MiCOM P632
General Functions

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Main function

MAIN: Evaluation IN, end a

 

 

 

016 096

 

1: Calculated

Fig. 3-47

 

MAIN: Evaluation IN, end b

 

 

 

016 097

 

1: Calculated

Fig. 3-47

 

This setting specifies which current will be used by the P632 as the residual current: either the calculated residual current derived from the sum of the phase currents or the residual current measured at the fourth transformer.

 

MAIN: Hold time dyn.param.

 

 

 

018 009

 

Blocked

0.00

100.00

s

Fig. 3-57

 

Setting for the hold time of the “dynamic parameters”. During this period, the “dynamic” thresholds are active in place of the “normal” thresholds.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Differential pro­tec­tion

DIFF: General enable USER

 

 

 

019 080

 

0: No

 

 

Disabling and enabling the differential protection function.

 

DIFF: Reference power Sref

 

 

 

019 016

 

38.1

0.1

5000.0

MVA

Fig. 3-92

 

Setting for the reference power, usually the nominal transformer power.

 

DIFF: Ref. curr. Iref,a

 

 

 

019 023

 

Not measured

0.000

50.000

kA

Fig. 3-92

 

Display of the reference current calculated by the P632 for end a.

 

DIFF: Ref. curr. Iref,b

 

 

 

019 024

 

Not measured

0.000

50.000

kA

Fig. 3-92

 

Display of the reference current calculated by the P632 for end b.

 

DIFF: Matching fact. kam,a

 

 

 

004 105

 

Not measured

0.000

50.000

 

Fig. 3-92

 

Display of the matching factor calculated by the P632 for end a.

 

DIFF: Matching fact. kam,b

 

 

 

004 106

 

Not measured

0.000

50.000

 

Fig. 3-92

 

Display of the matching factor calculated by the P632 for end b.

 

DIFF: Meas. value rel. Id

 

 

 

011 037

 

0.000

0.000

0.200

Iref

Fig. 3-103

 

Setting for the minimum differential current that must be exceeded in order for the P632 to display the differential currents as measured operating data.

 

DIFF: Meas. value rel. IR

 

 

 

011 038

 

0.000

0.000

0.200

Iref

Fig. 3-103

 

Setting for the minimum restraining current that must be exceeded in order for the P632 to display the restraining currents as measured operating data.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Ground differential pro­tec­tion

REF_1: General enable USER

 

 

 

019 050

 

0: No

Fig. 3-104

 

REF_2: General enable USER

 

 

 

019 150

 

0: No

 

 

Disabling or enabling the ground fault differential protection.

 

REF_1: Select. meas. input

 

 

 

019 100

 

0: End a

 

 

REF_2: Select. meas. input

 

 

 

019 101

 

1: End b

 

 

Display of the measuring input that provides the measured values evaluated by the ground differential protection function.

 

REF_1: Add.meas.inp. end b

 

 

 

019 120

 

0: No

 

 

In case of protecting an autotransformer, select whether this end shall be considered by the REF function in addition to the phase currents in end a (T14) and the the neutral-point current.

 

REF_1: Reference power Sref

 

 

 

019 031

 

38.1

0.1

5000.0

MVA

Fig. 3-105

 

REF_2: Reference power Sref

 

 

 

019 032

 

38.1

0.1

5000.0

MVA

 

 

Setting for the reference power, usually the nominal transformer power for the relevant transformer end.

 

REF_1: Ref. curr. Iref

 

 

 

019 034

 

Not measured

0.000

50.000

kA

Fig. 3-105

 

REF_2: Ref. curr. Iref

 

 

 

019 035

 

Not measured

0.000

50.000

kA

 

 

Display of the reference current calculated by the P632.

 

REF_1: Match. fact. kam,N,a

 

 

 

004 160

 

Not measured

0.000

50.000

 

Fig. 3-105

 

REF_1: Match. fact. kam,N,b

 

 

 

019 123

 

Not measured

0.000

50.000

 

 

 

Display of the matching factor calculated by the P632.

 

REF_1: Matching fact. kam,Y

 

 

 

004 163

 

Not measured

0.000

50.000

 

Fig. 3-105

 

REF_2: Matching fact. kam,Y

 

 

 

004 164

 

Not measured

0.000

50.000

 

 

 

Display of the matching factor calculated by the P632 for the neutral-point current.

 

REF_1: Meas. value rel. Id

 

 

 

011 039

 

0.00

0.00

0.20

Iref

Fig. 3-109

 

REF_2: Meas. value rel. Id

 

 

 

011 044

 

0.00

0.00

0.20

Iref

 

 

Setting for the minimum differential current that must be exceeded in order for the P632 to display the differential currents as measured operating data.

 

REF_1: Meas. value rel. IR

 

 

 

011 040

 

0.00

0.00

0.20

Iref

Fig. 3-109

 

REF_2: Meas. value rel. IR

 

 

 

011 046

 

0.00

0.00

0.20

Iref

 

 

Setting for the minimum restraining current that must be exceeded in order for the P632 to display the restraining currents as measured operating data.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Ground differential pro­tec­tion

REF_2: Matching fact. kam,N

 

 

 

004 161

 

Not measured

0.000

50.000

 

 

 

Display of the matching factor calculated by the P632 for the vector sum of the phase currents.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Def­i­nite-time over­cur­rent pro­tec­tion

DTOC1: General enable USER

 

 

 

031 135

 

0: No

Fig. 3-112

 

DTOC2: General enable USER

 

 

 

031 136

 

0: No

 

 

Enabling/disabling the definite-time overcurrent protection function.

