Global

	Parameter			Address
	Default	Min	Max	Unit		Logic Diagram
PC link	PC: Command blocking						003 182
	0: No				Fig. 3-8
	When command blocking is activated, commands are rejected at the PC interface.
	PC: Sig./meas.val.block.						003 086
	0: No				Fig. 3-8
	When signal and measured value blocking is activated, no signals or measured data are transmitted through the PC interface.

	Parameter			Address
	Default	Min	Max	Unit		Logic Diagram
“Logical” communication interface 1	COMM1: Command block. USER						003 172
	1: Yes				Fig. 3-9
	When command blocking is activated, commands are rejected at communication interface 1.
	COMM1: Sig./meas.block.USER						003 076
	0: No				Fig. 3-10 Fig. 3-11 Fig. 3-12
	When signal and measured value blocking user is activated, no signals or measured data are transmitted through communication interface COMM1.

	Parameter			Address
	Default	Min	Max	Unit		Logic Diagram
“Logical” communication interface 2	COMM2: Command block. USER						103 172
	0: No				Fig. 3-17
	When command blocking is activated, commands are rejected at communication interface 2.
	COMM2: Sig./meas.block.USER						103 076
	0: No				Fig. 3-17
	When signal and measured value blocking user is activated, no signals or measured data are transmitted through communication interface COMM2.

	Parameter			Address
	Default	Min	Max	Unit		Logic Diagram
Binary and analog output	OUTP: Outp.rel.block USER						021 014
	0: No				Fig. 3-33
	When this blocking is activated, all output relays are blocked.

