Woodward SEG PCM1x Manual
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Woodward SEG PCM1x Manual

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PCM1x Packages (Pxx) Genset Control
Configuration Software Version 4.3

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Summary of Contents for Woodward SEG PCM1x

  • Page 1 PCM1x Packages (Pxx) Genset Control Configuration Software Version 4.3...

  • Page 2: Table Of Contents

    Contents General Information......................6 Function ..........................7 Considerations To Be Taken: ......................7 2.1.1 Different Options ........................7 2.1.2 Systems With One Power Circuit Breaker .................. 7 2.1.3 Systems With Asynchronous/Induction Generators (Special Hardware !!)........7 Signals ............................8 2.2.1 Discrete Inputs........................8 2.2.2 Control Outputs........................
  • Page 3 Emergency Power (AMF)......................76 3.7.1 Emergency Power With Breaker Logic "PARALLEL" ..............77 3.7.2 Emergency Power With Breaker Logic "OPEN TRANSIT."............77 3.7.3 Emergency Power With Breaker Logic "CLOSED TRANSIT."............77 3.7.4 Emergency Power With Breaker Logic "INTERCHANGE" ............77 3.7.5 Emergency Power With Breaker Logic "EXTERNAL" ..............78 3.7.6 Emergency power With MCB Malfunction ................78 3.7.7...
  • Page 4 Illustrations And Tables Illustrations Figure 3-1: Control loop ..........................27 Figure 3-2: Step response (Example) ......................28 Figure 3-3: Step responds - governor configuration ..................29 Figure 3-4: CAN bus load/var sharing, wiring diagram.................. 44 Figure 3-5: CAN bus load/var sharing, diagram ................... 44 Figure 3-6: Breaker control logic 'Impulse' .....................
  • Page 5 WARNING Read this entire manual and all other publications pertaining to the work to be performed before installing, operating, or servicing this equipment. Practice all plant and safety instructions and precautions. Failure to follow instructions can cause personal injury and/or property damage. The engine, turbine, or other type of prime mover should be equipped with an overspeed (overtemperature, or over- pressure, where applicable) shutdown unit(s), that operates totally independently of the prime mover control unit(s) to protect against runaway or damage to the engine, turbine, or other type of prime mover with possible personal injury...

  • Page 6: General Information

    General Information Type English German PCM1x Packages (Pxx) PCM1x Packages (Pxx) - Installation PCx Vers. 4.3 PCx Vers. 4.3 this manual ! PCM1x Packages (Pxx) - Configuration PCx Vers. 4.3 PCx Vers. 4.3 PCM1x Packages (Pxx) - Function/Operation PCx Vers. 4.3 PCx Vers.

  • Page 7: Function

    Function Considerations To Be Taken: 2.1.1 Different Options According to a control unit's configuration, different parameters may be displayed and not all parameters will be avail- able: • Various inputs and outputs will be present or deleted, corresponding to the control configuration (depending on your order).

  • Page 8: Signals

    Signals 2.2.1 Discrete Inputs NOTE All emergency power (Parameter 150 "Emergency power" has to be configured to ON) or Critical (Sprinkler) mode operations (terminal 6 must be configured accordingly; Parameter 223) will be carried out in the TEST and AUTO- MATIC operation modes regardless of the discrete inputs "Automatic 1"...
  • Page 9 Terminals 54/7 [PCM1-G] Isolated operating / reply external breaker With this input (logical "1") the control is signaled that the genset is operated in isolated operation (the LED "Mains parallel" is off). This discrete input is used to decide whether, after closing the GCB, frequency control (terminal 54 = logical "1") or real power control (terminal 54 = logical "0") is to be carried out.

  • Page 10: Control Outputs

    2.2.2 Control Outputs Terminals 18/19 Readiness for operation Setting this relay signals the readiness for operation of the control. If this relay is disabled, the proper function of the control can no longer be guaranteed. Appropriate actions must be initiated once this relay has been disabled (e.g.
  • Page 11 Terminals 14/15 Command: close GCB Enabling this relay will close the GCB. If the GCB closing command is configured to continuous current (Para- meter 120), in response to a missing discrete input "Reply: GCB is open" the relay is maintained in its closed state;...