 

DTOC1: Select. meas. input

 

 

 

019 103

 

0: End a

Fig. 3-111

 

DTOC2: Select. meas. input

 

 

 

019 104

 

1: End b

 

 

Selection of the measuring input that provides the measured values monitored by the definite-time overcurrent protection function.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Inverse-time over­cur­rent pro­tec­tion

IDMT1: General enable USER

 

 

 

031 141

 

0: No

Fig. 3-119

 

IDMT2: General enable USER

 

 

 

031 142

 

0: No

 

 

Disabling and enabling the inverse-time overcurrent protection function.

 

IDMT1: Select. meas. input

 

 

 

019 106

 

0: End a

Fig. 3-118

 

IDMT2: Select. meas. input

 

 

 

019 116

 

1: End b

 

 

Selection of the measuring input that provides the measured variables monitored by the inverse-time overcurrent protection function.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Thermal overload pro­tec­tion

THRM1: General enable USER

 

 

 

031 144

 

0: No

Fig. 3-131

 

Disabling and enabling the thermal overload protection function.

 

THRM1: Select. meas. input

 

 

 

019 109

 

1: End b

Fig. 3-130

 

Selection of the measuring input that provides the measured variables relevant for thermal overload protection.

 

THRM1: Operating mode

 

 

 

039 121

 

2: Relative replica

Fig. 3-135

 

Setting for the operating mode of thermal overload protection. Select between Absolute replica and Relative replica.

 

THRM1: O/T f.Iref persist 1

 

 

 

004 152

 

Not measured

-40

300

°C

 

 

Display of the difference between the settings for the maximum permissible temperatures of the protected object and the coolant.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Time-voltage pro­tec­tion

V<>: General enable USER

 

 

 

023 030

 

0: No

Fig. 3-137

 

Disabling or enabling time-voltage protection.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Over-/underfrequency pro­tec­tion

f<>: General enable USER

 

 

 

023 031

 

0: No

Fig. 3-140

 

Disabling or enabling over-/underfrequency protection.

 

f<>: Evaluation time

 

 

 

018 201

 

4

3

6

Periods

Fig. 3-141

 

Setting for the evaluation time.  The operate conditions must be met for the duration of the set evaluation time in order for a signal to be issued.

 

f<>: Undervolt. block. V<

 

 

 

018 200

 

0.90

0.20

1.00

Vnom

Fig. 3-141

 

Setting for the threshold of undervoltage blocking. If the voltage falls below this threshold, the over-/underfrequency protection function will be blocked.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Overfluxing pro­tec­tion

V/f: General enable USER

 

 

 

019 097

 

0: No

Fig. 3-144

 

Enabling or disabling the Overfluxing protection function.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Cur­rent transformer supervision

CTS: General enable USER

 

 

 

031 085

 

0: No

Fig. 3-152

 

Enabling or disabling the current transformer supervision function.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Measuring-circuit monitoring

MCM_1: General enable USER

 

 

 

031 146

 

0: No

 

 

MCM_2: General enable USER

 

 

 

031 147

 

0: No

 

 

Enabling or disabling the measuring-circuit monitoring function.

 

MCM_1: Select. meas. input

 

 

 

031 150

 

0: End a

 

 

MCM_2: Select. meas. input

 

 

 

031 151

 

1: End b

 

 

Assigning measuring-circuit monitoring functions to ends a and b.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Circuit breaker failure pro­tec­tion

CBF_1: General enable USER

 

 

 

022 080

 

0: No

Fig. 3-162

 

CBF_2: General enable USER

 

 

 

022 214

 

0: No

 

 

Disabling or enabling circuit breaker failure protection.

 

CBF_1: Select. meas. input

 

 

 

022 156

 

0: End a

 

 

CBF_2: Select. meas. input

 

 

 

022 157

 

1: End b

 

 

Selection of measuring input – the circuit breaker failure protection is controlled by its current.

 

CBF_1: Fct.assign. starting

 

 

 

022 202

 

060 000: MAIN: Without function

Fig. 3-166

 

CBF_2: Fct.assign. starting

 

 

 

022 216

 

060 000: MAIN: Without function

 

 

Select which of the trip commands is to be used as a start criterion for the CBF function.

 

CBF_1: Start with man. trip

 

 

 

022 154

 

0: No

Fig. 3-166

 

CBF_2: Start with man. trip

 

 

 

022 175

 

0: No

 

 

Setting that permit a manual trip signal to also be used as a start criterion.

 

CBF_1: Fct.assignm. CBAux.

 

 

 

022 159

 

060 000: MAIN: Without function

Fig. 3-166

 

CBF_2: Fct.assignm. CBAux.

