safe digital input module to connect an
emergency stop switch and the position switches for monitoring a safety door, an
ET 200S fail-safe digital output module to connect a motor, an ET 200S digital standard
electronic module for user acknowledgment and feedback loop, and a laser scanner.
The configuration is described in steps 1 to 8.
Programming
Once the configuration is successfully completed, you can program your safety program.
In our example, a fail-safe block is programmed with an emergency stop, a safety door
function, a feedback loop (as restart protection when there is an incorrect load) and user
acknowledgment for the reintegration. The block is then compiled to a safety program.
The programming is described in steps 9 to 19.
Acceptance test
Supporting measures for acceptance are described in the appendix.

Installation on the PROFIBUS DP

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5

Wiring Overview for ET 200S

6

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Step 1: Wiring
Warning
You may come into contact with live electrical wires connected to the power mains. Only
wire the S7-300 and ET 200S when they are disconnected from the mains.

!

A description of the installation and wiring of the CPU 315F-2 DP is provided in the
Getting Started Collection, Automation System S7-300, CPU 31x: Commissioning.

Configuration of the Hardware
Using HW Config, you configure:
•

CPU 315F-2 DP

•

Distributed I/O system ET 200S with:
- Interface module IM 151-1 HIGH FEATURE
- Fail-safe digital input module ET 200S for connecting an emergency stop switch and
the position switches for monitoring a safety door
- Fail-safe digital output module ET 200S for connecting a motor
- Digital standard electronic module ET 200S for user acknowledgment and feedback
loop

•

Laser scanner for area monitoring (fail-safe DP standard slave).

Step 2: Configuration of the CPU 315F-2 DP using HW Config
Sequence Action

Result

1

Create a new project in the SIMATIC Manager (for example,
"DS_Getting Started") and insert a SIMATIC 300 station.

The SIMATIC 300 station
appears in the SIMATIC
Manager.

2

Open HW Config by selecting the SIMATIC 300 station and
open the object (for example, with Ctrl+Alt+O).

HW Config opens.

3

In the "Hardware Catalog” window, select the ”Standard”
hardware profile from the "Profile” pull-down list .

4

Drag and drop a rail from the hardware catalog into the HW
Config window, the power supply module (for example, PS307
2A) and the desired F-CPU (for example, CPU 315F-2 DP).

A dialog box opens for setting
the PROFIBUS properties of the
new subnet.

Required path:
1.) Rail: \SIMATIC 300\RACK-300
2.) Power supply: \SIMATIC 300\PS-300
3.) CPU 315F: \SIMATIC 300\CPU-300\CPU 315F-2 DP
(6ES7 315-6FF01-0AB0).
Click on "New”.
The dialog box for setting the PROFIBUS properties of the new
subnet shows the newly created PROFIBUS subnet. Close the
dialog box with "OK."

The fail-safe module will be
later connected to the F-CPU
over the new PROFIBUS
subnet.

5

6

Double-click on the CPU 315F-2 DP in the configuration window The dialog box "Properties to set the properties of the F-CPU.
CPU 315F-2 DP” opens.

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7

Sequence Action
Result
Select
the
"Protection"
tab.
Make
the
following
settings
in
the
"Level
of protection" field:
7
1.) Press the option button "1: Access protection for F-CPU" and select the option
"Removable with password".
2.) Press the option button "3: Write/read protection" and enter a max. 8-digit password for
the F-CPU, for example, "pw_fcpu". Type your password again in the field "Enter again".
3.) Mark the check box "CPU contains safety program".
The dialog box should now appear as follows:

8

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Sequence Action
Result
Change
to
the
"F-Parameters"
tab.
8
Here, you can change the following parameters or accept the default settings:
- Basis for the PROFIsafe addresses
- Number range for F-data blocks
- Number range for F-function blocks
- Amount of local data used by the F-system.
Leave the default values for our example.
The dialog box appears as follows:

Note: F-blocks are automatically added during the compilation of the safety program to ensure that
it is runtime capable. You must reserve a range of numbers for the automatically added F-blocks.
Use the default settings for our example. If the configured band of numbers is insufficient, S7
Distributed Safety signals this with an error message. You must then increase the size of the
number band accordingly.
9

Click "OK" to confirm.

S7 Distributed Safety
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The message window closes.

9

Sequence Action
Result
Change
to
the
"Cyclic
Interrupts"
tab
and
set
the
call
time
for
the
cyclic
interrupt OB 35 to 50 ms.
10
(The safety program is called and run at fixed time intervals in the cyclic interrupt OB.)
The dialog box should now appear as follows:

11

Click "OK" to confirm.

The dialog box "Properties CPU 315F-2 DP” closes.
The configuration of the F-CPU
is now completed.

10

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Step 3: Configuration of an ET 200S Distributed I/O System Using HW Config
Sequence Action
1

In the "Hardware Catalog” window, select the ”Standard”
hardware profile from the "Profile” pull-down list.

2

Drag and drop the IM 151-1 HIGH FEATURE interface module
from the hardware catalog (PROFIBUS DP\ET 200S) onto the
PROFIBUS subnet in the HW Config window.
Enter "3" as the address.
The dialog box should now appear as follows:

3

Result

A dialog box opens for setting
the PROFIBUS interface
properties.

Close the dialog box with "OK".
You have now set up a DP station with the address 3 on PROFIBUS subnet "(1)".
4

Double-click on the IM 151-1 HIGH FEATURE in the
configuration window to set the properties of the interface
module.

