PMA KS800, 9407-480-30001 Interface Manual

RGB ELEKTRONIKA AGACIAK CIACIEK

SPÓŁKA JAWNA

Jana Dlugosza 2-6 Street

51-162 Wrocław

Poland

[e-mail]

[phone]

www.rgbautomatyka.pl

www.rgbelektronika.pl

DATASHEET

www.rgbautomatyka.pl

www.rgbelektronika.pl

OTHER SYMBOLS:

KS800-DP

KS800DP, KS800 DP, KS800-DP

PMA

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Multi Temperaturecontroller KS800

KS800

KS800

KS800

PID

PID

PID

PID

PID

PID

PID

PID

KS800KS800

PROFIBUS-DP

Interface description

PROFIBUS-DP

9499 040 50511

Valid from: 8395

SIMATIC

®

is a registered trademark of Siemens AG

STEP

®

is a registered trademark of Siemens AG

®

is a registered trademark of the

PROFIBUS user organization (PNO)

© PMA Prozeß- und Maschinen-Automation GmbH Printed in Germany

All rights reserved. No part of this documentation may be reproduced or published in any form or by

any means without prior written permission

from the copyright owner.

A publication of PMA Prozeß- und Maschinen Automation

Postfach 310229

D-34058 Kassel

Germany

3 9499 040 50511

Contents

1 General ..................................5

1.1 Scope of delivery . . . . . . . . . . . . . . . . . . . . . . . . . ..........6

2 Hints on operation............................7

2.1 Interface connection . . . . . . . . . . . . . . . ...................7

2.1.1 Installation of cables . . . . . . . . . . . . . . . . . . . ...........7

2.2 Forcing .........................................7

3 Process data ...............................8

3.1 Defined as status byte are: . . . . . . . . . . . . . . ................12

3.2 Status and diagnosis messages . . . . . . . . . . . . ................15

3.3 Disabling mechanism with changes . . . . . . . . . . . ..............15

3.4 Process data transmission . . . . . . . . . . . . . . ................15

3.5 Parameter transmission . . . . . . . . . . . . . . . . . . . . . . ..........16

3.5.1 Message elements . . . . . . . . . . . . . . ................16

3.5.2 General communication structure . . . . . . . . . . . . . . . .......17

3.5.3 Data write sequence . . . . . . . . . . . . . ................17

3.5.4 Data read procedure . . . . . . . . . . . . . ................18

3.6 Examples . . . . . . . . . . . . . . . . . . . . . . . ................18

3.6.1 Function block protocol principles . . . . . . . . . . . . . . . .......18

3.6.2 Individual access . . . . . . . . . . . . . . . ................18

3.6.3 Block access (tens block). . . . . . . . . . . . . ..............19

3.6.4 Block acces (overall block) . . . . . . . . . . . . . . . . . .......19

3.7 Data types. . . . . . . . . . . . . . . . . . . . . . . ................21

4 Quick entrance .............................22

4.1 Quick entrance with S5. . . . . . . . . . . . . . . . . . . . . . ..........22

4.1.1 Example of a test environment: . . . . . . . . . . .............22

4.2 Quick entrance with S7. . . . . . . . . . . . . . . . . . . . . . ..........24

4.2.1 Example of a test environment: . . . . . . . . . . .............24

5 Function block protocol ........................26

5.1 Data structuring. ...................................26

5.2 CODE tables . . . . . . . . . . . . . . . . . . . . . . . . . . . . . ........27

5.2.1 Structure of configuration words (C.xxxx). . . . . . . . . . ........27

5.2.2 INSTRUMENT (FB no.: 0 type no.: 0) . . . . . . . . . . .......27

5.2.3 Special accesses (FB no.: 10 ... 17 type no.: 10) . . . . . . . . . . . . 33

5.2.4 Freely configurable (FB no.: 20 ... 27 type no.: 20) . . . . . . . . . . 34

5.2.5 INPUT (FB no.: 60 ... 67 Type no.: 112) . . . . . . . . . . . . . . . . 36

5.2.6 CONTR (FB no.: 50 ... 57 Type no.: 91) . . . . . . . . . . . . . . . . 37

5.2.7 ALARM (FB no.: 70 ... 77 Type no.: 46) . . . . . . . . . . . . . . . . 41

9499 040 50511 4

6 Function modules ...........................43

6.1 Function module for SIMATIC®S5 ........................43

6.1.1 Structure . . . . . . . . . . . . . . . . . . . . ...............43

6.1.2 Function module call . . . . . . . . . . . . . ................45

6.2 Function module for SIMATIC®S7 ........................46

6.2.1 Structure . . . . . . . . . . . . . . . . . . . . ...............46

7 Annex ..................................49

7.1 Terms .........................................49

7.2 GSD file . . . . . . . . . . . . . . . . . . . . . . . ................49

General

5 9499 040 50511

1 General

The KS800 multi-temperature controller versions (9407-480-30001) are equipped with a PROFIBUS-DP
interface for transmission of process parameter and configuration data. Connection is via the 9-pole sub-D
connector socket. The serial communication interface permits connections to supervisory systems,
visualization tools, etc.

Another interface, which is always provided as standard, is the PC interface. This interface serves for
connecting an engineering tool, which runs on a PC.

Communication is according to the master/slave principle. KS800-DP is always slave.

Cable medium as well as physical and electrical interface proporties:

w

Network topologie
Linear bus with active bus termination at both ends. Stub lines are possible (dependent of cable type, a
maximum overall stub line length of 6,6m with 1,5Mbit/s and of 1,6m with 3-12Mbit/s is possible).

w

Transmission medium
screened, twisted 2-wire cable (Ä EN 50170 vol.2).

w

Baudrates and cable lengths (without repeater)
The maximum cable length is dependent of transmission rate.
The Baudrate is determined by the master configuration.

Automatic Baudrate
detection

Baudrate Maximum cable length
9,6 / 19,2 / 93,75 kbit/s 1200 m
187,5 kbit/s 1000 m
500 kbit/s 400 m
1,5 Mbit/s 200 m
3 ... 12 Mbit/s 100m

w

Interface
RS485 connectable with sub-D connector (9-pole).

w

Address settings
Address setting is possible as follows:

- Adjustment via coding switches, range 00 ... 99, default 00

- adjustment via software, range 0 ... 126, default 126
With the coding switches set to ‘00’, the adjusted software address is valid.
A modified coding switch address is active only after switching on the supply voltage again.

w

32 instruments in one segment. Extension to 127 by means of a repeater is possible.

KS800 with PROFIBUS-DP interface offers many advantages with respect to handling and integration into a
PROFIBUS network.

w

Diagnosis and monitoring via COM-LED
LED off: error identification for ‘no bus access’ (so far not addressed by the master)
LED on: OK, cyclic data exchange running
LED blinks: (2Hz) Data exchange interrupted
LED blinks: (4Hz) PROFIBUS parameter setting and configuration error.

w

Particularities
Configurable process data modules
Direct input and output reading and writing
Output forcing
Easy connection to PLCs

1.1 Scope of delivery

The engineering set comprises:

w

Disk

Pma_0800.gsd

GSD file

Pmadp1st.s5d

STEP®5-FB for parameter channel

Pmadm3*.*

project example in STEP®5 for FixPoint

Pma_parm.arj

STEP®7-FB for parameter channel

Ks800dmo.arj

project example in STEP®7

Ks800_1x.200

type file

Demo308i.et2

configuration example COM PROFIBUS for
IM308-C

Demo95ui.et2

configuration example COM PROFIBUS for S5 CPU
95U

Ks800dem.et2

configuration example COM PROFIBUS for
PC-Karte

w

Interface description for PROFIBUS-DP

General

9499 040 50511 6

3,5-Diskette (A:)

Ks800dp

Gsd

Example.fix

Example

Example

S5_fb

S7_fb

Type

2 Hints on operation

2.1 Interface connection

The PROFIBUS must be connected to the 9-pole sub-D socket.
Serial interface, physical RS485-based signals.

The construction of suitable cabling must be provided by the user, whereby the general cable specifications
to EN 50170 vol.2 must be taken into account.

2.1.1 Installation of cables

When laying the cables, the general hints for cable installation given by the supplier of the master module
must be followed:

w

Cable run in buildings (inside and outside cabinets)

w

Cable run inside and outside buildings

w

Potential compensation

w

Cable screening

w

Measures against interference voltages

w

Stub line length

w

Bus termination resistors are not contained in KS800-DP, but must be realized via the connector, if
necessary.

w

Earthing

g

Special hints for installation of PROFIBUS cables are given in the PNO technical guideline “Installation
guidelines for PROFIBUS-DP/FMS” (Order no. 2.111 [dt]; 2.112 [engl.]).

2.2 Forcing

Digital outputs can be written directly after configuring them accordingly.

Hints on operation

7 9499 040 50511

Fig.: 1 Connecting PROFIBUS-DP

do

C.100 C.500/

3 Process data

During data transmission, distinction of process data to be transmitted cyclically and parameter /
configuration data to be transmitted acyclically is made. The I/O data field is structured modularly for
matching it to the requirements of the control task.
Selection of the process data module is via configuration tools of the master circuits (e.g. with Siemens S5
via COM PROFIBUS).

The following process data modules can be configured:

Process data
module A:

read (66 bytes)

1)

write1)(52 bytes) without

parameter

channel

Instrument status, (process value, output value, status, ..) Instrument control, (set-point, output value, ...)

Process data
module B:

read (74 bytes)

1)

write1)(60 bytes)* with

parameter

channel

Instrument status, (process value, output value, status, ..) Instrument control, (set-point, output value, ...)

Process data
module C:

only parameter channel

1)

(8/8 bytes)

Process data
module D:

read (74 Byte)

1)

write (60 Byte)

1)

with parameter

channel

Instrument status, (process value, output value,
status, ..)

Instrument control, (set-point, output value, ...)

Process data
module E:

read (116 Byte)

1)

write (116Byte)

1)

with parameter

channel

Instrument status, (52 variable process data) Instrument control, (52 variable process data)

Process data
module F:

read (92 Byte)

1)

write (92 Byte)

1)

with parameter

channel

Instrument status, (40 variable process data) Instrument control, (40 variable process data)

Process data
module G:

read (28 Byte)

1)

write (28 Byte)

1)

with parameter

channel

Instrument status, (8 variable process data) Instrument control, (8 variable process data)

Process data
module H:

read (16 Byte)

1)

write (16 Byte)

1)

with parameter

channel

Instrument status, (multiplexing 64 variable
process data)

Instrument control, (multiplexing 64 variable process
data)

The parameter channel is used for sequential transmission of parameter and configuration data. The values to
be adjusted and data significations are given in the following tables:

For the process data modules (module E - H), the cyclical transmission data must be selected by means of
the ‘KS800’ engineering tool via General instrument settings r
Communication r Bus data.

Max. 64 data for reading and 64 data for writing can be selected. Dependent of selected process data
module, the first 52 data (module E), the first 40 data (module F), the first 8 data (module H) or all
data are used (module G).

Process data

9499 040 50511 8

1) Number of required bytes in the I/O field

q

Module A (process data of all 8 channels)

No. Descr. R/W

FIX point format

Rem.

Number of bytes

Value

Hex COM PROFIBUS

Inputs ] 66

0 Unit_State R 2 11 16DE

A

1 Xeff_1 R 2 50 1AE
2 Yeff_1 R 2 50 1AE
3 HC_1 R 2 50 1AE
4 Alarm_1 R 1 10 8DE

B

5 Status_1 R 1 10 8DE

C

6 Xeff_2 R 2 50 1AE
7 Yeff_2 R 2 50 1AE
8 HC_2 R 2 50 1AE
9 Alarm_2 R 1 10 8DE

B

10 Status_2 R 1 10 8DE

C

...