 

 

 

022 217

 

060 000: MAIN: Without function

 

 

Selection of trip signals – assigned to Gen. trip command 1 – for which, in addition to current flow monitoring, status signals from CB auxiliary contacts are evaluated.

 

CBF_1: I<

 

 

 

022 160

 

1.00

0.05

20.00

Inom

Fig. 3-164

Fig. 3-166

Fig. 3-170

Fig. 3-171

 

CBF_2: I<

 

 

 

022 215

 

1.00

0.05

20.00

Inom

 

 

Setting for the threshold to detect a break in current flow.

 

CBF_1: IN<

 

 

 

022 180

 

1.00

0.05

20.00

Inom

 

 

CBF_2: IN<

 

 

 

022 181

 

1.00

0.05

20.00

Inom

 

 

Setting of the comparator threshold for residual current monitoring function.

 

CBF_1: Evaluation IN

 

 

 

022 184

 

0: Without

Fig. 3-164

 

CBF_2: Evaluation IN

 

 

 

022 185

 

0: Without

 

 

Select whether the measured or the calculated residual current shall be used for residual current monitoring function. This choice is only possible when a measuring input for the residual current is available, otherwise the internally derived value of the residual current is always used, regardless of the setting.

 

CBF_1: t1 3p

 

 

 

022 165

 

0.15

0.00

100.00

s

Fig. 3-167

 

CBF_2: t1 3p

 

 

 

022 221

 

0.15

0.00

100.00

s

 

 

Setting the 1st CBF timer stage to 3-pole operating mode.

 

CBF_1: t2

 

 

 

022 166

 

0.25

0.00

100.00

s

Fig. 3-167

 

CBF_2: t2

 

 

 

022 222

 

0.25

0.00

100.00

s

 

 

Setting for the 2nd CBF timer stage.

 

CBF_1: Min.dur. trip cmd.t1

 

 

 

022 167

 

0.25

0.10

10.00

s

Fig. 3-168

 

CBF_2: Min.dur. trip cmd.t1

 

 

 

022 223

 

0.25

0.10

10.00

s

 

 

Setting the 1st timer stage for minimum duration of trip command.

 

CBF_1: Min.dur. trip cmd.t2

 

 

 

022 168

 

0.25

0.10

10.00

s

Fig. 3-168

 

CBF_2: Min.dur. trip cmd.t2

 

 

 

022 224

 

0.25

0.10

10.00

s

 

 

Setting the 2nd timer stage for minimum duration of trip command.

 

CBF_1: Latching trip cmd.t1

 

 

 

022 169

 

0: No

Fig. 3-168

 

CBF_2: Latching trip cmd.t1

 

 

 

022 225

 

0: No

 

 

The 1st timer stage trip command, set to latch mode, will remain active until reset by operating parameters or through an appropriately configured binary signal input.

 

CBF_1: Latching trip cmd.t2

 

 

 

022 170

 

0: No

Fig. 3-168

 

CBF_2: Latching trip cmd.t2

 

 

 

022 226

 

0: No

 

 

The 2nd timer stage trip command, set to latch mode, will remain active until reset by operating parameters or through an appropriately configured binary signal input.

 

CBF_1: Delay/starting trig.

 

 

 

022 155

 

0.00

0.00

100.00

s

Fig. 3-169

 

CBF_2: Delay/starting trig.

 

 

 

022 220

 

0.00

0.00

100.00

s

 

 

The signal CBF_1: Trip signal (or CBF_2: Trip signal, . . ., resp.) is issued when this timer stage's time duration has elapsed.

 

CBF_1: Delay/fault beh. CB

 

 

 

022 171

 

0.12

0.00

100.00

s

Fig. 3-170

 

CBF_2: Delay/fault beh. CB

 

 

 

022 227

 

0.12

0.00

100.00

s

 

 

If during this delay time period the circuit breaker does not provide a signal from its auxiliary contacts that it is closed, then faults behind the CB are recognized through the current criterion (see section “Fault behind CB protection”).

 

CBF_1: Delay/CB sync.superv

 

 

 

022 172

 

Blocked

0.00

100.00

s

Fig. 3-171

 

CBF_2: Delay/CB sync.superv

 

 

 

022 218

 

Blocked

0.00

100.00

s

 

 

Setting for the time delay to bridge circuit breaker operate times during CB synchronization supervision.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Limit value monitoring

LIMIT: General enable USER

 

 

 

014 010

 

0: No

Fig. 3-172

 

Disabling or enabling limit value monitoring.

 

LIMIT: IDC,lin>

 

 

 

014 110

 

Blocked

0.100

1.100

IDC,nom

Fig. 3-172

 

Setting for the operate value IDC,lin> for monitoring the linearized direct current.

 

LIMIT: IDC,lin>>

 

 

 

014 111

 

Blocked

0.100

1.100

IDC,nom

Fig. 3-172

 

Setting for the operate value IDC,lin>> for monitoring the linearized direct current.

 

LIMIT: tIDC,lin>

 

 

 

014 112

 

Blocked

0.00

20.00

s

Fig. 3-172

 

Setting for the operate delay of overcurrent stage IDC,lin>.

 

LIMIT: tIDC,lin>>

 

 

 

014 113

 

Blocked

0.00

20.00

s

Fig. 3-172

 

Setting for the operate delay of overcurrent stage IDC,lin>>.