The dialog box "Properties - DP
slave” opens.

5

Confirm your settings with "OK".

The dialog box "Properties - DP
slave” closes.

6

Drag and drop a PM-E 24-48 V DC power module from the
hardware catalog to slot 1 of the IM 151-1 HIGH FEATURE
interface module.

The configuration of the IM1511 HIGH FEATURE is now
completed.

Required path:
1.) \PROFIBUS DP\ET200S\IM151-1 HIGH FEATURE\PM

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11

Step 4: Configuration of an F-DI Module for Connecting an Emergency Stop Switch
and the Position Switches for Monitoring a Safety Door
Sequence Action
1

Result

Drag and drop a 4/8 F-DI DC24V fail-safe digital input module
from the hardware catalog to slot 2 of the ET 200S.
Required path:
1.) \PROFIBUS DP\ET200S\IM151-1 HIGH FEATURE\DI
(6ES7 138-4FA01-0AB0)

2
3

Double-click on the 4/8 F-DI DC24V in the configuration window
to set the properties of the input module.
Select the "Addresses" tab.
Leave the default address "0" for our example.
The dialog box appears as follows:

The dialog box "Properties - 4/8
F-DI DC24V” opens.

Note: If you wish to change the values, you need to ensure that the start addresses of the input
and output data range are assigned identical values.

12

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Sequence Action
Result
Change
to
the
"Parameter"
tab.
Here,
you
can
change
the
following
parameters or accept the
4
default settings:
- F-parameters (PROFIsafe parameters)
- Module parameters (global module parameters)
- Channel-specific parameters.
In our example, channels 0 and 4 should be connected to a two-channel emergency stop switch
(emergency stop). Make the following settings (as highlighted in the figure):

Note about "F-Parameters": The PROFIsafe addresses must be unique throughout the network
and for all stations. The addresses are assigned automatically to prevent incorrect assignment of
parameters. The PROFIsafe destination address must be set per DIL switch on the F-module. The
PROFIsafe source address is assigned by the F-CPU ("Base for PROFIsafe addresses" Fparameter).
A valid current safety message frame must be received by the F-CPU within the fail-safe
monitoring time. Otherwise, the fail-safe module goes to the safe state.
The fail-safe monitoring time must be set high enough for the message frame delay to be tolerated
on the one hand, and low enough for the process to react as fast as possible and without
impairment when an error occurs on the other. The calculation table 'S7cotia.xls‘ can aid you in
determining the optimal time. This file is available on the Internet:
http://www4.ad.siemens.de/ww/view/de/ under the contribution ID 19138505.
Leave the default settings for the F-parameters unchanged for our example.
Note about "Module parameters": For a cyclic short-circuit test, you have to use the internal
sensor supplies for all sensors connected to the F-module and deactivate any unused channels.
Otherwise, errors will be detected on these channels.
Leave the default settings for the module parameters unchanged for our example.
Note about "Channel x, y" parameters: The "evaluation of the sensors" and "type of sensor
interconnection" should be configured according to the sensor wiring. The sensor wiring and the
safety quality of the sensor are decisive for the safety class that can be achieved.
Deactivate the channels that are not used.
Note about "1oo2 evaluation", "Behavior at discrepancy" and "Discrepancy time" (see
highlight in figure): The "Discrepancy time" configure here starts when different levels (or same
levels with nonequivalence testing) are detected for two associated input signals ("1oo2
evaluation” of the sensor). When discrepancy time expires within the module and depending on
the configuration of the discrepancy response, the "last, valid value" or "0" from the affected input
channel is made available to the F-CPU.

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13

Sequence Action
Result
In
our
example,
channels
1
and
5
should
be
connected
to
the
position
switches for monitoring a
5
two-channel safety door. Make the following settings (as highlighted in the figure):

6

Deactivate the unused channels 2, 6 and 3, 7 by unmarking the
"Activated" check boxes and confirm your changes with "OK".

A message window opens
informing you that the safety
program must be compiled
again due to your change.

7

Click "Close" to confirm.

The message window closes.

8

Confirm your settings with "OK".

The dialog box "Properties - 4/8
F-DI DC24V” closes.
The configuration of the F-input
module is now completed.

14

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Step 5: Configuration of an F-DO Module for Connecting a Motor
Sequence Action
1

Result

Drag and drop a 4 F-DO DC24V / 2A fail-safe digital input
module from the hardware catalog to slot 3 of the ET 200S.
Required path:
1.) \PROFIBUS DP\ET200S\IM151-1 HIGH FEATURE\DO
(6ES7 138-4FB01-0AB0)

2

Double-click on the 4 F-DO DC24V / 2A in the configuration
window to set the properties of the output module.

3

Select the "Addresses” tab (See F-DI Configuration above).

The dialog box "Properties 4 F-DO DC24V / 2A” opens.

Leave the default address "6" for our example.

4

Note: If you wish to change the values, you need to ensure that
the start addresses of the input and output data range are
assigned identical values.
Change to the "Parameter" tab. Here, you can change the following parameters or accept the
default settings:
- F-parameters (PROFIsafe parameters)
- Channel-specific parameters.
In our example, a motor should be indirectly switched on channel 0 through two contactors. Make
the following settings (as highlighted in the figure):

Note about "F-Parameters": See Step 4.
Leave the default settings for the F-parameters unchanged for our example.
Note about "DO channel x" parameters: Each output channel has its own configurable readback
time. This time specifies the maximum duration of the shutdown test for the corresponding channel
and it therefore also specifies the readback time for the shutdown cycle of the channel.
You use a wire break test for monitoring the connection of the output to the load.