36 Xeff_8 R 2 50 1AE
37 Yeff_8 R 2 50 1AE
38 HC_8 R 2 50 1AE
39 Alarm_8 R 1 10 8DE

B

40 Status_8 R 1 10 8DE

C

Outputs ] 52

41 Unit_Cntrl W 4 23 32DA

D

42 Wvol_1 W 2 60 1AA
43 Yman_1 W 2 60 1AA
44 Cntrl_1 W 2 21 16DA

E

45 Wvol_2 W 2 60 1AA
46 Yman_2 W 2 60 1AA
47 Cntrl_2 W 2 21 16DA

E

...

63 Wvol_8 W 2 60 1AA
64 Yman_8 W 2 60 1AA
65 Cntrl_8 W 2 21 16DA

E

q

Module B (process data of all 8 channels + parameter channel)

No. Descr. R/W

FIX point format

Rem.

Number of bytes

Value

Hex COM PROFIBUS

Inputs ] 66

0 Unit_State R 2 11 16DE

A

1 Xeff_1 R 2 50 1AE
2 Yeff_1 R 2 50 1AE
3 HC_1 R 2 50 1AE
4 Alarm_1 R 1 10 8DE

B

5 Status_1 R 1 10 8DE

C

6 Xeff_2 R 2 50 1AE
7 Yeff_2 R 2 50 1AE
8 HC_2 R 2 50 1AE
9 Alarm_2 R 1 10 8DE

B

10 Status_2 R 1 10 8DE

C

...

36 Xeff_8 R 2 50 1AE
37 Yeff_8 R 2 50 1AE
38 HC_8 R 2 50 1AE
39 Alarm_8 R 1 10 8DE

B

40 Status_8 R 1 10 8DE

C

Process data

9 9499 040 50511

Outputs ] 52

41 Unit_Cntrl W 4 23 32DA

D

42 Wvol_1 W 2 60 1AA
43 Yman_1 W 2 60 1AA
44 Cntrl_1 W 2 21 16DA

E

45 Wvol_2 W 2 60 1AA
46 Yman_2 W 2 60 1AA
47 Cntrl_2 W 2 21 16DA

E

...

63 Wvol_8 W 2 60 1AA
64 Yman_8 W 2 60 1AA
65 Cntrl_8 W 2 21 16DA

E

Inputs/outputs

66 Parameter channel R/W 8 / 8 F3 4AX

q

Module C (only parameter channels)

No. Descr. R/W

FIX Point-Format

Number of bytes

Value

Hex COM PROFIBUS

Inputs/outputs

0 Parameter channel R/W 8 / 8 F3 4AX

Transmission of the analog values is in the 16-bit fix point format (FIX). In FIX format, all values are
interpreted with one digit behind the decimal point (range -3000,0 to 3200,0).

q

Module D (Like Module B, but more compact Configurationformat)

No. Descr. R/W

FIX Point-Format

Rem.

Number of

Bytes

Value

Hex COM PROFIBUS

Inputs ] 74

0 Unit_State R 2 11 16DE

A

1 Xeff_1, Yeff_1, HC_1, Alarm_1, Status_1 R 8 53 4AE
2 Xeff_2, Yeff_2, HC_2, Alarm_2, Status_2 R 8 53 4AE

...

8 Xeff_8, Yeff_8, HC_8, Alarm_8, Status_8 R 8 53 4AE

Outputs ] 60

9 Unit_Cntrl W 4 23 32DA

B

10 Wvol_1, Yman_1, Cntrl_1 W 6 62 3AA
11 Wvol_2, Yman_2, Cntrl_2 W 6 62 3AA

...

17 Wvol_8, Yman_8, Cntrl_8 W 6 62 3AA

In- /Outputs

18 Parameterchannel R/W 8 / 8 F3 4AX

Process data

9499 040 50511 10

q

Module E (52 variable processdata and parameterchannel)

No.. Descr.. R/W

FIX Point-Format

Rem.

Number of

Bytes

Value

Hex COM PROFIBUS

Inputs ] 116

0 Unit_State, Digital_Outputs R 4 13 32DE

A, F

1 IN_1 … IN_8 R 16 57 8AE
2 IN_9 … IN_16 R 16 57 8AE

...

6 IN_41 … IN_48 R 16 57 8AE
7 IN_49 … IN_52 R 8 53 4AE

Outputs ] 116

8 Unit_Cntrl I, Unit_Cntrl II W 4 23 32DA

B

9 OUT_1 … OUT_8 W 16 67 8AA

10 OUT_9 … OUT_16 W 16 67 8AA

...

14 OUT_41 … OUT_48 W 16 67 8AA
15 OUT_49 … OUT_52 W 8 63 4AA

In- /Outputs

16 Parameterchannel R/W 8 / 8 F3 4AX

q

Module F (40 variable processdata and parameterchannel)

No.. Descr.. R/W

FIX Point-Format

Rem.

Number of

Bytes

Value

Hex COM PROFIBUS

Inputs ] 92

0 Unit_State, Digital_Outputs R 4 13 32DE

A, F

1 IN_1 … IN_8 R 16 57 8AE
2 IN_9 … IN_16 R 16 57 8AE

...

5 IN_33 … IN_40 R 16 57 8AE

Outputs ] 92

6 Unit_Cntrl I, Unit_Cntrl II W 4 23 32DA

B

7 OUT_1 … OUT_8 W 16 67 8AA
8 OUT_9 … OUT_16 W 16 67 8AA

...

11 OUT_33 … OUT_40 W 16 67 8AA

In- /Outputs

12 Parameterchannel R/W 8 / 8 F3 4AX

q

Module G (8 variable processdata and parameterchannel)

No.. Descr.. R/W

FIX Point-Format

Rem.

Number of

Bytes

Value

Hex COM PROFIBUS

Inputs ] 28

0 Unit_State, Digital_Outputs R 4 13 32DE

A, F

1 IN_1 … IN_8 R 16 57 8AE

Outputs ] 28

2 Unit_Cntrl I, Unit_Cntrl II W 4 23 32DA

B

3 OUT_1 … OUT_8 W 16 67 8AA

In- /Outputs

4 Parameterchannel R/W 8 / 8 F3 4AX

Process data

11 9499 040 50511

q

Module H (Multiplexing of all 64 variable processdata and parameterchannel)

No.. Descr. R/W

FIX Point-Format

Rem.

Number of

Bytes

Value

Hex COM PROFIBUS

Inputs ] 16

0 Unit_State, Digital_Outputs R 4 13 32DE

A, F

1

Index IN

Read

R 2 50 1AE

Write

2 Read Value R 2 50 1AE

Outputs ] 16

3 Unit_Cntrl I, Unit_Cntrl II W 4 23 32DA

B

4

Index OUT

Read

W 2 60 1AA

Write

5 Write Value W 2 60 1AA

In- /Outputs

6 Parameterchannel R/W 8 / 8 F3 4AX

Operating principle (reading):

w

Enter the index number into ‘Index OUT’ (Read).

w

After the index number is mirror-inverted in ‘Index IN’ (Read), the read value is stored in
‘Read Value’ .

Operating principle (writing):

w

Enter the index number into ‘Index OUT’ (Write)

w

Enter the value to be written into ‘Write Value’.

w

After the index number is mirror-inverted in ‘Index IN’ (Write), the value was transmitted.

g

To ensure consistent data transmission, ‘Index OUT’ (Write) and ‘Write Value’ must have been updated
safely before a PROFIBUS data cycle. If this cannot be ensured, proceed as follows: ‘0’ in ‘Index OUT’
(Write), write the value to be transmitted into ‘Write Value’ and write the index number into ‘Index OUT’
(Write). With entry ‘0’ in ‘Index OUT’ (Read) / ‘Index OUT’ (Write), no data are transmitted.

3.1 Defined as status byte are:

Unit_State

MSB LSB

D15 D14 D13 .. .. D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

IN13 Digital input IN13 (ParNo) off on

D1

IN14 Digital input IN14 (Coff) off on

D2

IN15 Digital input IN15 (Leck) off on

D3

IN16 Digital input IN16 (w/w2) off on

D4

always ‘0’

D5

Dex Changed ComRead or ComWrite data no yes

D6, D7

Always ‘0’

D8

Err1 Transmission error channel 1 no yes

D9

Err2 Transmission error channel 2 no yes

D10

Err3 Transmission error channel 3 no yes

D11

Err4 Transmission error channel 4 no yes

D12

Err5 Transmission error channel 5 no yes

D13

Err6 Transmission error channel 6 no yes

D14

Err7 Transmission error channel 7 no yes

D15

Err8 Transmission error channel 8 no yes

Process data

9499 040 50511 12

Rem. B1 Alarm_x

MSB LSB

D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

Lim HH Alarm HH off on

D1

Lim H Alarm H off on

D2

Lim L Alarm L off on

D3

Lim LL Alarm LL off on

D4

Fail Alarm Sensor Fail no yes

D5

HCAl Heating current alarm off on

D6

LeckAl Leakage current alarm off on

D7

do1_8Al Alarm OUT1 ... 8 off on

Rem. C Status_x

MSB LSB

D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

w/W2 w/W2 switch-over w W2

D1

We/w External/internal switch-over external internal

D2

w/Wanf Start-up set-point switch-over w Wanf

D3

Orun Optimization active no yes

D4

A/M Automatic/manual switch-over auto manual

D5

Coff Controller switched off no yes

D6

Y1 Switching output 1 off on

D7

Y2 Switching output 2 off on

Rem. D Unit_Contrl I

MSB LSB

D31 D30 D29 ... ... D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

OUT1 Forcing of output OUT1 off on

D1

OUT2 Forcing of output OUT2 off on

D2

OUT3 Forcing of output OUT3 off on

D3

OUT4 Forcing of output OUT4 off on

D4

OUT5 Forcing of output OUT5 off on

D5

OUT6 Forcing of output OUT6 off on

D6

OUT7 Forcing of output OUT7 off on

D7

OUT8 Forcing of output OUT8 off on

D8

OUT9 Forcing of output OUT9 off on

D9

OUT10 Forcing of output OUT10 off on

D10

OUT11 Forcing of output OUT11 off on

D11

OUT12 Forcing of output OUT12 off on

D12

OUT13 Forcing of output OUT13 off on

D13

OUT14 Forcing of output OUT14 off on

D14

OUT15 Forcing of output OUT15 off on

D15

OUT16 Forcing of output OUT16 off on

Process data

13 9499 040 50511

Rem. E Unit_Contrl II

MSB LSB

D31 D30 D29 ... ... D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

OUT17 Forcing of output OUT17 off on

D1

OUT18 Forcing of output OUT18 off on

D2

OUT19 Forcing of output OUT19 off on

D3

OstartG Start optimizing all group controllers no start start

D4

OStopG Forcing of output OUT5 no stop stop

D5

Dval Forcing of output OUT6 flank 0->1

D6- D15

always "0"

Rem. F Cntrl_x

MSB LSB

D15 D14 D13 ... ... D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

A/M Automatic/manual switch-over auto manual

D1

Coff Controller switched off no yes

D2

w/W2 w/W2 switch-over w W2

D3

We/w External/internal switch-over external internal

D4

OStart Start optimization

1)

no start start

D5

OStop Stop optimization

1)

no stop stop

D6 .. D15

unused, always ‘0’

Rem. G Digital_Outputs

MSB LSB

D15 D14 D13 ... ... D2 D1 D0

Bit-No. Name Allocation Status ‘0’ Status ‘1’

D0

Y1_7 Y1-Output Channel 7 off on

D1

Y2_7 Y2-Output Channel s 7 off on

D2

Y1_6 Y1-Output Channel 6 off on

D3

Y2_6 Y2-Output Channel 6 off on

D4

Y1_5 Y1-Output Channel 5 off on

D5

Y2_5 Y2-Output Channel 5 off on

D6

Y1_4 Y1-Output Channel 4 off on

D7

Y2_4 Y2-Output Channel 4 off on

D8

Y1_3 Y1-Output Channel 3 off on

D9

Y2_3 Y2-Output Channel 3 off on

D10

Y1_2 Y1-Output Channel 2 off on

D11

Y2_2 Y2-Output Channel 2 off on

D12

Y1_1 Y1-Output Channel 1 off on

D13

Y2_1 Y2-Output Channel 1 off on

D14

Y1_0 Y1-Output Channel 0 off on

D15

Y2_0 Y2-Output Channel 0 off on

Process data

9499 040 50511 14

1) Signals are active only with change from 0 Ä 1. The signal must be available, until a change of Orun

(see Status_x) has occurred.