 

LIMIT: IDC,lin<

 

 

 

014 114

 

Blocked

0.100

1.100

IDC,nom

Fig. 3-172

 

Setting for the operate value IDC,lin< for monitoring the linearized direct current.

 

LIMIT: IDC,lin<<

 

 

 

014 115

 

Blocked

0.100

1.100

IDC,nom

Fig. 3-172

 

Setting for the operate value IDC,lin<< for monitoring the linearized direct current.

 

LIMIT: tIDC,lin<

 

 

 

014 116

 

Blocked

0.00

20.00

s

Fig. 3-172

 

Setting for the operate delay of undercurrent stage IDC,lin<.

 

LIMIT: tIDC,lin<<

 

 

 

014 117

 

Blocked

0.00

20.00

s

Fig. 3-172

 

Setting for the operate delay of undercurrent stage IDC,lin<<.

 

LIMIT: T>

 

 

 

014 100

 

200

-20

200

°C

Fig. 3-173

 

Setting for the operate value of temperature monitoring T>.

 

LIMIT: T>>

 

 

 

014 101

 

200

-20

200

°C

Fig. 3-173

 

Setting for the operate value of temperature monitoring T>>.

 

LIMIT: tT>

 

 

 

014 103

 

Blocked

0

1000

s

Fig. 3-173

 

Setting for the operate delay of temperature monitoring T>.

 

LIMIT: tT>>

 

 

 

014 104

 

Blocked

0

1000

s

Fig. 3-173

 

Setting for the operate delay of temperature monitoring T>>.

 

LIMIT: T<

 

 

 

014 105

 

-20

-20

200

°C

Fig. 3-173

 

Setting for the operate value of temperature monitoring T<.

 

LIMIT: T<<

 

 

 

014 106

 

-20

-20

200

°C

Fig. 3-173

 

Setting for the operate value of temperature monitoring T<<.

 

LIMIT: tT<

 

 

 

014 107

 

Blocked

0

1000

s

Fig. 3-173

 

Setting for the operate delay of temperature monitoring T<.

 

LIMIT: tT<<

 

 

 

014 108

 

Blocked

0

1000

s

Fig. 3-173

 

Setting for the operate delay of temperature monitoring T<<.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Limit value monitoring

LIM_1: General enable USER

 

 

 

014 014

 

0: No

Fig. 3-175

 

LIM_2: General enable USER

 

 

 

014 015

 

0: No

 

 

Enabling or disabling the limit value monitoring function.

 

LIM_1: Select. meas. input

 

 

 

019 111

 

0: End a

Fig. 3-174

 

LIM_2: Select. meas. input

 

 

 

019 112

 

1: End b

 

 

Selecting a measuring input for limit value monitoring of the measured values.

 

LIM_1: I>

 

 

 

015 116

 

1.20

0.20

4.00

Inom

Fig. 3-175

 

LIM_2: I>

 

 

 

016 116

 

1.20

0.20

4.00

Inom

 

 

Setting for the operate value of I>.

 

LIM_1: I>>

 

 

 

015 117

 

Blocked

0.20

4.00

Inom

Fig. 3-175

 

LIM_2: I>>

 

 

 

016 117

 

Blocked

0.20

4.00

Inom

 

 

Setting for the operate value of I>>.

 

LIM_1: tI>

 

 

 

015 120

 

5

0

100

s

Fig. 3-175

 

LIM_2: tI>

 

 

 

016 120

 

5

0

100

s

 

 

Setting for the operate delay of I>.

 

LIM_1: tI>>

 

 

 

015 121

 

Blocked

0

100

s

Fig. 3-175

 

LIM_2: tI>>

 

 

 

016 121

 

Blocked

0

100

s

 

 

Setting for the operate delay of I>>.

 

LIM_1: I<

 

 

 

015 118

 

0.10

0.00

4.00

Inom

Fig. 3-175

 

LIM_2: I<

 

 

 

016 118

 

0.10

0.00

4.00

Inom

 

 

Setting for the operate value of I<.

 

LIM_1: I<<

 

 

 

015 119

 

Blocked

0.00

4.00

Inom

Fig. 3-175

 

LIM_2: I<<

 

 

 

016 119

 

Blocked

0.00

4.00

Inom

 

 

Setting for the operate value of I<<.

 

LIM_1: tI<

 

 

 

015 122

 

5

0

100

s

Fig. 3-175

 

LIM_2: tI<

 

 

 

016 122

 

5

0

100

s

 

 

Setting for the operate delay of I<.

 

LIM_1: tI<<

 

 

 

015 123

 

Blocked

0

100

s

Fig. 3-175

 

LIM_2: tI<<

 

 

 

016 123

 

Blocked

0

100

s

 

 

Setting for the operate delay of I<<.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Programmable Logic

LOGIC: General enable USER

 

 

 

031 099

 

0: No

Fig. 3-177

 

Enable/disable the logic function.