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15

Sequence Action

Result

5

Deactivate the unused DO channels 1, 2 and 3 and confirm your A message window opens
changes with "OK".
informing you that the safety
program must be compiled
again due to your change.

6

Click "Close" to confirm.

The message window closes.

7

Confirm your settings with "OK".

The dialog box "Properties 4 F-DO DC24V / 2A” closes.
The configuration of the Foutput module is now
completed.

Step 6: Configuration of a Standard DI Module for User Acknowledgment and the
Feedback Loop
Sequence Action
1

Result

Drag and drop a PM-E 24 V DC power module from the
hardware catalog to slot 4 of the standard DI module.
Note: The power module has to be configured because a
combination of F-DI / F-DO modules and standard DI / DO / FM
modules is not allowed within a voltage group for
AK6/SIL3/Cat.4 applications. A new voltage group must always
begin with a power module.

2

Drag and drop a 2DI 24 V DC ST digital electronic module from The configuration of the
the hardware catalog to slot 5 of the ET 200S for non-safe
electronic module 2DI 24 V DC
signals (user acknowledgment and feedback loop) and set the
ST is now completed.
start address to "11" for our example (same procedure as for the
standard program).
Required path:
1.) \PROFIBUS DP\ET200S\IM151-1 HIGH FEATURE\DI

Step 7: Configuration of a SIGUARD LS4-4/P1 Laser Scanner (fail-safe DP standard
slave)
Sequence Action
1

In the "Hardware Catalog” window, select the ”Standard”
hardware profile from the "Profile” pull-down list .

2

Drag and drop a laser scanner (for example, "SIGUARD Laser
Scanner LS4-4/P1") from the hardware catalog (PROFIBUS
DP\Additional Field Devices\General) into the window of HW
Config.

3

4

16

Note: The GSD file for the laser scanner must be already
installed on the PG/PC.
Enter "4" as the address and confirm with "OK".
You have now configured a DP station with address 4 on the
PROFIBUS subnet "(1)" (See Step 3, IM 151-1 Configuration).
Select the laser scanner in the configuration window and
double-click in the line of the laser scanner below in the detail
view to set its properties.

Result

A dialog box opens for setting
the PROFIBUS interface
properties.

The dialog box "Properties PROFIBUS Interface” closes.
The dialog box "Properties - DP
slave” opens.

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Sequence Action
5

Result

Select the "Address/ID" tab.
Leave the default address "12" for our example.
Note: If you wish to change the values, you need to ensure that
the start addresses of the input and output data range are
assigned identical values.

6

Change to the "PROFIsafe" tab and make the following settings:
1.) Select the "F_Dest_Add" parameter, click on the "Change value" button and enter (500 +
DP address =) "504". Close the dialog box with "OK".
2.) Select the "F_WD_Time" parameter, click on the "Change value" button and enter a value
in ms for the F-monitoring time in the fail-safe DP standard slaves, for example, "150".
The dialog box should now appear as follows:

Note about F_WD_Time: A valid current safety message frame must be received by the F-CPU
within the fail-safe monitoring time.
The fail-safe monitoring time must be set high enough for the message frame delay to be tolerated
on the one hand, and low enough for the process to react as fast as possible and without
impairment when an error occurs on the other.
The "F_WD_Time" parameter can be set in 1 ms increments. The range of the "F_WD_Time"
parameter is specified by the device database file (*.GSD file).
7

Confirm your change with "OK".

A message window opens
informing you that the safety
program must be compiled
again due to your change.

8

Click "Close" to confirm.

The message window closes.

9

Confirm your settings with "OK".

The dialog box "Properties DP slave” closes.
The configuration of the
SIGUARD LS4-4/P1 laser
scanner is now completed.

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17

Step 8: Save, Compile and Download the Hardware Configuration
Sequence Action

Result

1

Close the hardware configuration by calling the menu command Your project is compiled.
Station > Save and Compile.

2

Transfer the configuration when the F-CPU is in STOP with the
menu command PLC > Download to Module.

The "Select Station Address”
dialog box opens.

3

Select the F-CPU and confirm with "OK".

The data are transferred from the
PG to the F-CPU.
You have now finished
configuration of the hardware for
the tasks involved in the
example.

Summary: Configuration of the Hardware
Up until now, you have used HW Config to configure:
•

CPU 315F-2 DP

•

Distributed I/O system ET 200S with:
- Interface module IM 151-1 HIGH FEATURE
- Fail-safe digital input module ET 200S for connecting an emergency stop switch and
the position switches for monitoring a safety door
- Start addresses of the output and input data ranges: both 0
- Channels 0 and 4 for emergency stop
- Channels 1 and 5 for safety door position switches
- Fail-safe digital output module ET 200S for connecting a motor
- Start address of the output and input data ranges: both 6
- Channel 0 for indirect switching of a motor through two contactors
- Digital standard electronic module ET 200S for user acknowledgment and feedback
loop
- Start address: 11

•

Laser scanner for area monitoring (fail-safe DP standard slave)
- Start address of the output and input data ranges: both 12.

Now you are ready to program the safety program.