2)See chapter 3.3 page 15 "Disabling mechanism with changes".

3.2 Status and diagnosis messages

For KS800 instrumwent status signalling, the external (user-specific) diagnosis must be used. The format
corresponds to the instrument-related diagnosis (EN50170 volume 2 PROFIBUS).

Instrument-specific diagnosis Octet 1

MSB LSB

D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’ Type

D0

Online/Conf On-line / configuration on-line configuration status

D1

DO1_12Fail Error do1 ... do12 no yes diagnosis

D2

D=13_16Fail Error do13 ... do16 no yes diagnosis

D3

HCFail Heating current short circuit no yes diagnosis

D4 .. D7

unused, always ‘0’

Instrument-specific diagnosis Octet 2

MSB LSB

D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’ Type

D0

InpF1 Input fail channel 1 no yes diagnosis

D1

InpF2 Input fail channel 2 no yes dianosis

D2

InpF3 Input fail channel 3 no yes diagnosis

D3

InpF4 Input fail channel 4 no yes diagnosis

D4

InpF5 Input fail channel 5 no yes diagnosis

D5

InpF6 Input fail channel 6 no yes diagnosis

D6

InpF7 Input fail channel 7 no yes diagnosis

D7

InpF8 Input fail channel 8 no yes diagnosis

3.3 Disabling mechanism with changes

Changing the reference to a datum to be transmitted during operation, e.g. on-line via parameter channel
or via the engineering interface, implies a hazard of value misinterpreting by bus master and KS800.
This can be prevented by a disabling mechanism.

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When changing a reference, the controller module sets bit Dex = 1.

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The master must evaluate bit Dex.

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Acknowledgement and a statement that there are only valid write data also on the master side, are
generated via a positive flank for bit Dval.

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When receiving a positive flank, the controller module sets Dex = 0 and stores the data which were
sent.

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Resetting Dex is also possible by switching the voltage off and on again.

3.4 Process data transmission

Process data are transmitted cyclically by the controller, whereby compliance with the minimum poll time of
570ms is ensured, if no simultaneous access via the parameter channel is made. Output data sent to KS800
are compared with the previously transmitted values and processed by the controller with deviation. If one of
the data is faulty, bit 8 with error in channel 1, bit 9 with error in channel 2 ... or bit 15 with error in channel
8 is set in the ‘Unit_State’, until no faulty accesses are pending any more.

Process data

15 9499 040 50511

3.5 Parameter transmission

For parameter transmission, the ‘parameter channel’ via which data can be exchanged transparently via the
function block protocol is available. Thereby, all possible protocol access modes are supported (individual
access, tens block and overall block). Communication to the controller is transparent, i.e. the user himself is
responsible for monitoring ranges, operating modes (auto/hand) etc.
The parameter channel is designed for large amounts of data with low requirements on the transmission
speed.

3.5.1 Message elements

Some terms which are used in the following text are explained below:

Element Description Rem.

ID

Telegram mode identification

A

ID1

Format of data to be transmitted or to be received

B

Code

Addressing code of a datum

C

FB no.

Function block number

D

Fct no.

Function number

E

Type

d.c. (always ‘0’)

Rem. A ID

This element identifies the telegram type:

ID = 0x10 = start telegram

1)

ID = 0x68 = data telegram
ID = 0x16 = end telegram

Rem. B ID1

This element identifies the file format:

ID1=0= Integer

ID1 = 1 = Real value as fixpoint

Rem. C Code

The code identification is decimal and the range includes ‘00’...’99’ as well as ‘178’ = B2 and ‘179’ = B3.

Rem. D FB no. (function block number)

A function block is addressed with a function block number. It is within ‘0’ and ‘250’. Channel addressing is
also via the function block number.

Function block number ranges:

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0general data for the overall instrument

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1 - 99 fixed function blocks

Rem. E Fct. no. (function number)

A function as a partial address of a function block is also addressed with a function number. It is within ‘0’
and ‘99’.

Function number ranges:

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0function general

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1 - 99 other functions

Process data

9499 040 50511 16

Parameter 1 Parameter 1

Parameter 2 Parameter 2

.... ....

.... ....

.... ....

.... ....

.... ....

Parameter n Parameter n

Parameterkanal

1) 0x10 means 10 in hexadecimal

3.5.2 General communication structure

For transmission of the parameters required for the function block protocol via an 8-byte data window, the
access is composed of three parts:

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Order header with specification of code, FB no., fct. no., type and the following real and integer values.
Start telegram structure:

Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

ID ID1 Code FB no. Fct._no. Type Numb.real values Numb.integer values

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n data blocks with the data to be transmitted
Data telegram structure:

Transmission of real data as fixedpoint and of integer values

Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

ID Count Integer

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An end block provides the operation result
Structure of the end telegram:

Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

ID Result

Signification of result
0OK
4 NAK

The read or write operation is always started by the master. With the number of real and integer values≠0, a
write service, otherwise, a read service is started.

The code determines the access type:

Code < 100, no multiple of 10 Ä individual access
Code < 100, multiple of 10 Ä tens block access
Code > 100 Ä overall block access

3.5.3 Data write sequence

Start telegram:

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

0x10 ID1 Code FB no. Fct._no. Type Numb.real values Numb.integer values

Controller
replies:

Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

0x10

Data telegrams:

Master sends:

Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7

0x68 count Value 0x68 count

Thereby, the first value is sent with Count = 1. For flow control, Count is reflected by KS800 (? once). The
values are transmitted in the order real - integer.

End telegram:

Master sends:

Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2-3 Byte4-7

0x16 0x16 Result

Process data

17 9499 040 50511

3.5.4 Data read procedure

Start telegram:

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

0x10 ID1 Code FB no. Fct._no. Type 0 0

Controller
replies:

Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

0x10 Numb. real values

1)

Numb. integer values

1)

Data telegrams:

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7

0x68 count 0x68 count Value

Thereby, the first value is sent with Count = 1. For flow control, count is reflected by KS800 (? once). The
values are transmitted in the order real - integer.

End telegram:

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2-3 Byte4-7

0x16 0x16 Result

3.6 Examples

3.6.1

Function block protocol principles

A function block has input and output data (process data) as well as parameter and configuration data. It is
addressable via a function block number.

The following access mechanisms are used:

3.6.2 Individual access

This access (code xx) can be used for reading or writing an individual value of a function.

Valid values for ID1:
Configuration as

FixPoint:

0 = integer real values are transmitted as integer (without digits behind the decimal point)
1 = real real values are transmitted as FixPoint (1 digit behind the decimal point)

Example 1: (message structure with data sending)
Transmission of parameter set number (ParNr = 1) to the controller (channel 2).

Start telegram:

Master sends:

Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

0x10 0 31 52 5 0 0 1

Controller

replies:

Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

0x10

Data telegrams:

Master sends:

Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7

0x68 1 1 0x68 1

End telegram:

Master sends:

Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte2-3 Byte4-7

0x16 0x16 0

Process data

9499 040 50511 18

1) If a Read Service was refused, these values = 0

Example 2: (message structure with data request)
Reading the error code of self-tuning heating (MSG1) of controller (channel 2).
Start telegram:

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

0x10 0 35 52 5 0 0 0

Controller
replies:

Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

0x10 0 1

Datentelegramme:

Master sends:

Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7

0x68 1 0x68 1 2 (ok)

End telegram:

Master sends:

Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte2-3 Byte4-7

0x16 0x16 0

3.6.3 Block access (tens block)

This access (code x0) can be used for reading max. nine process values (always as REAL values) of a
function.

Example:(message structure with data request)
Reading the set-points (W

nvol

and W

vol

) of controller (channel3).

Start telegram:

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

0x10 0 30 53 1 0 0 0

Controller
replies:

Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

0x10 2 0

Data telegrams:

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7

0x68 1 0x68 1 150

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7

0x68 2 0x68 2 140

End telegram:

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte2-3 Byte4-7

0x16 0x16 0

3.6.4 Block acces (overall block)

This access can be used for reading or writing all parameter (code 178) and configuration data (code 179) of
a function. The following conditions are applicable to this access:

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For writing the data with ‘code B3 = 179’, the instrument must be switched to the configuration mode
(Ä see page 27 ‘OpMod’). All entered new configuration data and parameters are effective only,
when the instrument was switched back to on-line.

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All data of a message must be defined, omissions are not permissible.

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The complete message must be transmitted also, if parts of a message in the controller are not used
(HW and SW options). Checking of the non-existing data is omitted.

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With faulty block write accesses, the following is valid: a message is replied with NAK, if at least one
datum is faulty. Already valid values are accepted.

Process data

19 9499 040 50511

The message structure with block accesses with code B2/B3 is shown using two examples below. The order
of data to be transmitted is given in the relevant code table.

Valid values for ID1:
Configuration as FixPoint: 0, 1 Transmission of real values each as a FixPoint value

Example 1: (message structure with data request)
Reading set-point parameters (W0, W100, W2, Grw+, Grw- and Grw2) of controller (channel 7).
Start telegram:

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

0x10 0 0xB2 57 1 0 0 0

Controller
replies:

Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

0x10 6 0

Data telegrams:

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7

0x68 1 0x68 1 0

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7

0x68 2 0x68 2 700

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7

0x68 3 0x68 3 100

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7

0x68 4 0x68 4 -32000

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7

0x68 5 0x68 5 -32000

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7

0x68 6 0x68 6 -32000

End telegram:

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte2-3 Byte4-7

0x16 0x16 0

Example 2: (Message structure with data specification)
Writing the alarm configuration (C.600, C.601) to the controller (channel 1).
Start telegram:

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

0x10 0 0xB3 70 0 0 0 2

Controller
replies:

Byte 0 Byte 1 Byte 2 Byte 3 Byte 4 Byte 5 Byte 6 Byte 7

0x10 0 0

Data telegram:

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7

0x68 1 0120 0x68 1

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7

0x68 2 0110 0x68 2

End telegram:

Master sends: Byte 0 Byte 1 Byte 2 Byte 3 Byte4-7 Controller replies: Byte 0 Byte 1 Byte2-3 Byte4-7

0x16 0x16 0

Process data

9499 040 50511 20

3.7 Data types

Data values are classified in data types for transmission.

w

FP
Floating point number (Real)
Range:as integer (in individual access) -9999 ... 0 ... 9999
as fix point-3000,0 ... 0,0 ... 3200,0
Exception:switch-off value ‘-32000’

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INT
positive integer number
Range: 0 ... 32767
Range with configuration words: 0000 ... 9999 (Ä Page 27)
Exception: Switch-off value ‘-32000’

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ST1
Status, bit-oriented, 1 byte Length
Range: 00H ... 3FH, transmitted: 40H...7FH
Only 6 bits can be used for information transmission, i.e. bit 0...5 (LSB = bit 0). Bit 6 must always be
set to ‘1’, in order to avoid confusion with the control characters. Bit 7 contains the parity bit.

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ICMP (Integer Compact)
Bit information as integer transmission, max. 15 bits
Range: 0...32767; integer transmission is in ASCII format.

fixed to ‘0’ Bit signification
Bit 15 14 13 12 11 10 9876543210
Value - 16384 8192 4096 2048 1024 512 256 128 64 32 16 8421

Example:
Bit 13 = 1 and bit 1 = 1, all remaining bits are ‘0’
internal hex value: 0x2002, as integer value: 8194, transmitted ASCII value: ‘8194’

Process data

990914 21 9499 040 50511

4 Quick entrance

The disk enclosed in the engineering set includes the GSD file, project examples for a SIMATIC®S5 / S7,
the type file and configuration examples for COM PROFIBUS. Communication with a KS800-DP can be
built up easily by means of the configuration and a project.