	Parameter			Address
	Default	Min	Max	Unit		Logic Diagram
Main function	MAIN: Device on-line						003 030
	0: No (= off)				Fig. 3-56
	Switching the device off-line or on-line. Some parameters can only be changed when protection is disabled.
	MAIN: Test mode USER						003 012
	0: No				Fig. 3-74
	When the test mode user is activated, signals or measured data for PC and communication interfaces are labeled 'test mode'.
	MAIN: Nominal frequ. fnom						010 030
	50: 50 Hz
	Setting for the nominal frequency of the protected system.
	MAIN: Phase sequence						010 049
	1: A - B - C
	Setting the phase sequence A-B-C or A-C-B. (Alternative terminology: Setting for the rotary field's direction, either clockwise or anticlockwise.)
	MAIN: Time tag						221 098
	1: 1stEdge,OpMem sorted
	For bay control function signals detected via binary signal inputs and conditioned with debouncing it is now possible to select whether the time tag for the signal is to be issued after debouncing or when the first pulse edge is detected. Furthermore it is defined whether entries in the operating data memory are made in chronological order or not.
	MAIN: Inom C.T.prim.,end a						019 020
	200	1	50000	A	Fig. 3-49
	MAIN: Inom C.T.prim.,end b						019 021
	200	1	50000	A
	Setting for the primary nominal current of the main current transformer (phase currents) of end a or b.
	MAIN: Inom C.T.Yprim,end a						019 027
	200	1	50000	A
	MAIN: Inom C.T.Yprim,end b						019 028
	200	1	50000	A
	Setting for the primary nominal current of the main current transformer at the neutral-point-to-ground connection.
	MAIN: Vnom V.T. prim.						010 002
	100.0	0.1	1500.0	kV	Fig. 3-51
	Setting for the primary nominal voltage of the system transformer for measurement of phase-to-ground and phase-to-phase voltages.
	MAIN: Inom device, end a						010 024
	1.0: 1.0 A				Fig. 3-43 Fig. 3-44
	MAIN: Inom device, end b						010 025
	1.0: 1.0 A				Fig. 3-45
	Setting for the nominal current of the device for the measurement of the phase currents of ends a or b. This also corresponds to the nominal device current.
	MAIN: IY,nom device, end a						010 142
	1.0: 1.0 A				Fig. 3-44
	MAIN: IY,nom device, end b						010 143
	1.0: 1.0 A				Fig. 3-45
	MAIN: Vnom V.T. sec.						010 009
	100	50	130	V	Fig. 3-43 Fig. 3-51
	Setting for the secondary nominal voltage of the system transformer for voltage measurement.
	MAIN: Conn.meas.circ. IP,a						010 140
	1: Standard				Fig. 3-43 Fig. 3-44
	MAIN: Conn.meas.circ. IP,b						010 150
	1: Standard				Fig. 3-45
	Instead of accounting for connection reversal applied to one end in the settings for DIFF: Vec.gr. ends a-b PSx, it is possible to account for it in the settings for connection of the measuring circuits. The connection of the phase current circuits, ends a and b, is set here as Standard if in accordance with the connection scheme shown in Chapter “Installation and Connection”, else as Opposite.
	MAIN: Conn.meas.circ. IY,a						010 141
	1: Standard				Fig. 3-44
	MAIN: Conn.meas.circ. IY,b						010 151
	1: Standard				Fig. 3-45
	If the connection is as shown in Chapter “Installation and Connection”, then the setting must be Standard. If the connection direction is reversed then the setting must be Opposite.
	MAIN: Meas. value rel. IP						011 030
	0.00	0.00	0.20	Inom	Fig. 3-49
	Setting for the minimum current that must be exceeded so that measured operating values of the phase currents and, if applicable, derived currents are displayed.
	MAIN: Meas.value rel. Ineg						011 048
	0.000	0.000	0.200	Inom
	MAIN: Meas.value rel. Ipos						011 058
	0.000	0.000	0.200	Inom
	Setting for a minimum current that must be exceeded in order for the P632 to display the negative-sequence (positive-sequence) current as measured operating data.
	MAIN: Meas. value rel. IN						011 031
	0.000	0.000	0.200	Inom	Fig. 3-50
	Setting for the minimum current that must be exceeded so that the measured operating value of the residual current is displayed.
	MAIN: Meas. value rel. IY						011 036
	0.000	0.000	0.200	IN,nom	Fig. 3-50
	Setting for the minimum current that must be exceeded in order for the measured operating value of the current in the neutral-point-to-ground connection to be displayed.
	MAIN: Meas. value rel. V						011 032
	0.00	0.00	0.20	Vnom	Fig. 3-51
	Setting for the minimum voltage that must be exceeded in order for the measured operating values of the voltage to be displayed.
	MAIN: Settl. t. IP,max,del						010 113
	15.0	0.1	60.0	min	Fig. 3-48 Fig. 3-49
	Setting for the time after which the delayed maximum current display shall reach 95% of the maximum current IP,max.
	MAIN: Fct.assign. reset 1						005 248
	060 000: MAIN: Without function				Fig. 3-72
	Assigning specific memories and counters which are to be reset jointly if MAIN: Group reset 1 USER is enabled.
	MAIN: Fct.assign. reset 2						005 249
	060 000: MAIN: Without function				Fig. 3-72
	Assigning specific memories and counters which are to be reset jointly if MAIN: Group reset 2 USER is enabled.
	MAIN: Fct.assign. block. 1						021 021
	060 000: MAIN: Without function				Fig. 3-59
	Assignment of functions that will be blocked simultaneously when blocking input 1 (MAIN: Blocking 1 EXT) is activated.
	MAIN: Fct.assign. block. 2						021 022
	060 000: MAIN: Without function				Fig. 3-59
	Assignment of functions that will be blocked simultaneously when blocking input 2 (MAIN: Blocking 2 EXT) is activated.
	MAIN: Fct.assign. block. 3						021 048
	060 000: MAIN: Without function				Fig. 3-59
	Assignment of functions to be blocked together if blocking input 3 (MAIN: Blocking 3 EXT) is activated.