18

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Programming the Safety Program
F-I/O Data Blocks
For each compilation in HW Config, an "F-I/O DB" is automatically created for each F-I/O
and a symbolic name is entered for it in the symbol table. You can view the F-I/O DBs
generated for the example I/O in the block container. These are the F-data blocks
DB 819, DB 820 and DB 821.

The symbolic name of the F-I/O DB is made up of the fixed prefix "F," the start address of
the F-I/O, and the names (maximum 17 characters) entered in the F-I/O object properties
in HW Config.
Symbolic name in our example:
- "F00000_4_8_F_DI_DC24V": fail-safe digital input module 4/8 F-DI DC24V
(= DB 819)
- "F00006_4_F_DO_DC24V_2A": fail-safe digital output module 4 F-DO DC24V / 2A
(= DB 820)
- "F00012_196": SIGUARD LS4-4/P1 laser scanner (= DB 821).
You can access the variables of the F-I/O DB with "fully qualified DB access" (that is, by
specifying the symbolic name of the F-I/O DB and by specifying the name of the variable).
F-Shared DB
The "DB 818" in the block container of our example is "F-Shared-DB". The F-shared data
block is a fail-safe block that is automatically inserted and contains all of the shared data
of the safety program and additional information needed by the F-system.

Procedure
In our example, a fail-safe block should be programmed with a safety door function, an
emergency stop function (safety circuit for shutdown when an emergency stop occurs,
when the safety door is open or when someone enters the protected area monitored by
the laser scanner), a feedback loop (as restart protection when there is an incorrect load)
and user acknowledgment for the reintegration. The block should then compiled to a
safety program.
Inputs and outputs in the safety program
Following the configuration of the hard as described in steps 1 to 8, the following fail-safe
I/O DBs are available for programming the example safety program:
Configured Hardware
Fail-safe digital input module 4/8 F-DI
DC24V (6ES7 138-4FA01-0AB0)
Fail-safe digital output module 4 F-DO
DC24V / 2A (6ES7 138-4FB01-0AB0)
Digital electronic module 2DI 24 V DC ST
SIGUARD LS4-4/P1 laser scanner

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Start Symbolic name
add.
0
F00000_4_8_F_DI_DC24V

F-I/O DB
DB 819

6

F00006_4_F_DO_DC24V_2A DB 820

11
12

F00012_196

DB 821

19

Specify symbolic names for the fail-safe input and outputs (as you do in the standard
program). In our example, these are:
Inputs and outputs in the safety program

Symbolic name

I0.0 for emergency stop

Emergency stop

I0.1 for safety door position switch

Safety door contact 1

I0.5 for safety door position switch

Safety door contact 2

Q6.0 for motor starter

Load

I11.0 for acknowledgment

Ack. button

I11.1 for feedback loop

Feedback loop

Q12.0 for protected area control

LS4_Protected_field_bit_0

Q12.1 for protected area control

LS4_Protected_field_bit_1

Q12.2 for protected area control

LS4_Protected_field_bit_2

I12.7 for safe shutdown

LS4_OSSD

Note: Adhere to the rules for creating the program structure as described in the chapter
"Defining the Program Structure" of the S7 Distributed Safety, Configuring and
Programming manual.

20

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Step 9: Creating an F-FB with the F-FBD Programming Language
Sequence Action
1

2

3

Result

Insert a F-FB. Open the block container of the
The dialog box "Properties SIMATIC Manager and select the menu command Insert > S7 Function Block” opens.
Block > Function Block. You can also use the "Insert New
Object" shortcut menu.
In the "General - Part 1" tab, enter a name for the F-FB (for example, "FB100"). Select "F-FBD" as
the programming language.
The dialog box should now appear as follows:

Close the dialog box with "OK".

S7 Distributed Safety
A5E00320726-01

The F-FB is generated in the
block container and highlighted
with a yellow background.

21

Step 10: Edit and Save the F-FB in the FBD Editor
Sequence Action

Result

1

Double-click on the F-FB in SIMATIC Manager.

The dialog box for assigning a
password for the safety program
opens.

2

Enter (2x) a max. 8-digit password for the safety program, for
example, "pw_fprog".

The FBD/LAD Editor opens, see
figure below.

3

Note: The F-FBD and F-LAD programming languages correspond in principle to the standard
FBD/LAD languages. The standard FBD/LAD editor in STEP 7 is used for programming.
The primary differences between the F-FBD and F-LAD programming languages and their
standard counterparts are limitations in the operation set and the data types and the address areas
that can be used (see S7 Distributed Safety, Configuring and Programming manual).
The following are displayed in the F-Program Elements Catalog:
•
Supported operations
•
F-FBs and F-FCs from the block container of your S7 program
•
F-blocks from F-libraries, e.g., F-application blocks of Distributed Safety F-library (V1), for
safety door monitoring etc.
•
Multiple instances.

22

S7 Distributed Safety
A5E00320726-01

Sequence Action
Assign special colors for non-safe data in the F-block.
4

Result

To do this, select the menu command Options > Customize, open the "View" tab, press the
"Select" button and select a "Background Color"; In our example, this is 'light blue' (as highlighted
in the figure below).

5

Confirm your change with "OK".

S7 Distributed Safety
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The "Customize” dialog box
closes. Now non-safe data will
be highlighted in light blue in the
safety program.