4.1 Quick entrance with S5

Test environment
The following components are required for the test set-up:

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Programming unit (PG740 recommended)

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Automation unit

-

S5-115U, S5-135U or S5-155U with IM 308-C

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KS800-DP

w

Engineering set (order no. 9407 999 09x11)

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Cable

-

PROFIBUS cable automation unit / IM 308-C i KS800-DP

-

programming unit i automation unit

4.1.1 Example of a test environment:

A KS800-DP with address 5 is to be connected to an IM 308-C via PROFIBUS-DP. Process data module B
is selected (8 process data channels and parameter channel). Data shall be transmitted in fix point format.
The I/O addresses in the S5 start with 0 in the P area.

g

Before taking the test environment into operation, ensure that the automation units do not contain user
software (“initial clear”). The same applies to the IM 308-C memory card.

Procedure:

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Establishing the communications

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Instrument configuration

- Adjust address 5 on KS800-DP (via coding switches or engineering tool) and connect it to the
network.

- Activate bus termination resistors at the controller connector and at the (S5) PLC connector.

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PROFIBUS network configuration

- Insert the disk (engineering set) into programming unit.

- Call up COM PROFIBUS and load example (A:\KS800dp\type\example\Demo308i.et2)

- Select the correct CPU type with IM308C.

-

If necessary, adapt addressings and DP network and transmit them to the DP master (Ä Fig.: ).

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Load S5 program

-

Insert disk (engineering set) into the programming unit.

-

Call up STEP

®

5.

-

Load program example, e.g. (A:\KS800dp\s5_fb\example.fix\...)

-

If necesary, match the addresses for send / receive window (A-A/E-A in FB) and transmit them to
the automation unit.

-

Switch automation unit to run

Quick entrance

9499 040 50511 22 990914

After taking the test set-up into operation, testing of the I/O area and parameter channel call-up are possible
by means of the graphic modules enclosed in the project.

Graphic module 1:
Shows all process data of channel 1 (fix point).
Example: (specified set-point = 30)
Value 300 is written in AW 4.

Graphic module 2:
Access to the function module parameters for parameter
channel mapping is possible by means of this graphic
module.

Specify e.g. when reading values:

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Code

w

Fbno

w

FCTno

•

Setting

Specify “1" when reading with Specify ”1" when reading with

Integer Real Integer Real

00 00

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ANZW gives the status and the result after completing the FB handling.

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DWLR, DWLI, DWLC indicates the number of read values.

Graphic module 3:
This graphic module indicates the first data of the data
module into which data of the parameter channel are
written, or from which values are read.

Quick entrance

23 9499 040 50511

Operanden: Signalzustände:

-Unit_Sta EW 0 KM=00000000 00000000

-UnitCntA AW 0 KM=00000000 00000000

-UnitCntB AW 2 KM=00000000 00000000

-Xeff_1 EW 2 KF=+290

-Yeff_1 EW 4 KF=+400

-HC_1 EW 6 KF=+0

-Alarm_1 EB 8 KM=00001100

-Status_1 EB 9 KM=00010010

-Wvol_1 AW 4 KF=+300

-Yman_1 AW 6 KF=+400

-Cntrl_1 AW 8 KM=00000000 00000001

-DWLR MW 52 KF=+1

-DWLI MW 54 KF=+0

-DWLC MW 56 KF=+0

-Read/Wr MW 58 KH=0001

-Code MW 60 KF=+32

-FBno. MW 62 KF=+50

-FCTno. MW 64 KF=+1

-Type MW 66 KF=+0

-ANZW MW 68 KM=00000000 00000010

-Setting MB 0 KM=00000000

......... DB 12

-DBval1 DW 11 KF=+300

Operanden: Signalzustände:

4.2 Quick entrance with S7

Test environment
The following components are required for the test set-up:

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Programming unit (PG740 recommended)

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Automation unit

-

CPU315-2 DP

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KS800-DP

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Engineering set (order no. 9407 999 09x11)

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Cable

-

PROFIBUS cable automation unit i KS800-DP

-

programming unit i automation unit

4.2.1 Example of a test environment:

A KS800-DP with address 5 shall be connected to a CPU315-2 DP via PROFIBUS-DP. Process data module
B is selected (8 process data channels and parameter channel). Data shall be transmitted in fix point format.

g

Before taking the test environment into operation, you should ensure that the automation units do not contain
user software (“initial clear”).

Procedure:

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Establishing the communications

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Configuring the instruments

-

Adjust address 5 on KS800-DP (via coding switch or engineering tool) and connect it to the
network.

- Activate bus terminating resistors at the controller connector and at the (S7) PLC connector.

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PROFIBUS network configuration

- Insert the disk (engineering set) into
the programming unit.

- De-archive the project example.
(A:\KS800DP\S7_FB

\EXAMPLE

\KS800dmo.arj)

- Open project KS800dmo

- If necessary, match addressings and

CPU hardware configuration and
transmit them to the DP master
(CPU315-2 DP).

-

Switch the automation unit to
run.

After taking the test set-up into operation, I/O
testing and calling up the parameter channel
are possible by means of the variable tables (VAT x) enclosed in the project.

Quick entrance

9499 040 50511 24

VAT 1:
Shows the process data of all channels (fix
point). Only channel 1 can be seen in the
figure opposite.
Example channel 1:
(set-point specification = 30

output variable = 40 %
manual operation)

VAT 2:
Access to the function module parameters
for parameter channel mapping is possible
by means of this variable table.

Specify e.g. when reading fix point values:

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CodeNo, FBNo, FKTNo, Type = 0
(Ä Chapter )

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Service = 0x 0001

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Start_FixP = 1

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ANZW_FixP indicates the status and
the result after completing the FB
handling.

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DWLR, DWLI, indicate the number
of read values.

The bottommost figure shows the first
data of a data module into which the
parameter channel data are written, or
from which values are read.

Quick entrance

25 9499 040 50511

5 Function block protocol

5.1 Data structuring

Due to the variety of information to be processed in KS800, logically related data and actions are grouped
into function blocks. A function block has input data, output data, parameters and configuration data. 25
function blocks are defined for KS800. They are addressed via fixed block addresses (FB no.). Each block is
also grouped in individual functions. Functions are addressed via function numbers (fct. no.). Function
number 0 addresses function-specific data.

Function block protocol

9499 040 50511 26

5.2 CODE tables

5.2.1

Structure of configuration words (C.xxxx)

The configuration words given in the following code tables comprise several partial components, which can
be transmitted only in common.
The data in the table must be interpreted as follows:

Example (C100): Code Descr. R/W Type Description Range

71 C100 R/W INT CFunc: Controller function

WFunc:Set-point function

(T,H)

(E)

0..xx0z

Description CFunc WFunc

Thousands Hundreds Ones

Range

xxz

00 ... 07 0...1

Example: 2-pnt. controller;

Set-point / cascade

0204

g

- For transmission of configuration words, see chapter page 19.

- The possible settings of the configuration words are given in the KS800

function description (order no.: 9499 040 49218)

5.2.2 INSTRUMENT (FB no.: 0 type no.: 0)

All data which are valid for the overall instrument are grouped in function block ‘INSTRUMENT’.

Process data

General

(Function no.: 0)

Code Descr. R/W Type Description Range Rem.

01 Unit_State 1 R ST1 Status 1

A

10 Block 13..15, 18 R Block
13 Write Error R INT Error during last write access 0, 100...127
14 Write Error

Position

R INT Position of last write access error 0...99

15 Read Error R INT Error during last read access 0, 100...127
16 DPErr R ICMP Error messages from DP module

B

17 DPAdr_eff R INT Effective PROFIBUS address 0...126
18 Type R INT Type no. of function block 0
20 Block 21...27 R Block
21 HWbas R INT Basic HW options: module A, P

C

23 SWopt R INT SW options 1

D

24 SWcod R INT SW code no. 7th-10th digit of 12NC wxyz

E

25 SWvers R INT SW code no. 11th-12th digit of 12NC 00xy

F

26 OPVers

1)

R INT Operating version

27 EEPVers

1)

R INT EEPROM version

31 OpMod R/W INT Instrument switch-over to configuration mode (only after 1) 0

Instrument switch-over to online mode (only after 0) 1

Cancellation of configuration mode (only after 0) 2
32 Ostartg R/W INT Stop/start self-tuning for all group controllers 0..1
33 UPD R/W INT Acknowledgement of local data change 0..1

G

34 HC_reset R/W INT Heating-current-reset / Quicktest 0...3

G2

27 9499 040 50511

Function block protocol

1) Data are reserved for distinction of internal versions in future applications.

Rem. A Unit_State1

MSB LSB

D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

‘0’ always ‘0’

D1

CNF Instrument status online configuration

D2...D4

‘0’ always ‘0’

D5

UPD Parameter update no yes

D6

‘1’ always ‘1’

D7

Parity

Rem. B DPErr

MSB LSB
D15 D14 D13 D12 D11 D10 D9 D8 D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

Bus access not successful no error error

D1

Faulty parameter setting telegram no error error

D2

Faulty configuration no error error

D3

No more data exchange no error error

D4...D15

always ‘0’

Rem. C HWbas

COM2 0 0

TH Z E

Basic version without COM2

00 0 0

COM2 with CANopen

01 0 0

COM2 with PROFIBUS-DP

02 0 0

COM2 with ISO1745

03 0 0

Example: Value ‘HWbas = 0200‘ means that the addressed instrument has a COM2 interface with
PROFIBUS connection.

Rem. D SWopt

Version 0 0

TH Z E

Basic version

00 0 0

Water cooling (so far not available)

01 0 0

Rem. E SWCod

THZE

7th digit 8th digit 9th digit 10th digit

Example: Value ‘SWCod= 7239’ means that the software for the addressed instrument contains code
number 4012 157 239xx.

Rem. F SWvers

THZE
0 0 11th digit 12th digit

Example: Value ‘SWVers= 11‘ means that the software for the addressed instrument contains code number
4012 15x xxx11.

Rem. G UPD

Changing a parameter value or a configuration value via an interface is indicated in the UPD flag. After
power recovery, this bit is also set. The flag which can be read also via code UPD can be reset (value =0).

Rem. G2 HC_reset

Hc_reset = 0 normal

= 1 Reset of all heating currents
= 2 Starting a quicktest
= 3 Reset of all heating currents with following quicktest

After finishing of the chosen softwareroutine, the value of HC_reset is set 0 automatically.

Function block protocol

9499 040 50511 28

I/O connection

(function no.: 2)

Code Descr. R/W Type Description Range Rem.

0 Block 1...2 R Block
1 State_alarm_out R ST1 Status alarm outputs

H

2 State_dio R ST1 Status digital inputs/outputs

I
20 Block 21...24 R Block
21 SnOEMOpt R INT Serialnumber OEM-Field
22 SnFabMonth R INT Serialnumber Produktion month
23 SnCntHi R INT Serialnumber Counter High
24 SncntLo R INT Serialnumber Counter Low
30 Block 31...33 R Block
31 Fdo1 R/W INT Forced digital outputs: OUT1 ... OUT8

J
32 Fdo2 R/W INT Forced digital outputs: OUT9 ... OUT16

K

33 Fdo3 R/W INT Forced digital outputs: OUT17 ... OUT19

L

Rem. H State_alarm_out

MSB LSB

D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

R1 Relay 1 off on

D1

R2 Relay 2 off on

D2

R3 Relay 3 off on

D3

do1_12 AL Alarm outputshort circuit OUT1 ... OUT12 off on

D4

HCscAL Alarm message heating current short circuit off on

D5

‘0’ always ‘0’

D6

‘1’ always ‘1’

D7

Parity

Rem. I State_dio

MSB LSB

D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

Par_Nr Parameter set number set 0 set 1

D1

w/w2 w/w2 switch-over w w2

D2

Coff Controller off off on

D3

Leck Leakage current off on

D4

‘0’ always ‘0’

D5

do13_16f OUT13 ... OUT16 Fail no yes

D6

‘1’ always ‘1’

D7

Parity

Rem. J Data structure

Bit 1514131211109876543210
Signification 00000000OUT8 OUT7 OUT6 OUT5 OUT4 OUT3 OUT2 OUT1

Rem. K Data structure

Bit 1514131211109876543210
Signification 00000 000OUT16 OUT15 OUT14 OUT13 OUT12 OUT11 OUT10 OUT9

Rem. L Data structure

Bit 1514131211109876543210
Signification 00000000 00000OUT19 OUT18 OUT17

Function block protocol

29 9499 040 50511

GProcessVal

(Funktions-Nr: 10)

Code Descr.. Channel R/W Type Description Range Rem.