  • Page 12: Parameter

    Parameter Configuration can be performed using a PC and the PC program FL-SOFT3 via the serial interface or via the front panel push-buttons and the front panel LC display. Additionally it is possible to configure the unit via CAN bus. The following Baud rates are therefore usable: •...

  • Page 13: Basic Data

    Basic Data 3.1.1 Version Number (Software Version) Parameter 1 Software version Software version Display of the software version. Vx.xxxx 3.1.2 Configuration Access The control is equipped with a three-level code and configuration hierarchy, which enables it to access various configura- tion screens for different users.

  • Page 14: Direct Configuration

    3.1.3 Direct Configuration NOTE To carry out direct configuration, you require a direct configuration cable (order code "FL-CABLE-RS232"), the FL-SOFT3 program (supplied with the cable) and the corresponding configuration files. Please consult the online help installed when the program is installed for a description of the FL-SOFT3 PC program and its setup. Remote configuration: For remote configuration the level CS2 password must be entered via the parameter "password", otherwise, the values can only be read but not written.

  • Page 15: Generator Number

    3.1.4 Generator Number Parameter 4 Generator number (number of the control on the CAN bus) 1-14 Generator number If several controls are available and these are coupled via a CAN bus, a different number must be assigned to each control for differentiation purposes. The generator number 1 should be assigned even in the case of a single control.

  • Page 16: Event Logger (Package P01)

    Event Logger (Package P01) NOTE Displaying and clearing of events depends on access authorization: • Displaying of events ......Access authorization CS 1 und CS • Clearing of events......Access authorization CS # # # # CS = Code level (see chapter " Configuration "...

  • Page 17: Table 3-1: Event Recorder - Messages, Part 1

    Event type xxxxxxxxxxxxxxxx German English Internal events Engine overspeed (Pickup) Überdrehzahl Over speed Generator overfrequency Überfrequenz Overfrequency Generator underfrequency Unterfrequenz Underfrequency Generator overvoltage Gen.-Überspg. Gen.overvolt. Generator undervoltage Gen.-Unterspg. Gen.undervolt. Generator overcurrent, level 1 Gen.-Überstrom 1 Gen.overcurr. 1 Generator overcurrent, level 2 Gen.-Überstrom 2 Gen.overcurr.

  • Page 18: Analog Inputs

    Other Events Switched into operation mode MANUAL BAW Hand Manual mode Switched into operation mode AUTOMATIC BAW Automatik Automatic mode Switched into operation mode STOP BAW Stop Stop mode Switched into operation mode TEST BAW Probe Test mode Switched into operation mode Load TEST BAW Lastprobe Loadtest mode "MCB OFF"...

  • Page 19: Measuring

    Measuring WARNING The following values must be entered correctly for the generator to be monitored. Failure to do so may lead to incorrect measuring resulting in damage to or destruction of the generator and/or personal injury or death. Parameter 9 Configuration of the measuring YES/NO Configure...

  • Page 20: Pts (Voltage Transformers)

    3.3.2 PTs (Voltage Transformers) WARNING If the value of the following parameter is changed, the values of the following parameters have to be checked: • Generator rated voltage (Parameter 18), • Voltage controller insensitivity (Parameter 64), • Synchronizing dVmax (Parameter 124), •...

  • Page 21: Rated Voltage Values

    WARNING If the value of the following parameter is changed, the values of the following parameters have to be checked: • Threshold mains overvoltage (Parameter 198) as well as • Threshold mains undervoltage (Parameter 200). Parameter 16 Secondary mains voltage transformer [1] 50-125 V;...
  • Page 22 Parameter 20 Voltage measuring/voltage monitoring Ph-neut./Ph-Ph Volt.meas./mon. Ph-neut/Ph-neut The electrical system(generator, busbar, and mains) consists of the three ---------------- phase conductors and a neutral conductor. Thus the N lug (terminal 0) This parameter must be connected. affects the display. The phase-phase conductor voltages and the phase-neutral voltages are shown in the display.

  • Page 23: Generator Current

    3.3.4 Generator Current Parameter 21 Generator CT's 10-7,000/{X} A Current transf. The input of the CT ratio is necessary in order to display and control the actual values. The generator 0000/x CT ratio must be selected so that, at maximum power, at least 60 % of the CT nominal current flows.