 

LOGIC: Set 1 USER

 

 

 

034 030

 

0: No

Fig. 3-176

 

LOGIC: Set 2 USER

 

 

 

034 031

 

0: No

 

 

LOGIC: Set 3 USER

 

 

 

034 032

 

0: No

 

 

LOGIC: Set 4 USER

 

 

 

034 033

 

0: No

 

 

LOGIC: Set 5 USER

 

 

 

034 034

 

0: No

 

 

LOGIC: Set 6 USER

 

 

 

034 035

 

0: No

 

 

LOGIC: Set 7 USER

 

 

 

034 036

 

0: No

 

 

LOGIC: Set 8 USER

 

 

 

034 037

 

0: No

 

 

These settings define the static input conditions for the logic function.

 

LOGIC: Fct.assignm. outp. 1

 

 

 

030 000

 

060 000: MAIN: Without function

Fig. 3-177

 

LOGIC: Fct.assignm. outp. 2

 

 

 

030 004

 

060 000: MAIN: Without function

 

 

s

 

 

LOGIC: Fct.assignm. outp. 3

 

 

 

030 008

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp. 4

 

 

 

030 012

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp. 5

 

 

 

030 016

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp. 6

 

 

 

030 020

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp. 7

 

 

 

030 024

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp. 8

 

 

 

030 028

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp. 9

 

 

 

030 032

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.10

 

 

 

030 036

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.11

 

 

 

030 040

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.12

 

 

 

030 044

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.13

 

 

 

030 048

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.14

 

 

 

030 052

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.15

 

 

 

030 056

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.16

 

 

 

030 060

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.17

 

 

 

030 064

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.18

 

 

 

030 068

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.19

 

 

 

030 072

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.20

 

 

 

030 076

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.21

 

 

 

030 080

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.22

 

 

 

030 084

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.23

 

 

 

030 088

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.24

 

 

 

030 092

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.25

 

 

 

030 096

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.26

 

 

 

031 000

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.27

 

 

 

031 004

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.28

 

 

 

031 008

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.29

 

 

 

031 012

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.30

 

 

 

031 016

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.31

 

 

 

031 020

 

060 000: MAIN: Without function

 

 

LOGIC: Fct.assignm. outp.32

 

 

 

031 024

 

060 000: MAIN: Without function

 

 

These settings assign functions to the outputs.

 

LOGIC: Op. mode t output 1

 

 

 

030 001

 

0: Without timer stage

Fig. 3-177

 

LOGIC: Op. mode t output 2

 

 

 

030 005

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 3

 

 

 

030 009

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 4

 

 

 

030 013

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 5

 

 

 

030 017

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 6

 

 

 

030 021

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 7

 

 

 

030 025

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 8

 

 

 

030 029

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 9

 

 

 

030 033

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 10

 

 

 

030 037

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 11

 

 

 

030 041

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 12

 

 

 

030 045

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 13

 

 

 

030 049

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 14

 

 

 

030 053

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 15

 

 

 

030 057

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 16

 

 

 

030 061

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 17

 

 

 

030 065

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 18

 

 

 

030 069

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 19

 

 

 

030 073

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 20

 

 

 

030 077

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 21

 

 

 

030 081

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 22

 

 

 

030 085

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 23

 

 

 

030 089

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 24

 

 

 

030 093

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 25

 

 

 

030 097

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 26

 

 

 

031 001

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 27

 

 

 

031 005

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 28

 

 

 

031 009

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 29

 

 

 

031 013

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 30

 

 

 

031 017

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 31

 

 

 

031 021

 

0: Without timer stage

 

 

LOGIC: Op. mode t output 32

 

 

 

031 025

 

0: Without timer stage

 

 

These settings define the operating modes for the output timer stages.

 

LOGIC: Time t1 output 1

 

 

 

030 002

 

0.00

0.00

600.00

s

Fig. 3-177

 

LOGIC: Time t1 output 2

 

 

 

030 006

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 3

 

 

 

030 010

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 4

 

 

 

030 014

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 5

 

 

 

030 018

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 6

 

 

 

030 022

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 7

 

 

 

030 026

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 8

 

 

 

030 030

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 9

 

 

 

030 034

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 10

 

 

 

030 038

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 11

 

 

 

030 042

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 12

 

 

 

030 046

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 13

 

 

 

030 050

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 14

 

 

 

030 054

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 15

 

 

 

030 058

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 16

 

 

 

030 062

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 17

 

 

 

030 066

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 18

 

 

 

030 070

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 19

 

 

 

030 074

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 20

 

 

 

030 078

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 21

 

 

 

030 082

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 22

 

 

 

030 086

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 23

 

 

 

030 090

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 24

 

 

 

030 094

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 25

 

 

 

030 098

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 26

 

 

 

031 002

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 27

 

 

 

031 006

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 28

 

 

 

031 010

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 29

 

 

 

031 014

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 30

 

 

 

031 018

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 31

 

 

 

031 022

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t1 output 32

 

 

 

031 026

 

0.00

0.00

600.00

s

 

 

Settings of timer stage t1 for the respective outputs.