B2 Xeff 1 R INT Effective process value of channel 1

Yeff 1 R INT Effective correcting variable of channel 1
HC 1 R INT Heating current of channel 1
Xeff 2 R INT Effective process value of channel 2
Yeff 2 R INT Effective correcting variable of channel 2
HC 2 R INT Heating current of channel 2

...

Xeff 8 R INT Effective process value of channel 8
Yeff 8 R INT Effective correcting variable of channel 8
HC 8 R INT Heating current of channel 8
State_alarm_out 1 R ST1 Alarm output status of channel 1

H

State_alarm_out 2 R ST1 Alarm output status of channel 2

H

...

State_alarm_out 8 R ST1 Alarm output status of channel 8

H

GProcessPar

(Funktions-Nr: 11)

Code Descr.. Channel R/W Type Description Range Rem.

B2 Wvol 1 R/W INT Volatile set-point of channel 1

W2 1 R/W INT Additional set-point of channel 1
Yman 1 R/W INT Absolute correcting variable of channel 1
Wboost 1 R/W INT
Tboost 1 R/W INT
Wvol 2 R/W INT Volatile set-point of channel 2
W2 2 R/W INT Additional set-point of channel 2
Yman 2 R/W INT Absolute correcting variable of channel 2
Wboost 2 R/W INT
Tboost 2 R/W INT
...
Wvol 8 R/W INT Volatile set-point of channel 8
W2 8 R/W INT Additional set-point of channel 8
Yman 8 R/W INT Absolute correcting variable of channel 8
Wboost 8 R/W INT
Tboost 8 R/W INT

Function block protocol

9499 040 50511 30

GControlPar

(Funktions-Nr: 12)

Code Descr. Channel R/W Type Description Range Rem.

B2 A/M 1 R/W INT Automatic / manual switch-over of channel 1

Coff 1 R/W INT Controller on/off of channel 1
w/W2 1 R/W INT Switch-over w/W2 of channel 1
Ostart 1 R/W INT Self-tuning start of channel 1
SoftStartEnable 1 R/W INT
BoostStartEnable 1 R/W INT
A/M 2 R/W INT Automatic / manual switch-over of channel 2
Coff 2 R/W INT Controller on/off of channel 2
w/W2 2 R/W INT Switch-over w/W2 of channel 2
Ostart 2 R/W INT Self-tuning start of channel 2
SoftStartEnable 2 R/W INT
BoostStartEnable 2 R/W INT
...
A/M 8 R/W INT Automatic / manual switch-over of channel 8
Coff 8 R/W INT Controller on/off of channel 8
w/W2 8 R/W INT Switch-over w/W2 of channel 8
Ostart 8 R/W INT Self-tuning start of channel 8
SoftStartEnable 8 R/W INT
BoostStartEnable 8 R/W INT

GAlarmPar

(Funktions-Nr: 13)

Code Descr. Channel R/W Type Description Range Rem.

B2 LimL 1 R/W INT Low Alarm of channel 1

LimH 1 R/W INT High Alarm of channel 1
LimLL 1 R/W INT Low Low Alarm of channel 1
LimHH 1 R/W INT High High Alarm of channel 1
LimL 2 R/W INT Low Alarm of channel 2
LimH 2 R/W INT High Alarm of channel 2
LimLL 2 R/W INT Low Low Alarm of channel 2
LimHH 2 R/W INT High High Alarm of channel 2
...
LimL 8 R/W INT Low Alarm of channel 8
LimH 8 R/W INT High Alarm of channel 8
LimLL 8 R/W INT Low Low Alarm of channel 8
LimHH 8 R/W INT High High Alarm of channel 8

Function block protocol

31 9499 040 50511

GPIDPar

(Funktions-Nr: 14)

Code Descr. Channel R/W Type Description Range Rem.

B2 Xp1 1 R/W INT Proportional band of channel 1

Tn1 1 R/W INT Integral time of channel 1
Tv1 1 R/W INT Derivative time of channel 1
T1 1 R/W INT min. cycle time of channel 1
Xp1 2 R/W INT Proportional band of channel 2
Tn1 2 R/W INT Integral time of channel 2
Tv1 2 R/W INT Derivative time of channel 2
T1 2 R/W INT min. cycle time of channel 2
...
Xp1 8 R/W INT Proportional band of channel 8
Tn1 8 R/W INT Integral time of channel 8
Tv1 8 R/W INT Derivative time of channel 8
T1 8 R/W INT min. cycle time of channel 8

Parameter a. configuration data

General

(function no.: 0)

Code Descr. R/W Type Description Range Rem.

B3 71 C900

1)

COM1

R/W INT Prot: Protocol type

Baud: Baudrate

(T)

(H,Z)

0..xyy0

72 Adr1

1)

R/W INT COM1: Instrument address: 0..99

73 C904 R/W INT Freq: Mains frequency 50/60

Alm-Ver: Alarm version
Mode-out:Configuration-version of the
analog outputs (old/new)
Mode-out current zero 0/4 mA

(T)
(H)

(Z)

(E)

0..x000

74 C902

1)

COM2

R/W INT Prot: Protocol type

Baud: Baudrate (omitted with PROFIBUS)

(T)

(H,Z)

0..wxyz

75 Adr2

1)

R/W INT COM2: Instrument address: ISO1745 (def. 0)

CAN-BUS
PROFIBUS (def. 126)

0..99

0..255

0..126

I/O connection

(function no.: 2)

Code Descr. R/W Type Description Range Rem.

B3 71 HC100 R/W FP Span end for HC 1...9999

72 C500 R/W INT Main configuration IN1/OUT13 ... IN4/OUT16

Fkt_dio1: IN1 / OUT13
Fkt_dio2: IN2 / OUT14
Fkt_dio3: IN3 / OUT15
Fkt_dio4: IN4 / OUT16

(T)
(H)
(Z)
(E)

0..wxyz

73 C530 R/W INT Main configuration OUT17 ... OUT19

mode_do17
mode_do18
mode_do19

(T)
(H)
(Z)

0...xyz0

74 C151 R/W INT Allocation HC/leakage current Alarm

DestHC
DestLeck
DestOutError

(T)
(H)
(Z)

0...xyz0

75 HCycl R/W INT Heating current cycle time 0...999

Function block protocol

9499 040 50511 32

1) Baudrate and address setting are effective only after initialization, e.g. protocol switch-over.

5.2.3 Special accesses (FB no.: 10 ... 17 type no.: 10)

Alternatively, access to the KS800 data is possible via function block ‘Special accesses’ .
In this case, access is only via code B2.

ProcessVal

(Funktions-Nr: 0)

Code Descr. R/W Type Description Range Rem.

B2 Xeff R INT Effective process value

Yeff R INT Effective correcting variable
HC R INT Heating current
State_alarm_out R ST1 Alarm output status

ProcessPar

(Funktions-Nr: 1)

Code Descr. R/W Type Description Range Rem.

B2 Wvol R/W INT Volatile set-point

W2 R/W INT Additional set-point
Yman R/W INT Absolute correcting variable
Wboost R/W INT Momentarily no funktion
Tboost R/W INT Momentarily no funktion

ControlPar

(Funktions-Nr: 2)

Code Descr. R/W Type Description Range Rem.

B2 A/M R/W INT Automatic/manual switch-over

Coff R/W INT Controller on/off
w/W2 R/W INT Switch-over w/W2
Osart R/W INT Start selftuning
SoftStartEnable R/W INT Momentarily no funktion
BoostStartEnable R/W INT Momentarily no funktion

AlarmPar

(Funktions-Nr: 3)

Code Descr. R/W Type Description Range Rem.

B2 LimL R/W INT Low Alarm

LimH R/W INT High Alarm
LimLL R/W INT Low Low Alarm
LimHH R/W INT High High Alarm

PIDPar

(Funktions-Nr: 4)

Code Descr. R/W Type Description Range Rem.

B2 Xp1 R/W INT Proportional band 1

Tn1 R/W INT Integral time1
Tv1 R/W INT Derivative time 1
T1 R/W INT min. cycle time

Function block protocol

33 9499 040 50511

5.2.4 Freely configurable (FB no.: 20 ... 27 type no.: 20)

Function block ”Freely definable” defines data, which can be read only by block access 20 or 30. The
ComWrite data can also be changed by mean of keys 31 – 38. Additionally, this Profibus interface setting
provides the values for the relevant data modules.

ComRead

(Funktions-Nr: 0)

Code Descr. R/W Type Description Range Rem.

20 Block R Block 21... 28
21 Val 1 R dataspecific Value 1

A

22 Val 2 R dataspecific Value 2
23 Val 3 R dataspecific Value 3
24 Val 4 R dataspecific Value 4
25 Val 5 R dataspecific Value 5
26 Val 6 R dataspecific Value 6
27 Val 7 R dataspecific Value 7
28 Val 8 R dataspecific Value 8

ComWrite

(Funktions-Nr: 1)

Code Descr. R/W Type Description Range Rem.

30 Block R Block 31... 38
31 Val 1 R/W dataspecific Value 1

A

32 Val 2 R/W dataspecific Value 2
33 Val 3 R/W dataspecific Value 3
34 Val 4 R/W dataspecific Value 4
35 Val 5 R/W dataspecific Value 5
36 Val 6 R/W dataspecific Value 6
37 Val 7 R/W dataspecific Value 7
38 Val 8 R/W dataspecific Value 8

Rem. A Data-specific

Dependent of the adjusted parameter, the value is output as INT or status. Undefined values are output
in INT format with –31000.

Function block protocol

9499 040 50511 34

Parameter- a. Configuration-Data

ComRead

(Funktionsnr: 0)

Code Descr. R/W Type Description Range Rem.

B2 41 ComReadBlock1 R/W INT Functionblocknumber for value 1 0 … 77

B

42 ComReadFctKey1 R/W INT Funktionnumber and code for value 1 0 … 2999
43 ComReadBlock1 R/W INT Functionblocknumber for value 2 0 … 77
44 ComReadFctKey1 R/W INT Funktionnumber and code for value 2 0 … 2999
45 ComReadBlock1 R/W INT Functionblocknumber for value 3 0 … 77
46 ComReadFctKey1 R/W INT Funktionnumber and code for value 3 0 … 2999
47 ComReadBlock1 R/W INT Functionblocknumber for value 4 0 … 77
48 ComReadFctKey1 R/W INT Funktionnumber and code for value 4 0 … 2999
49 ComReadBlock1 R/W INT Functionblocknumber for value 5 0 … 77
51 ComReadFctKey1 R/W INT Funktionnumber and code for value 5 0 … 2999
52 ComReadBlock1 R/W INT Functionblocknumber for value 6 0 … 77
53 ComReadFctKey1 R/W INT Funktionnumber and code for value 6 0 … 2999
54 ComReadBlock1 R/W INT Functionblocknumber for value 7 0 … 77
55 ComReadFctKey1 R/W INT Funktionnumber and code for value 7 0 … 2999
56 ComReadBlock1 R/W INT Functionblocknumber for value 8 0 … 77
57 ComReadFctKey1 R/W INT Funktionnumber and code for value 8 0 … 2999

ComRead

(Funktionsnr: 0)

Code Descr. R/W Type Description Range Rem.

