CONFIGURATION OF SRD991 / SRD960 VIA PROFIBUS

d configuration and operation tools via Profibus communication
according PROFIBUS PA Profile 3.0.
FEATURES Digital Input signal Supply voltage DC 9...32V
1 Operating current 10,5mA +/- 0,5mA (base current) Fault current: Base current +0mA for failures in application circuit, base current +4mA for failures
in coupling circuit by means of independent FDE-Safety circuit. Electrical connection according IEC 1158-2 FISCO-Model Data transmission according PROFIBUS-PA Profile 3.0

1
Data for model with intrinisic safety 2
SRD991 / SRD960
TI EVE0105 P1(en)
TABLE OF CONTENTS
1 CONFIGURATION OF SRD991 / SRD960 VIA PROFIBUS
3
1.1
General Information
3
1.2
Initial Setup via PROFIBUS
3
1.3
Setting of Bus address
3
1.4
Application specific Parameter
3
2 CYCLIC COMMUNICATION WITH MASTER CLASS 1
4
2.1
GSD-File
4
2.2
Cyclic Data Exchange
4
2.2.1
Module SP
4
2.2.2
Module
RCAS_IN+RCAS_OUT
5
2.2.3
Module SP+READBACK+POS_D
6
2.2.4
Module SP+CHECKBACK
7
2.2.5
Module SP+READBACK+POS_D+CHECKBACK
8
2.2.6
Module RCAS_IN+RCAS_OUT+CHECKBACK
9
2.2.7
Module SP+RB+RIN+ROUT+POS_D+CB
10
2.3
Block Diagram Function Block AO
11
2.4
Parameter Description of cyclic Parameters
12
2.4.1
Coding CHECKBACK
13
2.4.2
Coding Status
14
2.5
Modes of Function Block AO
17
2.5.1
Out of Service (O/S)
17
2.5.2
Automatic (AUTO)
17
2.5.3
Manual (MAN)
17
2.5.4
Remote Cascade (RCAS)
17
2.5.5
Local Override (LO)
18
2.6
Slave Diagnosis
18
2.6.1
DIAG_STATUS
19
2.6.2
Diagnosis
21
3 ACYCLIC COMMUNICATION WITH MASTER CLASS 1 OR MASTER
CLASS 2
23
3.1
List of all Parameters
23
3.1.1
Slot
#0 (Physical Block)
23
3.1.2
Slot #1 (Function und Transducer Block)
25
3.2
Parameter Description
30
3.3
Additional Diagnosis
40
3.4
Errorcodes for acyclic Data Transfer
43
4 REFERENCE DOCUMENTS
44 TI EVE0105 P1(en)
SRD991 / SRD960
3
1 CONFIGURATION OF SRD991 / SRD960 VIA PROFIBUS
1.1 General
Information
The Profibus communication interface offers multiple possibilities: Cyclic communication with Profibus
master Class 1 and acyclic communication for configuration and parameterization with Profibus
master Class 1 and Profibus master Class 2.
How to operate the Profibus master has to be taken from the according master instruction.
1.2 Initial Setup via PROFIBUS
Before beginning the initial setup, the positioner should be correctly mounted and electrically ready for
operation. The safety regulations must be observed, as described in MI EVE 0105 D-(en)
Chapter 13.
The positioner is preset with default parameters by the manufacturer, and instrument-specific data are
permanently stored. The internal temperature sensor, the position sensor angle and pressure sensors
(if applicable) are calibrated.
During the first commissioning the bus address and application-specific data must be entered. If no
entry is made, the default parameters are retained.
1.3 Setting of Bus address
According PROFIBUS-PA Profile 3.0 the default bus address is 126. Since this address isnt allowed
for cyclic communication, it is required to change this address at the first commissioning. This can be
done via the local push buttons at the device or with the Profibus service DDLM_SET_SLAVE_ADD.
Setting of the address via local push buttons is described at MI EVE0105 D-(en).
1.4 Application specific Parameter
At first commissioning at least the actuator system respectively the mounting side has to be configured
before performing an autostart. This can be done via the local push buttons at the device or via the
Parameter POSITION_LINEARIZATION. How to set it via the local push buttons at menue 1 is
described at MI EVE0105 P-(en), Chapter. 8.2. The default value is Linear actuator, left-hand
mounting.
Autostart or Short-autostart can be initiated as well via the local push buttons at the device or via
communication (Parameter SELF_CALIB_CMD). How to do it via local push buttons is described in MI
EVE0105 D-(en). 4
SRD991 / SRD960
TI EVE0105 P1(en)
2 CYCLIC COMMUNICATION WITH MASTER CLASS 1
2.1 GSD-File
Configuration and Parameterization of the PROFIBUS itself and the PROFIBUS Master Class 1 will be
done normally by using the GSD-File. The GSD-Files are named FOX_D991.GSD for SRD991 and
FOX_D960.GSD for SRD960. Both are available via Internet at
http://www.profibus.com
or
http://www.foxboro-eckardt.com
. In this connection the Identification numbers are D991 respectively
D960.
In addition to these GSD-Files offered by Foxboro Eckardt the SRD991 or SRD960 can operate also
with the GSD-File defined by Profile 3.0 for actuators. The name of this GSD-File is PA139710.GSD
and is available via Internet at
http://www.profibus.com
. Here the Identification number is 9710.
Within the GSD-File the (timing-) parameters relevant for the communication itself and the different
possibilities of the cyclic date exchange is described.
2.2 Cyclic Data Exchange
For the cyclic data exchange the SRD991 or SRD960 offers 7 possibilites, which are described within
the GSD-File. One of these possibilities has to be selected. Within Foxboro Eckardts GSD-Files
FOX_D991.GSD or FOX_D960.GSD these possibilities are listed in the so-called extended identifier
format. In addition the Module SP is available in the so-called normal identifier format. The other
Modules are described as a comment in the normal identifier format only for information. If necessary
the comment signs can be removed.
2.2.1 Module SP
Normal format:
Module Nr. 1 SP (short) 0xA4
Extended format:
Module Nr. 2 SP 0x82,0x84,0x08,0x05
With this Module only the setpoint SP will be transmitted to the positioner. There is no data
transmission from the positioner back to the master. The setpoint SP will be used by the positioner as
the desired setpoint in mode AUTO.
Output data:
Byte 1
Byte 2
Byte 3
Byte 4
Byte 5
SP (Value, float IEEE)
Status
SP TI EVE0105 P1(en)
SRD991 / SRD960
5
2.2.2 Module RCAS_IN+RCAS_OUT
Extended format:
Module Nr. 3 RCAS_IN+RCAS_OUT 0xC4,0x84,0x84,0x08,0x05,0x08,0x05
(Normal format:
RCAS_IN+RCAS_OUT 0xB4
2
)
With this Module the setpoint RCAS_IN will be transmitted to the positioner. The setpoint RCAS_OUT
will be transmitted to the master. The setpoint RCAS_IN will be used by the positioner as the desired
setpoint in mode RCAS.
Output data:
Byte 1
Byte 2
Byte 3
Byte 4
Byte 5
RCAS_IN (Value, float IEEE)
Status
RCAS_
IN
Input data:
Byte 1
Byte 2
Byte 3
Byte 4
Byte 5
RCAS_OUT (Value, float IEEE)
Status
RCAS_
OUT