 

LOGIC: Time t2 output 1

 

 

 

030 003

 

0.00

0.00

600.00

s

Fig. 3-177

 

LOGIC: Time t2 output 2

 

 

 

030 007

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 3

 

 

 

030 011

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 4

 

 

 

030 015

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 5

 

 

 

030 019

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 6

 

 

 

030 023

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 7

 

 

 

030 027

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 8

 

 

 

030 031

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 9

 

 

 

030 035

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 10

 

 

 

030 039

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 11

 

 

 

030 043

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 12

 

 

 

030 047

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 13

 

 

 

030 051

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 14

 

 

 

030 055

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 15

 

 

 

030 059

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 16

 

 

 

030 063

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 17

 

 

 

030 067

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 18

 

 

 

030 071

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 19

 

 

 

030 075

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 20

 

 

 

030 079

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 21

 

 

 

030 083

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 22

 

 

 

030 087

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 23

 

 

 

030 091

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 24

 

 

 

030 095

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 25

 

 

 

030 099

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 26

 

 

 

031 003

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 27

 

 

 

031 007

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 28

 

 

 

031 011

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 29

 

 

 

031 015

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 30

 

 

 

031 019

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 31

 

 

 

031 023

 

0.00

0.00

600.00

s

 

 

LOGIC: Time t2 output 32

 

 

 

031 027

 

0.00

0.00

600.00

s

 

 

Settings for timer stage t2 for the respective outputs.

Note: This setting has no effect in the “minimum time” operating mode.

 

LOGIC: Sig.assig. outp. 1

 

 

 

044 000

 

061 000: MAIN: Without function

Fig. 3-184

 

LOGIC: Sig.assig. outp. 2

 

 

 

044 002

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 3

 

 

 

044 004

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 4

 

 

 

044 006

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 5

 

 

 

044 008

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 6

 

 

 

044 010

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 7

 

 

 

044 012

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 8

 

 

 

044 014

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 9

 

 

 

044 016

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 10

 

 

 

044 018

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 11

 

 

 

044 020

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 12

 

 

 

044 022

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 13

 

 

 

044 024

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 14

 

 

 

044 026

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 15

 

 

 

044 028

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 16

 

 

 

044 030

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 17

 

 

 

044 032

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 18

 

 

 

044 034

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 19

 

 

 

044 036

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 20

 

 

 

044 038

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 21

 

 

 

044 040

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 22

 

 

 

044 042

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 23

 

 

 

044 044

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 24

 

 

 

044 046

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 25

 

 

 

044 048

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 26

 

 

 

044 050

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 27

 

 

 

044 052

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 28

 

 

 

044 054

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 29

 

 

 

044 056

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 30

 

 

 

044 058

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 31

 

 

 

044 060

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig. outp. 32

 

 

 

044 062

 

061 000: MAIN: Without function

 

 

These settings assign the function of a binary input signal to the output of the logic equation.

 

LOGIC: Sig.assig.outp. 1(t)

 

 

 

044 001

 

061 000: MAIN: Without function

Fig. 3-184

 

LOGIC: Sig.assig.outp. 2(t)

 

 

 

044 003

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp. 3(t)

 

 

 

044 005

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp. 4(t)

 

 

 

044 007

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp. 5(t)

 

 

 

044 009

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp. 6(t)

 

 

 

044 011

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp. 7(t)

 

 

 

044 013

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp. 8(t)

 

 

 

044 015

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp. 9(t)

 

 

 

044 017

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.10(t)

 

 

 

044 019

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.11(t)

 

 

 

044 021

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.12(t)

 

 

 

044 023

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.13(t)

 

 

 

044 025

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.14(t)

 

 

 

044 027

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.15(t)

 

 

 

044 029

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.16(t)

 

 

 

044 031

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.17(t)

 

 

 

044 033

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.18(t)

 

 

 

044 035

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.19(t)

 

 

 

044 037

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.20(t)

 

 

 

044 039

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.21(t)

 

 

 

044 041

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.22(t)

 

 

 

044 043

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.23(t)

 

 

 

044 045

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.24(t)

 

 

 

044 047

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.25(t)

 

 

 

044 049

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.26(t)

 

 

 

044 051

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.27(t)

 

 

 

044 053

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.28(t)

 

 

 

044 055

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.29(t)

 

 

 

044 057

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.30(t)

 

 

 

044 059

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.31(t)

 

 

 

044 061

 

061 000: MAIN: Without function

 

 

LOGIC: Sig.assig.outp.32(t)

 

 

 

044 063

 

061 000: MAIN: Without function

 

 

These settings assign the function of a binary input signal to the output of the logic equation.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Programmable Logic

LOG_2: General enable USER

 

 

 

011 137

 

0: No

Fig. 3-178

 

Enable/disable the function group LOG_2 (Programmable Logic 2).

 

LOG_2: Fct.assignm. outp. 1

 

 

 

050 000

 

060 000: MAIN: Without function

Fig. 3-178

 

LOG_2: Fct.assignm. outp. 2

 

 

 

050 004

 

060 000: MAIN: Without function

 

 

s

 

 

LOG_2: Fct.assignm. outp. 3

 

 

 

050 008

 

060 000: MAIN: Without function

 

 

LOG_2: Fct.assignm. outp. 4

 

 

 

050 012

 

060 000: MAIN: Without function

 

 

These settings assign functions to the outputs.