	MAIN: Fct.assign. block. 4						021 049
	060 000: MAIN: Without function				Fig. 3-59
	Assignment of functions to be blocked together if blocking input 4 (MAIN: Blocking 4 EXT) is activated.
	MAIN: Trip cmd.block. USER						021 012
	0: No				Fig. 3-67
	Blocking the trip commands from the local control panel.
	MAIN: Fct.assig.trip cmd.1						021 001
	060 000: MAIN: Without function				Fig. 3-67
	Assignment of signals that trigger trip command 1.
	MAIN: Sig. asg. CB1 open						021 017
	061 000: MAIN: Without function				Fig. 3-62
	MAIN: Sig. asg. CB2 open						021 061
	061 000: MAIN: Without function
	Definition of the binary signal used by the P632 to evaluate the “CB open” position signal.
	MAIN: Sig. asg. CB1 closed						021 020
	061 000: MAIN: Without function				Fig. 3-61
	MAIN: Sig. asg. CB2 closed						021 060
	061 000: MAIN: Without function
	Definition of the binary signal used by the P632 to evaluate the “CB closed” position signal.
	MAIN: Fct.assig.trip cmd.2						021 002
	060 000: MAIN: Without function
	Assignment of the signals that trigger trip command 2.
	MAIN: Fct.assig.trip cmd.3						021 046
	060 000: MAIN: Without function
	Assignment of signals that trigger trip command 3.
	MAIN: Fct.assig.trip cmd.4						021 047
	060 000: MAIN: Without function
	Assignment of signals that trigger trip command 4.
	MAIN: Min.dur. trip cmd. 1						021 003
	0.25	0.10	10.00	s	Fig. 3-67
	Setting for the minimum duration of trip command 1.
	MAIN: Min.dur. trip cmd. 2						021 004
	0.25	0.10	10.00	s
	Setting for the minimum duration of trip command 2.
	MAIN: Min.dur. trip cmd. 3						021 032
	0.25	0.10	10.00	s
	Setting for the minimum duration of trip command 3.
	MAIN: Min.dur. trip cmd. 4						021 033
	0.25	0.10	10.00	s
	Setting for the minimum duration of trip command 4.
	MAIN: Latching trip cmd. 1						021 023
	0: No				Fig. 3-67
	Specification as to whether trip command 1 should latch.
	MAIN: Latching trip cmd. 2						021 024
	0: No
	Specification as to whether trip command 2 should latch.
	MAIN: Latching trip cmd. 3						021 025
	0: No
	Specification as to whether trip command 3 should latch.
	MAIN: Latching trip cmd. 4						021 026
	0: No
	Specification as to whether trip command 4 should latch.
	MAIN: Fct. assign. fault						021 031
	060 000: MAIN: Without function				Fig. 3-60
	Selection of the signals to be signaled as Blocked/Faulty in addition to the messages that always result in the message Blocked/Faulty.
	MAIN: Debounce time gr. 1						221 200
	0.02	0.00	2.54	s	Fig. 3-200
	MAIN: Debounce time gr. 2						221 203
	0.02	0.00	2.54	s
	MAIN: Debounce time gr. 3						221 206
	0.02	0.00	2.54	s
	Setting for the debouncing time.
	MAIN: Chatt.mon. time gr.1						221 201
	0.0	0.0	25.4	s	Fig. 3-200
	MAIN: Chatt.mon. time gr.2						221 204
	0.0	0.0	25.4	s
	MAIN: Chatt.mon. time gr.3						221 207
	0.0	0.0	25.4	s
	Setting for the chatter monitoring time.
	MAIN: Change of state gr.1						221 202
	0	0	254		Fig. 3-200
	MAIN: Change of state gr.2						221 205
	0	0	254
	MAIN: Change of state gr.3						221 208
	0	0	254
	Setting the number of signal changes allowed during the chatter monitoring time before chatter suppression operates.
	MAIN: Cmd. dur.long cmd.						221 230
	20	1	254	s
	Setting for the command duration for a long command.
	MAIN: Cmd. dur. short cmd.						221 231
	1	1	254	s
	Setting for the command duration for a short command.
	MAIN: Inp.asg. ctrl.enabl.						221 057
	060 000: MAIN: Without function				Fig. 3-185
	Definition of the binary signal used to issue a general command output enable.
	MAIN: Inp.asg.interl.deact						221 007
	060 000: MAIN: Without function				Fig. 3-185
	Definition of the binary signal used to disable interlocking of control commands for switchgear.
	MAIN: Inp.asg. L/R key sw.						221 008
	060 000: MAIN: Without function
	Definition of the binary signal used to switch from remote control to local control.
	MAIN: Electrical control						221 061
	1: Remote
	This setting determines whether the binary inputs, that are configured to control switchgear, will be active with remote control or local control.
	MAIN: Delay Man.Op.Superv.						221 079
	3	0	255	s
	After the delay time period, to be set in this window, has elapsed (with the signal “Sw. dev. interm. pos.” already present and the status signal continuously absent), the actual switchgear status signal, as obtained from the respective binary inputs, will be issued. (See also “Processing status signals from manually operated switchgear”.)
	MAIN: Inp.assign. tripping						221 010
	060 000: MAIN: Without function
	Definition of the binary signal used to signal the tripping of an external protection device. This signal is used to form the CB trip signal.
	MAIN: Prot.trip>CB tripped						221 012
	0: Without function
	Selection of the protection function trip command that will be used to form the CB trip signal.
	MAIN: Inp. asg. CB trip						221 013
	060 000: MAIN: Without function
	Definition of the binary signal used by the P632 to signal the “CB open” position signal.
	MAIN: Inp.asg.CB tr.en.ext						221 050
	060 000: MAIN: Without function
	Definition of the binary signal used to enable the CB trip signal of an external device.
	MAIN: Inp.asg. CB trip ext						221 024
	060 000: MAIN: Without function
	Definition of the binary signal used to carry the CB trip signal of an external device.
	MAIN: Inp.asg. mult.sig. 1						221 051
	060 000: MAIN: Without function				Fig. 3-63
	MAIN: Inp.asg. mult.sig. 2						221 052
	060 000: MAIN: Without function				Fig. 3-63
	Definition of the function that will be interpreted as a multiple signal (group signal).