  • Page 24: Mains Current/Mains Power Measurement

    3.3.5 Mains Current/Mains Power Measurement Mains power actual value measurement via analog input (Package P01) Measurement of the mains power actual value measurement via an analog input T{x} [x = 1-7] is possible if at least one of the analog inputs T{x} [x = 1-7] is a 0/4-20 input. Selection of the analog input is performed with the following pa- rameters.
  • Page 25 Parameter 27 Mains real power 0/4 mA Analog in.Pmains 9,990-0- 9,990 kW; [4] 6,900-0- 6,900 kW 0000kW The scaleable analog input is assigned a numerical value, which corresponds to the low- Package P01 only est input value " (0 % corresponds to -500 kW; 0 or 4 mA). Parameter 28 Mains real power 20 mA 9,990-0-...

  • Page 26: Password Configuration

    Measurement Units NOTE FL-SOFT3 is not a dynamic program and must be restarted after reconfiguration of a control unit has been started so the changes are reflected in the graphical display of the PC program. Parameter 32 Analog inputs; temperature measurement in ... Celsius/Fahrenheit Temperature in The analog input for temperature measurement may be configured to display in °C or °F.

  • Page 27: Controller

    Controller WARNING Incorrect settings may lead to the errors in measurements and failures within the control unit resulting in destruction of equipment or injury to personnel. Parameter 36 Configuration of the controller YES/NO Configure Parameters are grouped together in blocks to permit quicker navigation through the large controller number of configuration screens.

  • Page 28: Figure 3-2: Step Response (Example)

    If an abrupt disturbance variable is applied to the control loop, the reaction of the controlled system can be recorded at the output as a function of time (step response). Tolerance band Rise time rise Settling time sett Overshoot System deviation rise sett Figure 3-2: Step response (Example)

  • Page 29: Figure 3-3: Step Responds - Governor Configuration

    CAUTION The following must be observed regarding the controller setting: • Ensure that the emergency shutdown system is operational. • While determining the critical frequency, pay attention to the amplitude and frequency. • If the two values change uncontrollably: # EMERGENCY SHUTDOWN $ Initial state: The start position of the controller is determined using the initial state of the controller.
  • Page 30 Parameter 38 P-gain (K ) Proportional-action coefficient 1 to 240 P-gain The proportional-action coefficient K indicates the closed-loop control system gain. By in- Kpr = 000 creasing the gain, the response is increased to permit larger corrections to the variable to be controlled.

  • Page 31: Real Power Controller, Set Point Values

    3.4.3 Real Power Controller, Set Point Values These screens appear only if the generator real power controller has been configured to "ON" (Parameter 80). NOTE The fixed-value power control does not take into account the mains interchange point. If excess power is generated, it will be exported to the mains.

  • Page 32: Frequency Controller

    3.4.4 Frequency Controller Parameter 43 f controller: initial frequency 0-100 % Initial state Analog controller output setting with disabled controller. This value is used as an initial Frequency 000% state value when changing from a real power controller to a frequency controller. Package P01 only Parameter 44 f controller: activation...
  • Page 33 Three-position controller (standard; Package P01: setting 'THREESTEP') Parameter 49 f controller: insensitivity 0.02-1.00 Hz Freq.controller Isolated operation The generator set point frequency is controlled in such a manner that, deadband 0.00Hz in its adjusted state, the current value deviates from the generator set point frequency by this configured insensitivity at most.
  • Page 34 Parameter 53 f controller: PWM level 3.0-10.0 V Level PWM If PWM has been selected in Parameter 52 the level of the PWM signal can be adjusted ------------------------ here. Package P01 only Parameter 54 f controller: minimum value 0-100% Stepper sign.frq This parameter permits the operator to clamp or limit the lower analog output value.

  • Page 35: Voltage Controller

    3.4.5 Voltage Controller Parameter 59 V controller: initial state 0-100 % Starting point Analog controller output setting with disabled controller. This value is used as an initial voltage 000% value (e.g. when changing from a power factor controller to a voltage controller). Package P01 only Parameter 60 V controller: activation...
  • Page 36 Three-position controller (standard; Package P01: setting 'THREESTEP') Parameter 64 V controller: insensitivity 00,1-15,0 % Volt.controller ! This value refers to the parameter "rated voltage in system" (Parameter 19). dead band 00.0% Isolated operation The generator setpoint voltage is controlled in such a manner that, in its adjusted state, the current value deviates from the generator setpoint voltage by this configured insensitivity at most.