 

LOG_2: Op. mode t output 1

 

 

 

050 001

 

0: Without timer stage

Fig. 3-178

 

LOG_2: Op. mode t output 2

 

 

 

050 005

 

0: Without timer stage

 

 

LOG_2: Op. mode t output 3

 

 

 

050 009

 

0: Without timer stage

 

 

LOG_2: Op. mode t output 4

 

 

 

050 013

 

0: Without timer stage

 

 

These settings define the operating modes for the output timer stages.

 

LOG_2: Time t1 output 1

 

 

 

050 002

 

0

0

60000

s

Fig. 3-178

 

LOG_2: Time t1 output 2

 

 

 

050 006

 

0

0

60000

s

 

 

LOG_2: Time t1 output 3

 

 

 

050 010

 

0

0

60000

s

 

 

LOG_2: Time t1 output 4

 

 

 

050 014

 

0

0

60000

s

 

 

Settings of timer stage t1 for the respective outputs.

 

LOG_2: Time t2 output 1

 

 

 

050 003

 

0

0

60000

s

Fig. 3-178

 

LOG_2: Time t2 output 2

 

 

 

050 007

 

0

0

60000

s

 

 

LOG_2: Time t2 output 3

 

 

 

050 011

 

0

0

60000

s

 

 

LOG_2: Time t2 output 4

 

 

 

050 015

 

0

0

60000

s

 

 

Settings for timer stage t2 for the respective outputs.

Note: This setting has no effect in the “minimum time” operating mode.

 

LOG_2: Sig.assig. outp. 1

 

 

 

064 000

 

061 000: MAIN: Without function

 

 

LOG_2: Sig.assig. outp. 2

 

 

 

064 002

 

061 000: MAIN: Without function

 

 

LOG_2: Sig.assig. outp. 3

 

 

 

064 004

 

061 000: MAIN: Without function

 

 

LOG_2: Sig.assig. outp. 4

 

 

 

064 006

 

061 000: MAIN: Without function

 

 

These settings assign the function of a binary input signal to the output of the logic equation.

 

LOG_2: Sig.assig.outp. 1(t)

 

 

 

064 001

 

061 000: MAIN: Without function

 

 

LOG_2: Sig.assig.outp. 2(t)

 

 

 

064 003

 

061 000: MAIN: Without function

 

 

LOG_2: Sig.assig.outp. 3(t)

 

 

 

064 005

 

061 000: MAIN: Without function

 

 

LOG_2: Sig.assig.outp. 4(t)

 

 

 

064 007

 

061 000: MAIN: Without function

 

 

These settings assign the function of a binary input signal to the output of the logic equation.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Single-pole commands

CMD_1: Design. command C001

 

 

 

200 000

 

1: C001

 

 

CMD_1: Design. command C002

 

 

 

200 005

 

2: C002

 

 

CMD_1: Design. command C003

 

 

 

200 010

 

3: C003

 

 

CMD_1: Design. command C004

 

 

 

200 015

 

4: C004

 

 

CMD_1: Design. command C005

 

 

 

200 020

 

5: C005

 

 

CMD_1: Design. command C006

 

 

 

200 025

 

6: C006

 

 

CMD_1: Design. command C007

 

 

 

200 030

 

7: C007

 

 

CMD_1: Design. command C008

 

 

 

200 035

 

8: C008

 

 

CMD_1: Design. command C009

 

 

 

200 040

 

9: C009

 

 

CMD_1: Design. command C010

 

 

 

200 045

 

10: C010

 

 

CMD_1: Design. command C011

 

 

 

200 050

 

11: C011

 

 

CMD_1: Design. command C012

 

 

 

200 055

 

12: C012

 

 

Selection of the command designation.

 

CMD_1: Oper. mode cmd. C001

 

 

 

200 002

 

3: Persistent command

Fig. 3-198

 

CMD_1: Oper. mode cmd. C002

 

 

 

200 007

 

3: Persistent command

 

 

CMD_1: Oper. mode cmd. C003

 

 

 

200 012

 

3: Persistent command

 

 

CMD_1: Oper. mode cmd. C004

 

 

 

200 017

 

3: Persistent command

 

 

CMD_1: Oper. mode cmd. C005

 

 

 

200 022

 

3: Persistent command

 

 

CMD_1: Oper. mode cmd. C006

 

 

 

200 027

 

3: Persistent command

 

 

CMD_1: Oper. mode cmd. C007

 

 

 

200 032

 

3: Persistent command

 

 

CMD_1: Oper. mode cmd. C008

 

 

 

200 037

 

3: Persistent command

 

 

CMD_1: Oper. mode cmd. C009

 

 

 

200 042

 

3: Persistent command

 

 

CMD_1: Oper. mode cmd. C010

 

 

 

200 047

 

3: Persistent command

 

 

CMD_1: Oper. mode cmd. C011

 

 

 

200 052

 

3: Persistent command

 

 

CMD_1: Oper. mode cmd. C012

 

 

 

200 057

 

3: Persistent command

 

 

Selection of the command operating mode.