	Parameter			Address
	Default	Min	Max	Unit		Logic Diagram
Parameter subset selection	PSS: Control via USER						003 100
	0: No				Fig. 3-75
	If parameter subset selection is to be handled from the integrated local control panel rather than via binary signal inputs, choose the setting Yes.
	PSS: Param.subs.sel. USER						003 060
	1: Parameter subset 1				Fig. 3-75
	Selection of the parameter subset from the local control panel.
	PSS: Keep time						003 063
	Blocked	0.000	65.000	s	Fig. 3-75
	The setting of this timer stage is relevant only if parameter subset selection is carried out via the binary signal inputs. Any voltage-free pause that may occur during selection is bridged. If, after this time period has elapsed, no binary signal input has yet been set, then the parameter subset selected from the local control panel shall apply.

	Parameter			Address
	Default	Min	Max	Unit		Logic Diagram
Self-monitoring	SFMON: Fct. assign. warning						021 030
	060 000: MAIN: Without function				Fig. 3-76
	Selection of the signals whose appearance shall result in the signals “Warning (LED)” and “Warning (relay)” and in the activation of the LED indicator labeled “ALARM”. Signals caused by faulty hardware and leading to blocking of the device are not configurable. They always result in the above signals and indication.
	SFMON: Mon.sig. retention						021 018
	Blocked	0	240	h
	This setting defines the duration (in hours) for which a device-internal fault is stored, so that a decision may be taken between an automatic warm restart and an automatic device blocking. (Setting to Blocked may be considered the same as unlimited storage.)

	Parameter			Address
	Default	Min	Max	Unit		Logic Diagram
Fault recording	FT_RC: Fct. assig. trigger						003 085
	060 000: MAIN: Without function				Fig. 3-88
	This setting defines the signals that will trigger fault recording.
	FT_RC: Id>						016 018
	Blocked	0.01	30.00	Iref
	This setting defines the threshold value of the differential current that will trigger disturbance recording.
	FT_RC: IR>						016 019
	Blocked	0.01	30.00	Iref
	This setting defines the threshold value of the restraining current that will trigger fault recording.
	FT_RC: Pre-fault time						003 078
	5	1	50	Periods	Fig. 3-90
	Setting for the time during which data will be recorded before the onset of a fault (pre-fault recording time).
	FT_RC: Post-fault time						003 079
	2	1	50	Periods	Fig. 3-90
	Setting for the time during which data will be recorded after the end of a fault (post-fault recording time).
	FT_RC: Max. recording time						003 075
	50	5	300	Periods	Fig. 3-90
	Setting for the maximum recording time per fault. This includes pre-fault and post-fault recording times.