  • Page 37: Power Factor Cos Φ Controller

    Parameter 68 V controller: minimum value 0-100% Stepper sign.vol This parameter permits the operator to clamp or limit the lower analog output value. (min.) 000% Package P01 only Example: A 1 to 4V analog output is needed for the voltage controller to operate prop- erly.
  • Page 38 cos ϕ ϕ ϕ ϕ controller: set point Parameter 74 i0.70 to 1.00 to c0.70 Pow.fact.contr. The desired power factor may be configured here so that the reactive power is regulated setpoint 0.00 in the system. The designations "i" and "c" stand for inductive/lagging (generator overex- cited) and capacitive/leading (generator underexcited) reactive power.

  • Page 39: Real Power Controller

    3.4.7 Real Power Controller Parameter 80 P controller: activation ON/OFF Power controller ON....In mains parallel operation the real power is automatically adjusted to the pre-selected set point (Parameter 41 or Parameter 42) when the real power controller is configured ON. The subsequent screens of this function are displayed.
  • Page 40 External set point value (Package P01) The generator real power set point value may be monitored via an analog input T{x} [x = 1 to 7] if one of the analog in- puts T{x} [x = 1 to 7] is utilized as a 0/4 to 20 mA input. The selection of the analog input is done using the following parameters.
  • Page 41 Parameter 85 P set point value: range 0-20/4-20 mA Analog input The analog input of the real power controller can be switched here between 0-20 mA 0-00mA and 4-20 mA depending on the set point source. Package P01 only 0-20 mA ..Minimum value of the set point at 0 mA; maximum value at 20 mA. 4-20 mA ..
  • Page 42 Analog controller (Package P01: setting 'ANALOG') Parameter 91 P controller: P gain 1-240 Power controller The proportional coefficient specifies the gain. By increasing the gain, the response is in- gain Kpr creased to permit larger corrections to the variable to be controlled. The farther out of tol- Package P01 only erance the process is the larger the response action is to return the process to the tolerance band.

  • Page 43: Load And/Or Var Sharing

    3.4.8 Load And/Or Var Sharing Control ensures that under every operating condition (mains parallel operation, isolated operation in parallel with other gensets, or reverse synchronization of the busbar to the mains) the real power (in reference to the relevant rated load) is evenly shared between the generators operating in parallel to the busbar.

  • Page 44: Figure 3-4: Can Bus Load/Var Sharing, Wiring Diagram

    Wiring diagram Termination Termination resistor resistor Note: The termination has to be performed with a resisitance, which corresponds to the impedance of the used cable (e.g 120 Ohms) CAN bus CAN bus CAN bus Figure 3-4: CAN bus load/var sharing, wiring diagram Diagram of load/var sharing via the CAN bus: The parameter "Active load sharing factor"...
  • Page 45 Parameter 96 kW/kvar sharing: load sharing ON/OFF Active power ON....Real power is shared between multiple generators operating in parallel. load-share The generator outputs are distributed depending on the configured value. The subsequent screens of this function are displayed. OFF ..... No real power sharing is carried out, and the subsequent screens of this function are not displayed.

  • Page 46: Automatic

    Automatic Parameter 100 Configuration of automatic YES/NO Configure Various groups of parameters are grouped together in blocks to allow to navigate through automatic the large number of configuration screens more rapidly. Selecting "YES" or "NO" has no effect on whether or not control or monitoring etc., is carried out. The input merely has the following effects: YES ....
  • Page 47 Single generator in mains parallel operation The load-dependent start/stop function is activated when all of the following conditions have been met: • the operation mode AUTOMATIC has been selected • interchange power control (import/export power) has been activated by one of the two discrete inputs ("Automatic 1" or "Automatic 2") ("...
  • Page 48 Mains parallel operation (mains interchange (import/export) real power control with one generator) General Case 1: Start of the engine If [P > P ] the engine starts. NT.Setpoint NT.actual start Case 2: Stop of the engine If [P < P ] the engine stops.
  • Page 49 Load sharing with other generators in mains parallel operation The load-dependent start/stop function is activated for every control when the following criteria has been met: • the operation mode AUTOMATIC has been selected • interchange power control (import/export power) has been activated by one of the two discrete inputs ("Automatic 1" or "Automatic 2") ("...
  • Page 50 Mains parallel operation(mains interchange (import/export) real power control with several generators) General Case 3: Start of the first engine T All GCBs are open. If [P > P ] the first engine is started. NT.setpoint NT.actual start Case 4: Starting of additional engines At least one GCB in the group is closed.
  • Page 51 Case 4: Generator real power of each individual generator, at which the third engine is started: > P - (P / No. GCB) - P GN.actual rated.tot reserve.parallel rated > 400 kW – (40 kW / 2) - 200 kW = 180 kW. GN.actual.
  • Page 52 Isolated operation in parallel with other generators The load-dependent start/stop function is activated for every control when the following criteria has been met: • the operation mode AUTOMATIC has been selected • all parameters, such as start power (Parameter 103), stop power (Parameter 106), start delay (Parameter 104), stop delay (Parameter 105) and the frequency set point values (Parameter 10) are identical for all controls involved •...