 

Parameter

Address

 

Default

Min

Max

Unit

Logic Diagram

Single-pole signals

SIG_1: Designat. sig. S001

 

 

 

226 000

 

1: S001

 

 

SIG_1: Designat. sig. S002

 

 

 

226 008

 

2: S002

 

 

SIG_1: Designat. sig. S003

 

 

 

226 016

 

3: S003

 

 

SIG_1: Designat. sig. S004

 

 

 

226 024

 

4: S004

 

 

SIG_1: Designat. sig. S005

 

 

 

226 032

 

5: S005

 

 

SIG_1: Designat. sig. S006

 

 

 

226 040

 

6: S006

 

 

SIG_1: Designat. sig. S007

 

 

 

226 048

 

7: S007

 

 

SIG_1: Designat. sig. S008

 

 

 

226 056

 

8: S008

 

 

SIG_1: Designat. sig. S009

 

 

 

226 064

 

9: S009

 

 

SIG_1: Designat. sig. S010

 

 

 

226 072

 

10: S010

 

 

SIG_1: Designat. sig. S011

 

 

 

226 080

 

11: S011

 

 

SIG_1: Designat. sig. S012

 

 

 

226 088

 

12: S012

 

 

Selection of the signal designation.

 

SIG_1: Oper. mode sig. S001

 

 

 

226 001

 

1: Start/end signal

Fig. 3-199

 

SIG_1: Oper. mode sig. S002

 

 

 

226 009

 

1: Start/end signal

 

 

SIG_1: Oper. mode sig. S003

 

 

 

226 017

 

1: Start/end signal

 

 

SIG_1: Oper. mode sig. S004

 

 

 

226 025

 

1: Start/end signal

 

 

SIG_1: Oper. mode sig. S005

 

 

 

226 033

 

1: Start/end signal

 

 

SIG_1: Oper. mode sig. S006

 

 

 

226 041

 

1: Start/end signal

 

 

SIG_1: Oper. mode sig. S007

 

 

 

226 049

 

1: Start/end signal

 

 

SIG_1: Oper. mode sig. S008

 

 

 

226 057

 

1: Start/end signal

 

 

SIG_1: Oper. mode sig. S009

 

 

 

226 065

 

1: Start/end signal

 

 

SIG_1: Oper. mode sig. S010

 

 

 

226 073

 

1: Start/end signal

 

 

SIG_1: Oper. mode sig. S011

 

 

 

226 081

 

1: Start/end signal

 

 

SIG_1: Oper. mode sig. S012

 

 

 

226 089

 

1: Start/end signal

 

 

Selection of the signal operating mode.

 

SIG_1: Gr.asg. debounc.S001

 

 

 

226 003

 

1: Group 1

Fig. 3-199

Fig. 3-200

 

SIG_1: Gr.asg. debounc.S002

 

 

 

226 011

 

1: Group 1

 

 

SIG_1: Gr.asg. debounc.S003

 

 

 

226 019

 

1: Group 1

 

 

SIG_1: Gr.asg. debounc.S004

 

 

 

226 027

 

1: Group 1

 

 

SIG_1: Gr.asg. debounc.S005

 

 

 

226 035

 

1: Group 1

 

 

SIG_1: Gr.asg. debounc.S006

 

 

 

226 043

 

1: Group 1

 

 

SIG_1: Gr.asg. debounc.S007

 

 

 

226 051

 

1: Group 1

 

 

SIG_1: Gr.asg. debounc.S008

 

 

 

226 059

 

1: Group 1

 

 

SIG_1: Gr.asg. debounc.S009

 

 

 

226 067

 

1: Group 1

 

 

SIG_1: Gr.asg. debounc.S010

 

 

 

226 075

 

1: Group 1

 

 

SIG_1: Gr.asg. debounc.S011

 

 

 

226 083

 

1: Group 1

 

 

SIG_1: Gr.asg. debounc.S012

 

 

 

226 091

 

1: Group 1

 

 

Group assignment for the debouncing time and the chatter suppression.

 

SIG_1: Min. sig. dur. S001

 

 

 

226 002

 

0

0

254

s

Fig. 3-199

 

SIG_1: Min. sig. dur. S002

 

 

 

226 010

 

0

0

254

s

 

 

SIG_1: Min. sig. dur. S003

 

 

 

226 018

 

0

0

254

s

 

 

SIG_1: Min. sig. dur. S004

 

 

 

226 026

 

0

0

254

s

 

 

SIG_1: Min. sig. dur. S005

 

 

 

226 034

 

0

0

254

s

 

 

SIG_1: Min. sig. dur. S006

 

 

 

226 042

 

0

0

254

s

 

 

SIG_1: Min. sig. dur. S007

 

 

 

226 050

 

0

0

254

s

 

 

SIG_1: Min. sig. dur. S008

 

 

 

226 058

 

0

0

254

s

 

 

SIG_1: Min. sig. dur. S009

 

 

 

226 066

 

0

0

254

s

 

 

SIG_1: Min. sig. dur. S010

 

 

 

226 074

 

0

0

254

s

 

 

SIG_1: Min. sig. dur. S011

 

 

 

226 082

 

0

0

254

s

 

 

SIG_1: Min. sig. dur. S012

 

 

 

226 090

 

0

0

254

s

 

 

The logic “1” signal must be available for this minimum time setting so that a telegram can be sent in the Start/end signal mode.