B2 41 ComWriteBlock1 R/W INT Functionblocknumber for value 1 0 … 77

B

42 ComWriteFctKey1 R/W INT Funktionnumber and code for value 1 0 … 2999
43 ComWriteBlock1 R/W INT Functionblocknumber for value 2 0 … 77
44 ComWriteFctKey1 R/W INT Funktionnumber and code for value 2 0 … 2999
45 ComWriteBlock1 R/W INT Functionblocknumber for value 3 0 … 77
46 ComWriteFctKey1 R/W INT Funktionnumber and code for value 3 0 … 2999
47 ComWriteBlock1 R/W INT Functionblocknumber for value 4 0 … 77
48 ComWriteFctKey1 R/W INT Funktionnumber and code for value 4 0 … 2999
49 ComWriteBlock1 R/W INT Functionblocknumber for value 5 0 … 77
51 ComWriteFctKey1 R/W INT Funktionnumber and code for value 5 0 … 2999
52 ComWriteBlock1 R/W INT Functionblocknumber for value 6 0 … 77
53 ComWriteFctKey1 R/W INT Funktionnumber and code for value 6 0 … 2999
54 ComWriteBlock1 R/W INT Functionblocknumber for value 7 0 … 77
55 ComWriteFctKey1 R/W INT Funktionnumber and code for value 7 0 … 2999
56 ComWriteBlock1 R/W INT Functionblocknumber for value 8 0 … 77
57 ComWriteFctKey1 R/W INT Funktionnumber and code for value 8 0 … 2999

Rem. B Data structure

Definition to which data an access is made, the following entries are required:

w

Function block number r ComReadBlock or ComWriteBlock

w

Function number + individual code r ComReadFctKey or ComWriteFctKey

Example::

If the Wvol value for controller 2 (controller description1-8)forComRead must be selected,
the values are composed as follows:

Functionblocknumber Controller 2 = 51 ComReadBlock = 51
Funktionnumber Wvol = 01

ComReadFctKey = 0132

Single-Code Wvol = 32

Function block protocol

35 9499 040 50511

5.2.5 INPUT (FB no.: 60 ... 67 Type no.: 112)

All data which concern acquisition and processing of all input values (analog/digital) are grouped in function
block ‘INPUT’. The data are available once per controller channel.

Process data

General

input processing of analog signals (function no.: 0)

Code Descr. R/W Type Description Range Rem.

00 Block R Block Block access (1, 3)
1 Input_x_Fail R ST1 Signal input x fail

A
3 x1 R FP Main variable
10 Block R Block Block access (13, 18)
13 INP1 R FP Raw measurement value before measured value correction
18 Function Type R INT Type no. of function block 112

Rem. A Status byte Input_X_Fail:

MSB LSB

D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

INP1F Input 1 fail no yes

D1...D5

‘0’ always ‘0’

D6

‘1’ always ‘1’

D7

Parity

Parameter a. configuration data

ME/V1

Measured value INP1 : acquisition and processing (function no.: 1)

Code Descr. R/W Type Description Range Rem.

B2 41 X1

in

R/W FP Measured value correction X1 input -999..9999

42 X1

out

R/W FP Measured value correction X1 output -999..9999

43 X2

in

R/W FP Measured value correction X2 input -999..9999

44 X2

out

R/W FP Measured value correction X2 output -999..9999

B3 71 X0 R/W FP Phys. value at 0% -999..9999

72 X100 R/W FP Phys. value at 100% -999..9999
73 X

Fail

R/W FP Substitute value with sensor fail -999..9999

74 T

fm

R/W FP Filter time const. measured value process. 0.0 .. 999.9

75 T

kref

R/W FP Reference TC 0...60 °C / 32...140°F

76 C200 R/W INT Type: sensor type

Unit: unit

(T,H)

(Z)

0..xxy0

77 C205 R/W INT Fail: sensor break behaviour

STk: Source Tk
XKorr: enable process value corr.

(T)

(H)

(Z)

1..wxy0

78 C190 R/W INT Signal allocation of digital signals:

Controller off
w/w2

(Z)

(E)

0...00xy

Function block protocol

9499 040 50511 36 990914

5.2.6 CONTR (FB no.: 50 ... 57 Type no.: 91)

All data which concern the controller are grouped in function block ‘CONTR’. They are available once for
each controller channel.

Process data

General

(function no.: 0)

Code Descr. R/W Type Description Range Rem.

00 Block R Block Block access (1...9)
1 Status 1 R ST1 Status 1

A
3 W R FP Eff. set-point
4 X R FP Eff. process value
5 Y R FP Effective output value
6 xw R FP Control deviation
13 Status Alarm x R INT Status x and Alarm x B1
18 Type R INT Type no. of function block 90
20 Block R Block Block access (21...26)
21 Xeff R FP Eff. process value
22 Yeff R FP Effective output variable
23 HC R FP Heating current measureement value
24 Unit_State R ICMP Input values (di) Ä page 12
25 Alarm_x R ICMP Alarm values Ä page 13 B2
26 Status_x R ICMP Status information Ä page 13
30 Block R Block Block access (31...38)
33 A/M R/W INT Automatic/manual switch-over 0..1
34 OStart R/W INT Optimization start 0..1
35 We/i R/W INT Wext/Wint switch-over 0..1
36 w/w2 R/W INT w/w2 switch-over 0..1
38 Coff R/W INT Controller off/on 0..1 C

Rem. A Status1: (code 01)

MSB LSB

D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

Y1 Switching output off on

D1

Y2 Switching output off on

D2

A/M Auto/manual auto manual

D3

CFail Controller status ok not ok

D4

Coff Controller switched off no yes

D5

XFail Sensor fail no yes

D6

‘1’ always ‘1’

D7

Parity

Rem. B1 Status_alarm_x: Code 13

MSB LSB
D15 D14 D13 D12 D11 D10 D9 D8 D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

w/w2 w/w2 switch over w w2

D1

we/wi extern/intern switch over extern intern

D2

w/wanf Start-setpoint switch over w wanf

D3

Orun Optimisation activ no yes

D4

A/M Automatic/Manuel switch over Auto Man

D5

Coff Controller off no yes

D6

Y1 Switchung output 1 off on

D7

Y2 Switching output 2 off on

D8

Lim HH Alarm HH off on

D9

Lim H Alarm H off on

D10

Lim L Alarm L off on

D11

Lim LL Alarm LL off on

D12

Fail Alarm sensor fail no yes

D13

HCAl Heating current alarm off on

D14

LoopAl Loop alarm off on

D15

"0" always "0"

Function block protocol

37 9499 040 50511

Rem. B2 Cntrl_x: (Code 39)

MSB LSB

D15 D14 D13 D12 D11 D10 D9 D8 D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

A/M Automat/Manuel Auto Manuel

D1

Coff Switch the controller off no yes

D2

w/w2 w/w2 switch over w w2

D3

we/wi wext/wint wext wint

D4

OStart Start the optimisation no start start

D5

Ostop Stop the optimisation no stop stop

D6...D15

"0" Always "0"

Set-point

Set-point processing (function no.:1)

Code Descr. R/W Type Description Range Rem.

00 Block R Block Block access (1, 3)
01 WState R ST1 Set-point status

B
03 Wint R FP Effective internal set-point
30 Block R Block Block access (31...32)
31 Wnvol R/W FP Int. set-point, non-volatile -999..9999
32 Wvol R/W FP Int. set-point, volatile -999..9999

Rem. C WState: (code 01)

MSB LSB

D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

w/w2 w/w2 switch-over w W2

D1

we/wi wext/wint wext wint

D2

w/wanf start-up set-point switch-over w wanf

D3

GRW Gradient function active no yes

D4

Weff_fail Error effective set-point no yes

D5

‘0’ always ‘0’

D6

‘1’ always ‘1’

D7

Parity

Output variable

Output variable processing(function no.:4)

Code Descr. R/W Type Description Range Rem.

30 Block R Block Block access (31, 35)
31 dYman R/W FP Difference output variable -210..210
32 Yman R/W FP Absolute output variable -105..105
33 Yinc R/W INT Increment. output variable 0, 1
34 Ydec R/W INT Decrement. output variable 0, 1
35 Ygrw_ls R/W INT Speed for incr./decr. output variable offset 0, 1

Tuning

Self-tuning(function no.:5)

Code Descr. R/W Type Description Range Rem.

00 Block R Block Block access (1, 3)
1 State_Tune1 R ST1 Status Tuning D
3 ParNeff R INT Eff. parameter set number 0...1
30 Block R Block Block access (31...39)
31 ParNr R/W INT Parameter set number effective 0 .. 1
32 Tu1 R FP Delay time heating 0...9999 s
33 Vmax1 R FP Rate of increase heating 0,000...9,999 %/s
34 Kp1 R FP Process gain heating 0,000...9,999
35 MSG1 R INT Error code of self-tuning heating 0...8
36 Tu2 R FP Delay time cooling 0...9999 s
37 Vmax2 R FP Rate of increase cooling 0,000...9,999 %/s
38 Kp2 R FP Process gain cooling 0,000...9,999
39 MSG2 R INT Error code of self-tuning cooling 0...8

Function block protocol

9499 040 50511 38

Rem. D Status 1 Tuning ‘State_Tune1’

MSB LSB

D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

OStab Process at rest no yes

D1

Orun Optimization run off on

D2

Oerr Optimization result Ok error

D3...D5

‘0’ always ‘0’

D6

‘1’ always ‘1’

D7

Parity

Parameter a. configuration data

General

(function no.: 0)

Code Descr. R/W Type Description Range Rem.

B3 71 C100 R/W INT CFunc: Controller function

CType: Controller type
WFunc:set-point function

(T,H)

(Z)

(E)

0..xxyz

72 C101 R/W INT CMode:Controller output action

CDiff: x/x-w Differentiat.
CFail: Behaviour with sensor fail
CAnf: Start-up circuit

(T)
(H)

(Z)

(E)

0..wxyz

73 C700 R/W INT OMode:Optimization mode

OCond: Process at rest.
OGrp: Allocation group opt.
OCntr: Controlled adaptation mode

(T)
(H)

(Z)

(E)

0..wxyz

74 C180 R/W INT SWext: Source for Wext (T) 0..x000

Set-point

Set-point processing(function no.: 1)

Code Descr. R/W Type Description Range Rem.

B2 41 W0 R/W FP Min. set-point limit f. Weff -999..9999

42 W100 R/W FP Max. set-point limit f. Weff -999..9999
43 W2 R/W FP Additional set-point -999..9999
44 Grw+ R/W FP Set-point gradient plus >0..9.999

1)

45 Grw- R/W FP Set-point gradient minus >0..9.999
46 Grw2 R/W FP Set-point gradient W2 >0..9.999

Algo

Control algorithm (function no.: 3)

Code Descr. R/W Type Description Range Rem.

B2 41 Xsh R/W FP Neutral zone 0.2 .. 20,0 %

42 Tpuls R/W FP Min. pulse length 0.1..2,0 s

(1)

43 Tm R/W FP Actuator response time 10..300 s
44 Xsd1 R/W FP Switching difference signaller 0,1..9999 %
45 LW R/W FP Trigger point separation add. cont. -999..9999
46 Xsd2 R/W FP Switching difference add. cont. 0,1..9999 %
47 Xsh1 R/W FP Neutral zone 0.0 .. 999.9%
48 Xsh2 R/W FP Neutral zone 0.0 .. 999.9 %

Function block protocol

39 9499 040 50511

1) Datum has swich-off function; additional data value ‘-32000’

Function block protocol

9499 040 50511 40

Output variable

Output variable processing(function no.: 4)

Code Descr. R/W Type Description Range Rem.

B2 41 Y

min

R/W FP Min. output limiting -105..105 %

42 Y

max

R/W FP Max. output limiting -105..105 %
43 Y0 R/W FP Working point f. output variable -105..105 %
44 Yh R/W FP Max. mean value of output 5..100%
45 LYh R/W FP Limit for mean value formation 0,1 .. 10,0

Tuning

Self-tuning(function no.: 5)

Code Descr. R/W Type Description Range Rem.