  • Page 53: Stop Of The Engine At Mains Failure [Pcm1-G]

    General Case 7: Start of the engine If [P + > P ] the engine is started. GN.actual.tot reserve.isolated rated.tot Case 8: Stop of the engine If [P + < P ] the engine is stopped. GN.actual.tot reserve.isolated hyst rated rated.tot Example Two generators are used in an isolated operation are used in parallel with other generators.

  • Page 54: Interface

    3.5.3 Interface NOTE For remote acknowledgement of alarms, a remote stop while in idle mode must be performed. If the control is in an iso- lated operation, an acknowledgement combined with a remote start must be performed. Parameter 113 Control via interface COM X1-X5 ON/OFF Control via ON ....

  • Page 55: Breaker

    Breaker Parameter 116 Configuration of the breakers YES/NO Configure Parameters are grouped together in blocks to permit quicker navigation through the large breaker number of configuration screens. Selecting "YES" or "NO" has no effect if controlling or monitoring is performed. This parameter has the following effects: YES....
  • Page 56 Synchronization Synchronization of the GCB The GCB will be synchronized with frequency and voltage correction if the following conditions are met simultaneously. Automatic mode • The operation mode AUTOMATIC is selected • One of the circuit breaker logics (Parameter 117) "PARALLEL" (mains parallel operation), "INTERCHANGE" (mains in- terchange (import/export) real power control) or "CLOSED TRANSIT."...
  • Page 57 Synchronization of the MCB [PCM1-M] The MCB will be synchronized with frequency and voltage correction if the following conditions are met simultaneously: Automatic mode • The operation mode AUTOMATIC has been selected • One of the circuit breaker logics (Parameter 117) "PARALLEL" (mains parallel operation), "INTERCHANGE" (mains in- terchange (import/export) real power control) or "CLOSED TRANSIT."...

  • Page 58: Table 3-5: Limit Values Generator, Dead Bus Start

    Dead bus start Dead bus start of the GCB The GCB will be closed without synchronization if the following conditions are met simultaneously: Automatic mode • The operation mode AUTOMATIC has been selected • No class F2 or F3 alarms are present •...

  • Page 59: Table 3-6: Limit Values Mains, Dead Bus Start

    Dead bus start of the MCB [PCM1-M] The MCB will close without synchronization if the following conditions are met simultaneously: Automatic mode • The operation mode AUTOMATIC has been selected • The Parameter 135 "MCB dead bus start" has been configured to "ON" •...
  • Page 60 Open Breaker Open GCB The GCB will be opened both when the relay "Command: GCB close" de-energizes (only if "continuous pulse" has been configured; Parameter 121), and relay "Command: GCB open" is energized. The GCB will be opened under the follow- ing circumstances: •...