23

Step 11: Programming the Safety Door Function
Sequence Action

Result

1

Insert the following statical variable for the F-FB:

2

- "EN_Safety_door" (enable safety door).
Insert an FB 217 "F_SFDOOR" (safety door monitoring) into the fail-safe application block from the
F-application blocks container and supply the inputs and outputs as shown in the figure below.

The non-safe "Acknowledgment button" signal in the standard program has a light blue
background.
Connect the FB 217
Inputs/outputs Parameters
I0.1
IN1
I0.5
IN2
DB819.DBX2.1 QBAD_ IN1

Data type
BOOL
BOOL
BOOL

DB819.DBX2.1

QBAD_ IN2

BOOL

DB818.DBX36.4 OPEN_NEC

BOOL

DB818.DBX36.4 ACK_NEC

BOOL

I11.0
#EN_
Safety_door

ACK

BOOL

Description
Default
Input 1
Input 2
QBAD signal from the F-I/O
DB of the input IN1*
QBAD signal from the F-I/O
DB of the input IN2*
Fully qualified access to
Variable RLO1 from F-shared DB**
Fully qualified access to
Variable RLO1 from F-shared DB**
User acknowledgment (per button)

Q
ACK_REQ
DIAG

BOOL
BOOL
BYTE

Output (enable safety door)
Acknowledgment request
Service information

0
0
0
0
1
1
0
0
0
B#16#0

* = Both the inputs QBAD_IN1 and QBAD_IN2 must be interconnected. In our example, they are
interconnected to the QBAD signal from the F-I/O DB of the 4/8 F-DI to which the safety door
position switches are connected. You can see the block number of the F-I/O DB from the symbolic
name in the symbol table or in the SIMATIC Manager.
** = OPEN_NEC: 1 = Opening required at startup / ACK_NEC: 1 = Acknowledgment necessary.

24

S7 Distributed Safety
A5E00320726-01

Sequence Action

Result

Note: If you require Boolean constants "0" and "1" in your safety program to assign parameters
during block calls, you can access the "RLO0" and "RLO1" variables in the F-shared DB using fully
qualified DB access. In our example, the F-shared DB in the block container has the number
"DB 818" ("F_GLOBDB".VKE1).
Note: In fail-safe programming, you cannot interconnect, supply with "0" or evaluate the enable
input EN or the enable output ENO.
3

Save the F-FB and confirm the message with "Yes".

The F-block is subjected to a
consistency test and saved
once it completes the test
successfully.
The programming of the safety
door function is now completed.

Step 12: Programming the Emergency Stop Function
Sequence Action
1

Result

Insert the following statical variables for the F-FB:
- "EN_Safety_circuit" (enable safety circuit) and
- the auxiliary memory bits "AMB01" and "AMB02".

2
3

Insert a new network.
Insert the required operations from the program element catalog ("Bit Logic") and supply the inputs
and outputs as illustrated in the figure.

The non-safe "Acknowledgment button" signal in the standard program has a light blue
background.
4

Save the F-FB.

The F-block is subjected to a
consistency test and saved
once it completes the test
successfully.
The programming of the
emergency stop function
(shutdown at emergency stop,
open safety door, violation of
the laser scanner's protected
area ) is now completed.

S7 Distributed Safety
A5E00320726-01

25

Step 13: Programming the Feedback Loop Monitoring
Sequence Action

Result

1

Open the F-Library Distributed Safety (V1) and copy the Fapplication block F_TOF (FB 186) from the F-Application
Blocks\Blocks block container into the block container of your S7
program.

2

Insert a new network.
Insert an FB 216 "F_FDBBACK" (feedback loop monitoring) into the fail-safe application block from
the F-application blocks container and supply the inputs and outputs as shown in the figure below.

3

The block container of your S7
program contains the Fapplication block F_TOF (FB
186).

The non-safe signals in the standard program have a light blue background.
Connect the FB 216
Inputs/outputs Parameters
M10.0
ON
I11.1
FEEDBACK
DB820.DBX2.1 QBAD_FIO

Description
Default
1=activate output
0
Readback input
0
QBAD signal from F-I/O
0
DB of output Q*
DB818.DBX36.4 ACK_NEC
BOOL
Fully qualified access to
1
variable RLO1 from F-shared DB**
I11.0
ACK
BOOL
User acknowledgment (per button) 0
T#500MS
FDB_TIME
TIME
Readback time
T#0 ms
Q6.0
Q
BOOL
Output
0
ERROR
BOOL
Readback error
0
ACK_REQ
BOOL
Acknowledgment request
0
DIAG
BYTE
Service information
B#16#0
* = In our example, this is the QBAD signal from the F-I/O DB of the F-DO to which the load is
connected (the contactors). You can see the block number of the F-I/O DB from the symbolic
name in the symbol table or in the SIMATIC Manager.
** = ACK_NEC: 1 = acknowledgment required.

26

Data type
BOOL
BOOL
BOOL

S7 Distributed Safety
A5E00320726-01

Sequence Action
Result
Note: If you require Boolean constants "0" and "1" in your safety program to assign parameters
during block calls, you can access the "RLO0" and "RLO1" variables in the F-shared DB using fully
qualified DB access. In our example, the F-shared DB in the block container has the number
"DB 818" ("F_GLOBDB".VKE1).
Note: In fail-safe programming, you cannot interconnect, supply with "0" or evaluate the enable
input EN or the enable output ENO.
4

Save the F-FB.