B2 41 YOptm R/W FP Output variable during process at rest -105..105

42 dYopt R/W FP Step height during identification 5..100
43 POpt R/W INT Parameter set to be optimized 0...1
44 OXsd R/W FP Hysteresis with parameter switch-over 0.0..9999
45 Trig1 R/W FP Trigger point 1 0.0..9999

Paramset x

Control parameter set1/2(function no.: 6,7)

Code Descr. R/W Type Description Range Rem.

B2 41 Xp1 R/W FP Proportional band 1 0.1..999.9

42 Tn1 R/W FP Integral time 1 0..9999
43 Tv1 R/W FP Derivative time 1 0..9999
44 T1 R/W FP Min. cycle time 1 0.4..999.9
45 Xp2 R/W FP Proportional band 2 0.1..999.9
46 Tn2 R/W FP Integral time 2 0..9999
47 Tv2 R/W FP Derivative time 2 0..9999
48 T2 R/W FP Min. cycle time 2 0.4..999.9

Start-up circuit

(function no.: 10)

Code Descr. R/W Type Description Range Rem.

B2 41 Ya R/W FP Maximum output value 5 .. 100 %

42 Wa R/W FP Start-up set-point -999 .. 9999
43 TPa R/W FP Start-up holding time 0 .. 9999 min

5.2.7 ALARM (FB no.: 70 ... 77 Type no.: 46)

Function block ‘ALARM’ defines the overall alarm processing of the relevant controller. The data are
available once per controller.

Process data

General

(function no.: 0)

Code Descr. R/W Type Description Range Rem.

00 Block R Block Block access (1 .. 3)
1 Status_Al1 R ST1 Alarm status 1

A

2 Status_Al2 R ST1 Heating current alarm

B
3 HC R FP Heating current meas. value
18 Type R INT Type no. of function block 46

Rem A Status_Al1

MSB LSB

D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

Lim HH Alarm HH off on

D1

Lim H Alarm H off on

D2

Lim L Alarm L off on

D3

Lim LL Alarm LL off on

D4

Fail Fail no yes

D5

‘0’ always ‘0’

D6

‘1’ always ‘1’

D7

Parity

Rem B Status_Al2

MSB LSB

D7 D6 D5 D4 D3 D2 D1 D0

Bit no. Name Allocation Status ‘0’ Status ‘1’

D0

HCAl Heating current alarm channel off on

D1

LeckAl Leakage current alarm channel off on

D2

LoopAl Loop-alarm channel off on

D3

SSRAl Short circuit alarm channel off on

D4

Fail_H Fail-alarm H off on

D5

Fail_HH Fail alarm HH off on

D6

‘1’ always ‘1’

D7

Parity

Function block protocol

41 9499 040 50511

Parameter a. configuration data

General

(function no.: 0)

Code Descr. R/W Type Description Range Rem.

B2 41 LimL R/W FP Low alarm -999..9999

1)

42 LimH R/W FP High alarm -999..9999
43 xsd1 R/W FP High/low alarm switch. difference 0..9999
44 LimLL R/W FP Low low alarm -999..9999

1)

45 LimHH R/W FP High high alarm -999..9999
46 LimHC R/W FP Heating current limit value 0..HC100

B3 71 C600 R/W INT Alarm or LL-Alarm

Src: Signal source
Fnc: Function
DestFail: Fail Destination

(T,H)

(Z)

(E)

0..xxyz

72 C601 R/W INT DestLL :

DestL :
DestH :
DestHH :

(T)
(H)
(Z)
(E)

0..wxyz

General

(function no.: 0)

Code Descr. R/W Type Description Range Rem.

B2 41 LimL R/W FP Low alarm -999..9999

42 LimH R/W FP High alarm -999..9999
43 xsd1 R/W FP High/low alarm switch. difference 0..9999
44 LimLL R/W FP Low low alarm -999..9999

1)

45 LimHH R/W FP High high alarm -999..9999
46 LimHC R/W FP Heating current limit value 0..HC100

B3 71 C600 R/W INT Alarm or LL-Alarm

Src: Signal source
Fnc: Function
DestFail: Fail Destination

(T,H)

(Z)
(E)

0..xxyz

72 C601 R/W INT DestLL :

DestL :
DestH :
DestHH :

(T)
(H)
(Z)
(E)

0..wxyz

General

(function no.: 0)

Code Descr. R/W Type Description Range Rem.

B2 41 LimL R/W FP Low alarm -999..9999

42 LimH R/W FP High alarm -999..9999
43 xsd1 R/W FP High/low alarm switch. difference 0..9999
44 LimLL R/W FP Low low alarm -999..9999

1)

45 LimHH R/W FP High high alarm -999..9999
46 LimHC R/W FP Heating current limit value 0..HC100

B3 71 C600 R/W INT Alarm or LL-Alarm

Src: Signal source
Fnc: Function
DestFail: Fail Destination

(T,H)

(Z)
(E)

0..xxyz

72 C601 R/W INT DestLL :

DestL :
DestH :
DestHH :

(T)
(H)
(Z)
(E)

0..wxyz

Function block protocol

9499 040 50511 42

1) Datum has swich-off function; additional data value ‘-32000’

6 Function modules

6.1 Function module for SIMATIC

®

S5

Function module FB206 serves for easy access to the controller parameter and configuration data (in P area).

6.1.1 Structure

The parameters of the function module are:

Name Type

Description / function

A-A KF

Start of output bytes for send window

E-A KF

Start of input bytes for receive window

DB-S B

Data module for parameter data

DWAS W

Data word start for order in DB

DWLR W

Number of real values

DWLI W

Number of integer values

DWLC W

d.c. always ‘0’

SERV W

Service (read/write)

CODE W

Code

FBNR W

Function block no.

FKNR W

Function no.

TYP W

d.c. (always ‘0’)

TIME KH

Timeout in time units, decremented with each FB call, must be higher than timeout in DP module.

ANZW W

The current transmission status for the selected data area is given in the display word. The structure of
the display word is:

15 14 13 12 11 10 9 8 7 6543210

Timeout (FB)

Service faulty

NAK (access by controller

not accepted)

Parity error

Timeout internal (controller)

Wait for end telegram

Service (0=Read; 1=Write)

Reset order

Waits for acknowledgement

Order ready with error

O<%-2>rder ready without

error

Order running

The function module reads or writes KS800 parameter/configuration data.

w

A-A, E-A
The input addresses or output addresses of the parameter channel are
entered into these parameters. The addresses are determined during
configuration of the unit connected to the PROFIBUS (Ä Fig.:
S.23)

w

DB-S
DB-S is used for allocation of the data module pertaining to the
function module, in which all FB operations are handled. It must have
been opened previously.
Data words 0...3 of the data module are “provisional markers”, which
are enabled again after FB handling.

w

DWAS
DWAS identifies the start of the data area in the data module. The first 4 words after DWAS are
required for internal use in the function module and must not be used for other purposes.Example: 2
data sets shall be stored with high packing density in DB25.

Function modules

43 9499 040 50511

FB206

A-A
E-A

DB-S

DWAS

DWLR

DWLI

DWLC

SERV
CODE
FBNR
FKNR

TYP

TIME

ANZW

DBxx

...
...

Byte 11

E-Adr.

P000
P002
P004
P006
P007
P008

...

A-Adr.

P000
P002
P004
P006

...

FB296 / FB207 DB25 DB-S: 25
A-A DW 0 Provisional marker
E-A ...
DB-S DW3
DWAS DW4 Management call1 1. DWAS: 4
DWLR ...
... DW7
ANZW DW8 Data set 1 3 words user data

...
DW10
DW11 Management call2 2. DWAS: 11
...
DW14
DW15 Data set 2 10 words user data
...
DW24

w

DWLR (real), DWLI (integer)
These parameters contain the relevant number of received data after a read access. With a write access,
the number of data to be transmitted is specified. DWLC is not required in KS800, value must be set to

0.

w

SERV
This parameter determines the access type (write / read) Ä ID1.

Write access: F0 = Integer Read access: 0 = Integer

F1 = Real 1 = Real

Individual access

This access (code xx) can be used for reading or writing an individual value of a function.

Valid values for ID1:
Configuration as

FixPoint:

0 = integer real values are transmitted as integer (without digits behind the decimal point)
1 = real real values are transmitted as FixPoint (1 digit behind the decimal point)

Block access (tens block)

This access (code x0) can be used for reading max. nine process values (always as REAL values) of a
function.

Block acces (overall block)

This access can be used for reading or writing all parameter (code 178) and configuration data (code 179) of
a function. The following conditions are applicable to this access:

w

For writing the data with ‘code B3 = 179’, the instrument must be switched to the configuration mode
(Ä see page 27 ‘OpMod’). All entered new configuration data and parameters are effective only,
when the instrument was switched back to on-line.

w

All data of a message must be defined, omissions are not permissible.

w

The complete message must be transmitted also, if parts of a message in the controller are not used
(HW and SW options). Checking of the non-existing data is omitted.

w

With faulty block write accesses, the following is valid: a message is replied with NAK, if at least one
datum is faulty. Already valid values are accepted.

The message structure with block accesses with code B2/B3 is shown using two examples below. The order
of data to be transmitted is given in the relevant code table.

Valid values for ID1:
Configuration as FixPoint: 0, 1 Transmission of real values each as a FixPoint value

w

CODE
The code identification is decimal and the range is within ‘00’...’99’
as well as ‘178’ = B2 and ‘179’ = B3.

Function modules

9499 040 50511 44

w

FBNR. (function block number)
A function block is addressed by means of a function block number. This function block number
can be within ‘0’ and ‘250’.
Function block number ranges:
0 general data for the overall instrument
1 - 99 fixed function blocks

w

FKTNR (function number)
A function as a partial address of a function block is also addressed with a function number.
This function number can be within ‘0’ and ‘99’.
Function number ranges:
0 Function General
1 - 99 other functions

w

TYP (function type)
A function type number is also assigned to each function block. This function type
number is within ‘0’ and ‘111’.
Function type range:
0 Function type General
1 - 111 other function types

w

TIME
Timeout counter: Range 0x0000 ß TIME ß 0x7FFF

- is decremented during each PLC cycle (max. 32767)

- with 0 Timeout.
If the CPU is too fast, call up FB206/FB207 with delay via timer module.

w

ANZW
This display word represents the current transmission status. Bit 4 can be used as an input
for resetting the FB 206 / FB 207.

6.1.2 Function module call

List representation:

:SPA FB 206
Name :PMA-FIX
A-A :
E-A :
DB-S :
DWAS :
DWLR :
DWLI :
DWLC :
SERV :
CODE :
FBNR :
FKNR :
TYP :
TIME :
NZW :

Function modules

45 9499 040 50511

6.2 Function module for SIMATIC

®

S7

The S7-FB handling principle corresponds to the S5 variant. When starting an order and as long as the order
is active, calling up the FB is indispensable.
Dependent of S7-CPU and DP-Master, the I/O handling is different. With a CPU315-2 DP with on-board DP
interface, SFC modules 14 and 15 must be used for consistent data transmission. SFC modules 14 and 15
copy the I/O areas into the marker or data module area. When using an external CP (CP 342-5 DP), the
relevant DP-SEND and DP-RECEIVE FBs at the cycle start and end must be called up.
The FB has an instance DB, which must also be specified with FB call.

6.2.1 Structure

The call parameters of the function module are:

Name Type

Description / function

A-start Pointer

Output word address area start (e.g. address data area ‘RECORD’ of SFC 15, Ax, y when using an
external CP). The DB no. must also be transmitted when specifying a data word (e.g. DB4.DBX0.0)

E-start Pointer

Input word address area start (e.g. address data area ‘RECORD’ of SFC 15, Ex, y when using an
external CP). The DB no. must also be transmitted when specifying a data word (e.g. DB4.DBX0.0)

DB-Para Pointer

Specification of data module with the parameter setting data. The entry comprises the data module
no. and the data word no. at which the parameter data start. Thereby,no

offset needs being taken
into account. The data are interpreted as parameter data (useful data) by the specified address. The
DB must be specified in the following form e.g. DB6.DBX10.0

Service WORD

Service (Read/Write)

Code_nr WORD

Code

FB_nr WORD

Function block no. (channel addressing)

FKT_nr WORD

Function no.