2
Only as comment within SRD991/SRD960 GSD-File 6
SRD991 / SRD960
TI EVE0105 P1(en)
2.2.3 Module SP+READBACK+POS_D
Extended format:
Module Nr. 4 SP+READBACK+POS_D
0xC6,0x84,0x86,0x08,0x05.0x08,0x05,0x05,0x05
(Normal format:
SP+READBACK+POS_D 0x96,0xA4
3
)
With this Module the setpoint SP will be transmitted to the positioner. The actual position analog
(READBACK) and discrete (POS_D) will be transmitted to the master. The setpoint SP will be used by
the positioner as the desired setpoint in mode AUTO.
Output data:
Byte 1
Byte 2
Byte 3
Byte 4
Byte 5
SP (Value, float IEEE)
Status
SP
Input data:
Byte 1
Byte 2
Byte 3
Byte 4
Byte 5
Byte 6
Byte 7
READBACK (Value, float IEEE)
Status
READ-
BACK
POS_D
(Value)
Status
POS_D

3
Only as comment within SRD991/SRD960 GSD-File TI EVE0105 P1(en)
SRD991 / SRD960
7
2.2.4 Module SP+CHECKBACK
Extended format:
Module Nr. 5 SP+CHECKBACK 0xC3,0x84,0x82,0x08,0x05,0x0A
(Normal format:
SP+CHECKBACK 0x92,0xA4
4
)
With this Module the setpoint SP will be transmitted to the positioner. The detailed device information
CHECK_BACK will be transmitted to the master. The setpoint SP will be used by the positioner as the
desired setpoint in mode AUTO.
Output data:
Byte 1
Byte 2
Byte 3
Byte 4
Byte 5
SP (Value, float IEEE)
Status
SP
Input data:
Byte 1
Byte 2
Byte 3
CHECK
BACK
[0]
CHECK
BACK
[1]
CHECK
BACK
[2]

4
Only as comment within SRD991/SRD960 GSD-File 8
SRD991 / SRD960
TI EVE0105 P1(en)
2.2.5 Module SP+READBACK+POS_D+CHECKBACK
Extended format:
Module Nr. 6 SP+READBACK+POS_D+CHECKBACK
0xC7,0x84,0x89,0x08,0x05.0x08,0x05,0x05,0x05,0x0A
(Normal format:
SP+READBACK+POS_D+CHECKBACK 0x99,0xA4
5
)
With this Module the setpoint SP will be transmitted to the positioner. The actual position analog
(READBACK) and discrete (POS_D) as well as the detailed device information CHECK_BACK will be
transmitted to the master. The setpoint SP will be used by the positioner as the desired setpoint in
mode AUTO.
Output data:
Byte 1
Byte 2
Byte 3
Byte 4
Byte 5
SP (Value, float IEEE)
Status
SP
Input data:
Byte 1
Byte 2
Byte 3
Byte 4
Byte 5
Byte 6
Byte 7
Byte 8
Byte 9
Byte 10
READBACK (Value, float IEEE)
Status
READ-
BACK
POS_D
(Value)
Status
POS_D
CHECK
BACK
[0]
CHECK
BACK
[1]
CHECK
BACK
[2]

5
Only as comment within SRD991/SRD960 GSD-File TI EVE0105 P1(en)
SRD991 / SRD960
9
2.2.6 Module RCAS_IN+RCAS_OUT+CHECKBACK
Extended format:
Module Nr. 7 RCAS_IN+RCAS_OUT+CHECKBACK

0xC5,0x84,0x87,0x08,0x05,0x08,0x05,0x0A
(Normal format:
RCAS_IN+RCAS_OUT+CHECKBACK 0x97,0xA4
6
)
With this Module the setpoint RCAS_IN will be transmitted to the positioner. The setpoint RCAS_OUT
as well as the detailed device information CHECK_BACK will be transmitted to the master. The
setpoint RCAS_IN will be used by the positioner as the desired setpoint in mode RCAS.
Outp