The F-block is subjected to a
consistency test and saved
once it completes the test
successfully. The programming
of the feedback loop monitoring
is now completed.

Step 14: Programming the Selection of the Laser Scanner Protection Area
Sequence Action
1

Result

2

Insert a new network.
Insert the required operations from the program element catalog ("Bit logic") and supply the inputs
and outputs as illustrated in the figure.

3

Save the F-FB.

The F-block is subjected to a
consistency test and saved
once it completes the test
successfully.
The programming for the
selection of the laser scanner
protection area is now
completed.

S7 Distributed Safety
A5E00320726-01

27

Step 15: Programming the User Acknowledgment for Reintegration of the F-I/O
Sequence Action
1

Result

Insert the following statical variable for the F-FB:
- auxiliary memory bit "AMB03".

2
3

Insert a new network.
You need to provide a user acknowledgment for each F-I/O in your safety program for the
reintegration through the ACK_REI variable of the respective F-I/O DB as shown in the figure
below.

The non-safe "Acknowledgment button" signal in the standard program has a light blue
background.
Symbolic name in our example:
- "F00000_4_8_F_DI_DC24V": fail-safe digital input module 4/8 F-DI DC24V (= DB 819)
- "F00006_4_F_DO_DC24V_2A": fail-safe digital output module 4 F-DO 24 V DC / 2A (= DB 820)
- "F00012_196": SIGUARD LS4-4/P1 laser scanner (= DB 821).
Note: A user acknowledgment with a positive edge at the ACK_REI variable of the F-I/O DB is
required for the reintegration of the F-I/O (i.e. for switching from fail-safe values (0) to process
data) after an error is corrected:
- After every communication error
- After F-I/O errors or channel errors when the parameter ACK_NEC = 1.
4

Save the F-FB and ensure that no errors have occurred by
checking the "Error" output window of the FBD/LAD Editor.

The F-block is subjected to a
consistency test and saved
once it completes the test
successfully.
The programming of the user
acknowledgment is now
completed.

5

28

Close the F-FB and the FBD/LAD Editor.

You have programmed the
functionality for the task
involved in the example and can
now specify the F-runtime
group.

S7 Distributed Safety
A5E00320726-01

Step 16: Specify the F-Runtime Group
Sequence Action
Result
In
the
SIMATIC
Manager,
select
the
Options
>
Edit
Safety
Program
menu command. The
1
"Safety Program" dialog box appears.

2

Click on the "Runtime Groups..." button.
Note: F-blocks must not be called directly in an OB; rather, they
must be inserted into one (or two) F-runtime groups.

S7 Distributed Safety
A5E00320726-01

The dialog box "Edit F-Runtime
Groups” opens.

29

Sequence Action
Result
Click
on
the
"New..."
button
to
open
the
"Define
New
F-Runtime
Group"
dialog box.
3
Make the following settings for the F-runtime group:
•
Enter "FC100" as the F-CALL call block for the new F-runtime group. This FC is automatically
created as soon as you exit the "Edit F-Runtime Groups" dialog with "OK."
•
Define the F-program block of the F-runtime group by selecting the previously programmed FFB from the drop-down list that you want to define as the F-program block for the F-runtime
group, "FB100" in our example.
•
Since the F-program block is a function block in our example, assign an instance DB to it (for
example, "DB 100"). This I-DB is automatically created as soon as you exit the "Edit FRuntime Groups" dialog with "OK."
•
Set the maximum cycle time of the F-runtime group to "100 ms".
The dialog box should now appear as follows.

Note: The F-CALL is the F-block for calling the F-runtime group from the standard user program.
The F-CALL includes the call for the F-program block and the calls for the automatically added Fblocks of the F-runtime group.
You create the F-CALL, but you cannot edit it.
Note: The F-program block is an F-FC or F-FB (with instance DB) that becomes the F-program
block when assigned to the F-CALL. You can do the following in the F-program block:
•
Program the safety program with F-FBD or F-LAD
•
Call other created F-FBs/F-FCs for structuring the safety program
•
Insert F-blocks from the F-Application Blocks block container from the Distributed Safety Flibrary (V1)
•
Insert F-blocks from "custom F-libraries"
The user defines the call sequence of the F-blocks within the F-program block.
Close the dialog box with "OK".

30

S7 Distributed Safety
A5E00320726-01

Sequence Action
Result
You
return
to
the
"Edit
F-Runtime
Groups”
dialog
which
now
appears
as follows:
4

Close the dialog box with "OK".
5

6

A message window opens asking if you wish to create any other The remaining blocks are
blocks that are still needed. In our example, these are the Fcreated and saved. The
message window then closes.
CALL ("FC100") and the I-DB for the F-program block
("DB 100").
Confirm by clicking on "Yes".
You return to the "Safety Program” dialog which now appears as follows:

The safety program has now been created but has not yet been compiled. The collective signature
of all F-blocks with the F-attribute in the block container and the collective signature of the safety
program differ (as highlighted in the figure).

S7 Distributed Safety
A5E00320726-01

31

Step 17: Compile the Safety Program
Sequence Action
1

Click on the "Compile" button in the "Safety Program" dialog.
A consistency test is performed on the F-blocks involved in the
runtime when the safety program is compiled, in other words
the safety program is checked for errors. Any error messages
are output in an error window. Once the consistency test is
successfully completed, the additionally required F-system
blocks are generated automatically and inserted into the
runtime group to create an executable safety program.