Typ WORD

No function (always ‘0’)

Timeout DWORD

Timeout value, is decremented with each call. With a value of = 1, the order is cancelled with error
message ‘timeout’.

DWLR WORD

Length of real values

DWLI WORD

Length of integer values

DWLC WORD

D.c. always ‘0’

ANZW W

The current transmision status for the selected data area is given in the display word. The structure of
the display word is:

15 14 13 12 11 10 9 8 7 6543210

Timeout (FB)

Service faulty

NAK (access by controller

not accepted)

Parity error

Timeout internal (controller)

Waiting for end telegram

Service (0=Read; 1=Write)

Reset order

Waits for acknowledgement

Order finished with error

Order finished without error

Order running

The function module reads or writes KS800 parameter/configuration data.

w

A-start, E-start
The parameter channel input addresses or output addresses are entered into these parameters. The
addresses are determined during configuration of the unit connected to the PROFIBUS (STEP 7 -
hardware configuration)

w

DB-Para
DB-Para is a pointer to the data module, into which read data are written or from which data are taken
when writing.

Function modules

9499 040 50511 46

w

Service
This parameter determines the access type (write / read) Ä ID1.

Write access: F0 = Integer Read access: 0 = Integer

F1 = Real 1 = Real

Individual access

This access (code xx) can be used for reading or writing an individual value of a function.

Valid values for ID1:
Configuration as

FixPoint:

0 = integer real values are transmitted as integer (without digits behind the decimal point)
1 = real real values are transmitted as FixPoint (1 digit behind the decimal point)

Block access (tens block)

This access (code x0) can be used for reading max. nine process values (always as REAL values) of a
function.

Block acces (overall block)

This access can be used for reading or writing all parameter (code 178) and configuration data (code 179) of
a function. The following conditions are applicable to this access:

w

For writing the data with ‘code B3 = 179’, the instrument must be switched to the configuration mode
(Ä see page 27 ‘OpMod’). All entered new configuration data and parameters are effective only,
when the instrument was switched back to on-line.

w

All data of a message must be defined, omissions are not permissible.

w

The complete message must be transmitted also, if parts of a message in the controller are not used
(HW and SW options). Checking of the non-existing data is omitted.

w

With faulty block write accesses, the following is valid: a message is replied with NAK, if at least one
datum is faulty. Already valid values are accepted.

The message structure with block accesses with code B2/B3 is shown using two examples below. The order
of data to be transmitted is given in the relevant code table.

Valid values for ID1:
Configuration as FixPoint: 0, 1 Transmission of real values each as a FixPoint value

w

CODE
The code identification is decimal and the range is within ‘00’...’99’
as well as ‘178’ = B2 and ‘179’ = B3.

w

FBNR. (function block number)
A function block is addressed by means of a function block number. This function block number
can be within ‘0’ and ‘250’.
Function block number ranges:
0 general data for the overall instrument
1 - 99 fixed function blocks

w

FKTNR (function number)
A function as a partial address of a function block is also addressed with a function number. This
function number can be within ‘0’ and ‘99’.
Function number ranges:
0 Function General
1 - 99 other functions

w

TYP (function type)
A function type number is also assigned to each function block. This function type number is
within ‘0’ and ‘111’.
Function type range:
0 Function type General
1 - 111 other function types

w

TIME
Timeout counter: Range 0x0000 ß TIME ß 0x7FFF

- is decremented during each PLC cycle (max. 32767)

- with 0 Timeout.
If the CPU is too fast, call up FB206/FB207 with delay via timer module.

w

DWLR (Real), DWLI (Integer)
These parameters contain the relevant number of received data after a read access. With a write access,

Function modules

47 9499 040 50511

the relevant number of data to be transmitted is filled in. DWLC is not required in KS800, value must
be set to 0.

w

ANZW
This display word represents the current transmission status. Bit 4 can be used as an input for resetting
the FB 206 / FB 207.

Function modules

9499 040 50511 48

7 Annex

7.1 Terms

COM PROFIBUS Configuration tool (formerly COM ET200) of the Siemens company for PROFIBUS
FB Abbr. f. function block
Fkt Abbr. f. function
ET Abbr. f. Engineering Tool
Function a self-contained partial function of a function block seen from the interface
Function block self-contained processing unit
GSD file Device-Database-File
HW Abbr. f. hardware
ISO1745 Standard communication protocol ISO 1745, ASCII-based
PC-interface front-panel controller interface for connecting an engineering tool
PCI Process Control Instrument
PCI protocol ISO 1745-based protocol, implemented for PMA controllers
PNO PROFIBUS user organisation
PROFIBUS-DP Standard communication protocol acc. to EN50170 vol.2 (DP: decentral periphery)
RS422 Standard 4-wire connection, full duplex, (EIA RS 422);

in this case: separate send/receive channels with up to 32 connected units
RS485 Standard 2-wire connection, half duplex, (EIA RS 485)
S5 / S7 Siemens AG PLC series
Serial interface bussable rear-panel controller interface
SW Abbr. f. software
Type file Configuration file for COM ET200

7.2 GSD file

Annex

49 9499 040 50511

;=============================================================
; Device Database File for product K S 800-DP
; Copyright (C) PMA Prozeß- und Maschinen Automation GmbH 1998
; D-34123 Kassel, Miramstr. 87, Tel. [phone]
; Release : V1.1
; File: PMA_0800.gsd
;=============================================================
#Profibus_DP
GSD_Revision = 1
Vendor_Name = “PMA GmbH”
Model_Name = “KS 800-DP”
Revision = “V 1.1"
Ident_Number = 0x0800
Protocol_Ident = 0 ; DP
Station_Type = 0 ; Slave
FMS_supp = 0
Hardware_Release = “HV 01.00"
Software_Release = “SV 01.01"
;supported baud rates:

9.6_supp = 1

19.2_supp = 1

93.75_supp = 1

187.5_supp = 1
500_supp = 1

1.5M_supp = 1
3M_supp = 1
6M_supp = 1
12M_supp = 1
;max. time to answer after a request
MaxTsdr_9.6 = 60
MaxTsdr_19.2 = 60
MaxTsdr_93.75 = 60
MaxTsdr_187.5 = 60
MaxTsdr_500 = 100
MaxTsdr_1.5M = 150
MaxTsdr_3M = 250

Annex

9499 040 50511 50

MaxTsdr_6M = 450
MaxTsdr_12M = 800
Redundancy = 0 ; not supported
Repeater_Ctrl_Sig = 2 ; TTL
24V_Pins = 0 ; not available
;
;—DP-Slave related key words——-
;
Freeze_Mode_supp = 1 ; supported
Sync_Mode_supp = 1 ; supported
Auto_Baud_supp = 1
Set_Slave_Add_supp = 0
User_Prm_Data_Len = 0 ; no user prm data
;minimum slave poll cycle (Basis 100us):
Min_Slave_Intervall = 1
Modular_Station = 1 ; modular device
Max_Module = 0x01 ; max. number of modules
Max_Input_Len = 116
Max_Output_Len = 116
Max_Data_Len = 232
; Module description
; 1. process data for 8 channels
Module = “A: Process data(8)” 0x11,\

0x50,0x50,0x50,0x10,0x10,\
0x50,0x50,0x50,0x10,0x10,\
0x50,0x50,0x50,0x10,0x10,\
0x50,0x50,0x50,0x10,0x10,\
0x50,0x50,0x50,0x10,0x10,\
0x50,0x50,0x50,0x10,0x10,\
0x50,0x50,0x50,0x10,0x10,\
0x50,0x50,0x50,0x10,0x10,\
0x23,\
0x60,0x60,0x21,\
0x60,0x60,0x21,\
0x60,0x60,0x21,\
0x60,0x60,0x21,\
0x60,0x60,0x21,\
0x60,0x60,0x21,\
0x60,0x60,0x21,\

0x60,0x60,0x21
EndModule
;
; 2. Process data for 8 channels + parameter channel
Module = “B: Process data(8) + parameter” 0x11,\

0x50,0x50,0x50,0x10,0x10,\

0x50,0x50,0x50,0x10,0x10,\

0x50,0x50,0x50,0x10,0x10,\

0x50,0x50,0x50,0x10,0x10,\

0x50,0x50,0x50,0x10,0x10,\

0x50,0x50,0x50,0x10,0x10,\

0x50,0x50,0x50,0x10,0x10,\

0x50,0x50,0x50,0x10,0x10,\

0x23,\

0x60,0x60,0x21,\

0x60,0x60,0x21,\

0x60,0x60,0x21,\

0x60,0x60,0x21,\

0x60,0x60,0x21,\

0x60,0x60,0x21,\

0x60,0x60,0x21,\

0x60,0x60,0x21,\

0xF3
EndModule
;
; 3. Only parameter channel
Module = “C: Parameter” 0xF3

Annex

51 9499 040 50511

EndModule
;
; 4. As process data B in compact form
Module = “D: Compact Process data(8) + parameter” 0x11,\

0x53, 0x53, 0x53, 0x53, 0x53, 0x53, 0x53, 0x53,\
0x23,\
0x62, 0x62, 0x62, 0x62, 0x62, 0x62, 0x62, 0x62,\

0xF3
EndModule
; 5. Process data for 52 Variable data + parameter channel
Module = “E: 52 Variable data + parameter” 0x13,\

0x57, 0x57, 0x57, 0x57, 0x57, 0x57, 0x53,\

0x23,\

0x67, 0x67, 0x67, 0x67, 0x67, 0x67, 0x63,\

0xF3
EndModule
;
; 6. Process data for 40 Variable data + parameter channel
Module = “F: 40 Variable data + parameter” 0x13,\

0x57, 0x57, 0x57, 0x57, 0x57,\

0x23,\

0x67, 0x67, 0x67, 0x67, 0x67,\

0xF3
EndModule
;
; 7. Process data for 8 Variable data + parameter channel
Module = “G: 8 Variable data + parameter” 0x13,\

0x57,\

0x23,\

0x67,\

0xF3
EndModule
;
; 8. Multipexing of Process data for 1 Variable data + parameter channel
Module = “H: Multipexed data + parameter” 0x13,\

0x50, 0x50,\

0x23,\

0x60, 0x60,\

0xF3
EndModule
;
; Device related diagnostic data
Unit_Diag_Bit(0) = “Configuration state”
Unit_Diag_Bit(1) = “Fault on do1 ... do12"
Unit_Diag_Bit(2) = “Fault on do13 ... do16"
Unit_Diag_Bit(3) = “Heating short circuit”
Unit_Diag_Bit(8) = “Input fail channel 1"
Unit_Diag_Bit(9) = “Input fail channel 2"
Unit_Diag_Bit(10)= “Input fail channel 3"
Unit_Diag_Bit(11)= “Input fail channel 4"
Unit_Diag_Bit(12)= “Input fail channel 5"
Unit_Diag_Bit(13)= “Input fail channel 6"
Unit_Diag_Bit(14)= “Input fail channel 7"
Unit_Diag_Bit(15)= “Input fail channel 8"
;
;valid for GSD-Version V1
Slave_Family=5@TdF@Regler
Max_Diag_Data_Len =9
;Implementation_Type = “SPC3"
;OrderNumber="9407-480-30001"

Subject to alterations without notice. © PMA Prozeß- und Maschinen-Automation GmbH
Bei Änderungen erfolgt keine Mitteilung. Postfach 310 229, D - 34058 Kassel
Modifications sans avertissement réservées. Printed in Germany 9499 040 50511 (0211)

9499- 040- 50511

A4