Result
Following a successful
compilation, the block container
always contains a consistent
safety program composed
entirely of F-blocks with the Fattribute. See figure below.

2

The collective signature of all F-blocks with the F-attribute of the block container and the collective
signature of the safety program must match (as highlighted in the figure); in other words, a
consistent and executable safety program has been generated.
Click "Close" to confirm. The "Safety Program” dialog box closes.

32

S7 Distributed Safety
A5E00320726-01

Step 18: Call the Safety Program in the Cyclic Program
Sequence Action
1

Result

The safety program is accessed by calling F-CALL from the standard user program. Call the FCALL in the cyclic interrupt OB 35 as shown in the figure.
Note: You need to insert the cyclic interrupt OB 35 beforehand in the SIMATIC Manager.

Note: Cyclic interrupt OBs have the advantage of interrupting the cyclic program execution in OB1
of the standard user program at fixed time intervals; that is, a safety program is called and
executed at fixed time intervals in a cyclic interrupt OB.
Once the safety program is executed, the standard user program resumes.
2

Save and close OB 35.

S7 Distributed Safety
A5E00320726-01

The block is saved.

33

Step 19: Download the Complete Safety Program to the F-CPU and Activate the Safety
Mode
Sequence Action
1

In the SIMATIC Manager, select the Options > Edit Safety
Program menu command.

2

Activate the "Download" button.

3

Result
The "Safety Program" dialog box
appears.

All F-blocks with the F-attribute
belonging to the safety program
are identified and downloaded to
the F-CPU.
A note is displayed offering you the option of downloading the standard user program in addition to
the safety program.

Confirm by clicking on "Yes".
Note: If you are downloading F-blocks only, the block in which the F-CALL block is called (cyclic
interrupt OB35 in our example) is not downloaded. You then have to download this OB the same
way as for a standard program.
Note: To download the entire safety program, the F-CPU has to be in STOP mode.
4

In the "Safety Program" dialog box, select the "Offline" and
"Online" option buttons in turn to check whether the collective
signatures of all F-blocks with F-attribute in the block container
match offline and online.

If they match, downloading was
successful. If not, repeat the
download operation.

5

To activate safety mode, switch the F-CPU from STOP to RUN
mode.

You have now finished creating
the safety program for the tasks
involved in the example.

Note: Once a safety program has been created, you need to
perform a full function test for your automation tasks (see S7
Distributed Safety, Configuring and Programming manual).

34

S7 Distributed Safety
A5E00320726-01

Appendix 1: Modifying the Safety Program
Sequence Action
Result
Change
the
example
safety
program
so
that
no
user
acknowledgment
is required for an OSSD
1
signal (Output Signal Switching Device) from the laser scanner.
To do this, program the emergency stop function (Network 2) as shown in the figure.

Note: Changes to the safety program during operation (in RUN mode) can only be made in
deactivated safety mode. You make changes to F-blocks offline in FBD/LAD Editor in the same
way as for a standard program. F-blocks cannot be modified online.
Refer to the corresponding chapter describing how to modify and test the safety program and
deactivate the safety mode in the S7 Distributed Safety, Configuring and Programming manual.
2

Save the F-FB.

S7 Distributed Safety
A5E00320726-01

The F-block is subjected to a
consistency test and saved
once it completes the test
successfully.

35

Sequence Action
Result
In
the
SIMATIC
Manager,
select
the
Options
>
Edit
Safety
Program
menu command.
3
The "Safety Program" dialog box appears.

Note: You have changed and saved an F-block of the safety program and therefore created an
inconsistent safety program. In other words, the collective signature of all F-blocks with the Fattribute in the block container and the collective signature of the safety program differ (as
highlighted in the figure).
4

Note: You must deactivate safety mode of the safety program
to download changes to the safety program in RUN mode.
Safety mode remains deactivated until F-CPU is next switched
from STOP to RUN mode.

Another prompt will appear. This
prompt contains the collective
signature of the safety program
in the F-CPU.

Check to see whether "Safety mode activated" is indicated as
the "Current mode". If it is, activate the "Safety mode" button
and enter the password for the safety program.
5

Confirm the prompt to deactivate safety mode with "OK."

!

6
7

36

Safety mode will be deactivated.

Warning

Deactivation of safety mode is intended only for test purposes,
commissioning, etc. Whenever safety mode is deactivated, the
safety of the system must be ensured by other organizational
measures, such as operation monitoring and manual safety
shutdown.
Download the modified F-FB from the FDB/LAD Editor to the F- The F-FB is loaded in the FCPU (same procedure as for the standard program).
CPU.
Test the changes to the system or view the "Program status
Once the test is successfully
online".
completed, continue by compiling
the safety program.

S7 Distributed Safety
A5E00320726-01

Sequence Action
Result
To
apply
the
changes
to
the
safety
program
and
get
a
consistent
safety
program again, press the
8
"Compile" button.
The dialog box should now appear as follows.

The collective signature of all F-blocks with the F-attribute of the block container and the collective
signature of the safety program must match; in other words, a consistent and executable safety
program has been generated (as highlighted in the figure).
9

Click on the "Download" button to download the modified safety All F-blocks with the F-attribute
program to the F-CPU.
belonging to the safety program
are identified and downloaded to
the F-CPU.

10

In the "Safety Program" dialog box, select the "Offline" and
"Online" option buttons in turn to check whether the collective
signatures of all F-blocks with F-attribute in the block container
match offline and online.

If they match, downloading was
successful. If not, repeat the
download operation.

11

To activate safety mode, switch the F-CPU from STOP to RUN
mode.

You have now finished adapted
the safety program for the
modified task (see Sequence 1
above).

Note: After creating a safety program, you must perform a full
function test for your automation tasks.
After modifying a safety program that has already be fully
tested, it is sufficient to only test the modifications (see S7
Distributed Safety, Configuring and Programming manual).

S7 Distributed Safety
A5E00320726-01

37

Appendix 2: Acceptance Support for the Safety Program
Sequence Action
1
Note: The documentation of the safety program is part of the
acceptance documents in accordance with machine guidelines
or IEC 61508 for the process industry and correspondingly
applied standards.
Print out the safety program for the acceptance. Proceed as
follows:
1.) Activate the "Offline" button in the "Safety Program"
dialog in order for the signature of the symbols to be
included in the footer of the offline safety program
printout.
2.) Click on the "Print" button in the "Safety Program"
dialog.
3.) Activate all four check boxes in the "Print Safety
Program" dialog.

Result

The "Print Safety Program”
dialog box opens.

4.) Click "OK" to confirm.
5.) Select "All" for the print range of the "Hardware
Configuration" and mark the option "With parameter
description.
Confirm with "OK".

The safety program is printed.

Note: You need to archive all four printouts and logs of the
function tests.
2

3

38

Check the printout.
The collective signatures in the footer of the printout (each with
the collective signature of all F-blocks with an F-attribute in the
block container and signature of the symbols) must match in all
four printouts.
Activate the "Online" option to run a check in the "Safety
Program" dialog (the safety program must be loaded):
The online collective signature of all F-blocks with F-attribute in
the block container must match those in the accepted offline
printout and no unused F-CALL may be present in the online
safety program.
Note: Additional important notes and instructions about
acceptance of the safety program are available in the S7
Distributed Safety, Configuring and Programming manual.

If these checks reveal any
deviations or errors, recompile
the safety program and perform
the acceptance procedure again.

S7 Distributed Safety
A5E00320726-01

Appendix 3: Typical Configuration and Programming Mistakes and the Causes
Type

Error

Possible Cause / Remedy

Configuration F-blocks cannot be downloaded to the F-CPU.
error

F-CPU parameter "CPU contains
safety program" in the
"Protection” tab is not activated.

Configuration SF LED on the F-module lights when the safety program is
error
not loaded.

ET 200M: System property

Configuration - SF-LED on the F-module lights and
error
- TIMEOUT error in the DIAG byte of the F-I/O DB

Monitoring time of the F-module
≤ cycle time of the F-CALL.

Configuration - SF-LED on the F-module lights and
error
- CRC error in the DIAG byte of the F-I/O DB

ET 200S: The PROFIsafe
address set on the DIL switch
does not match the one set in
HW Config.

- Loaded safety program does
not match the one loaded in HW
Config.
- Safety program is inconsistent.
- PIQ/PII of the F-module was
overwritten by the standard user
program.

Configuration - SF-LED on the F-DI module lights and
error
- module reports short-circuit

Sensor connection does not
match configuration, for example:
- Only one switching contact is
connected to a channel with
1oo2 evaluation
- A sensor with non-equivalence
contacts is connected to a
channel configure for "twochannel equivalence".
- Two switching contacts of a
single-channel or two-channel
non-equivalence sensor are
supplied via VS1 and VS2

Programming After an F-block is edited and saved, the block cannot be
Check for any programming or
error
closed and the message "The block was not saved" appears. syntax errors in the "Error" detail
tab of the FBD/LAD Editor.
Programming F-PIQ/PII has not been updated.
error

F-CALL is not called in the cyclic
OB3x.
F-module has been passivated.
Evaluate the QBAD and DIAG
byte parameters in the respective
F-I/O DB.

Programming F-CPU goes to STOP due to data corruption in the safety
program.
error

- F-CALL is called more than
once in the cyclic program.
- The standard user program is
writing to F-DB addresses.
- Undeclared TEMP variables
are being used in the safety
program.
- Memory bits are being read in
the safety program that are
changing during the processing
of the F-CALL, for example,
clock memory bits.
- Overflow during INT
operations has not been
checked.

S7 Distributed Safety
A5E00320726-01

39

40

S7 Distributed Safety
A5E00320726-01

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Linearized                      : Yes
Has XFA                         : No
XMP Toolkit                     : Adobe XMP Core 4.2.1-c043 52.372728, 2009/01/18-15:08:04
Producer                        : Acrobat Distiller 5.0.5 (Windows)
Keywords                        : A5E00320726-01; Edition 10/2004
Create Date                     : 2004:11:02 08:44:41Z
Modify Date                     : 2011:08:11 10:50:31+02:00
Metadata Date                   : 2011:08:11 10:50:31+02:00
Format                          : application/pdf
Title                           : S7 Distributed Safety
Description                     : Getting Started
Creator                         : A&D AS SM ID
Document ID                     : uuid:8b1f5163-f96f-407e-bde9-59429898a444
Instance ID                     : uuid:a1e9f6fa-8219-44a4-9d89-d598555f455f
Page Mode                       : UseOutlines
Page Count                      : 42
Author                          : A&D AS SM ID
Subject                         : Getting Started
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