  • Page 61: Breaker Logic

    3.6.2 Breaker Logic NOTE Using the discrete input "Change breaker logic via terminal 64" (Parameter 219), the breaker logic may be switched between two different breaker logics (description on page 94). The desired standard breaker logic is configured via the following parameter (Parameter 117). If Parameter 218 is configured to "ON", the discrete input terminal 64 is used as a Control input.
  • Page 62 Breaker Logic "PARALLEL" Parallel operation is enabled via configuration of the parameter (Parameter 117) to "PARALLEL". NOTE operation mode Parallel breaker logic must be selected for the following • Isolated operation • Isolated operation in parallel with other generators • Mains parallel operation In the event of an add-on request the following occurs: •...
  • Page 63 Breaker Logic "INTERCHANGE" [PCM1-M] Mains interchange (import/export) real power control is enabled via configuration of the parameter (Parameter 117) to "INTERCHANGE". NOTE For this breaker logic to function correctly, the mains power measurement must be connected properly. The power measurement must also be assigned the properly process identifier (C, I, or E). In the event of an add-on request, a change is made from mains to generator supply.
  • Page 64 Overview PCM1-M STOP TEST MANUAL AUTOMATIC EXTERNAL: Breaker logic "External" The MCB and the GCB are operated in MANUAL operation mode only in this breaker logic mode. In a mains parallel operation, uncoupling from the mains is carried out via the MCB or the GCB in the event of a mains failure. The breakers will not automatically close in emergency power operation.
  • Page 65 STOP TEST MANUAL AUTOMATIC CLOSED TRANSIT.: Breaker logic "Closed transition / make-before-brake / overlap synchronization" The MCB and the GCB are synchronized, in order to avoid a dead busbar in this breaker logic mode. Immediately after the synchronization of one breaker, the other is opened. Continuous mains parallel operation is not possible. The GCB is ope- The GCB and the MCB are not Synchronization of either the...

  • Page 66: Start/Stop Ramp, Open Gcb With F2 Alarm

    Overview PCM1-G STOP TEST MANUAL AUTOMATIC EXTERNAL: Breaker logic "External" The GCB is never synchronized in this operation mode. Decoupling from the mains when in a mains parallel operation is carried out via the GCB in the event of mains faults. The breaker will not automatically close in emergency power opera- tions.

  • Page 67: Gcb Pulse/Continuous Pulse

    3.6.4 GCB Pulse/Continuous Pulse Closing and opening of the GCB and the MCB are described in the following figures (Figure 3-6 and Figure 3-7). Chang- ing of the breaker control logic is configured using parameter (Parameter 120) and has the described effect on the signal sequence (the operation of the MCB cannot be carried out by means of the continuous pulse).

  • Page 68: Open/Close Gcb

    • Beaker logic: 'Continuous' 'Command: close GCB' (14/15) Time/s 'Command: close GCB' (14/15) Time/s Figure 3-7: Breaker control logic 'Continuous' 'Continuous' logic (GCB only): 1 Enable; 2 Synchronization; 3 Connect time reached: • close GCB: 4 GCB close continuous pulse enabled; 5 Inherent delay; 6 Reply GCB; •...

  • Page 69: Synchronization (With Synchronous Generators Only)

    3.6.6 Synchronization (With Synchronous Generators Only) Parameter 122 Max. perm. differential frequency for synchronization (pos. slip) Synchronize 0.02 to 0.49 Hz df max 0.00Hz The prerequisite for a connect command being issued is that the differential frequency is below the configured differential frequency. This value specifies the upper frequency (posi- tive value corresponds to positive slip "...

  • Page 70: Synchronization Time Monitoring (With Synchronous Generators Only)

    3.6.7 Synchronization Time Monitoring (With Synchronous Generators Only) If the following parameter (Parameter 129) is configured to "ON", synchronization time monitoring is performed: If the syn- chronization of the GCB or [PCM1-M] MCB is initiated, the timer is started following the termination of the delayed en- gine monitoring.

  • Page 71: Dead Bus Start (With Synchronous Generators Only)

    3.6.8 Dead Bus Start (With Synchronous Generators Only) If the busbar is de-energized, a dead bus start of the GCB or the MCB is performed. If closing commands for the MCB and the GCB are issued simultaneously, priority is given to the MCB provided the discrete input "Enable MCB" (termi- nal 54) has been enabled.

  • Page 72: Connection Functions (With Induction/Asynchronous Generators Only)

    3.6.9 Connection Functions (With Induction/Asynchronous Generators Only) Parameter 136 Connection of the GCB ON/OFF Switching-on GCB ON ....Generator frequency control is performed with the set point of the mains frequency. The GCB is closed after meeting all connection criteria listed below.

  • Page 73: Breaker Monitoring

    3.6.11 Breaker Monitoring Upon CLOSING - If "GCB monitoring" (Parameter 143) and/or "MCB monitoring" (Parameter 144) have been configured "ON", GCB and/or MCB monitoring is performed (exception: the breaker logic is configured "EXTERNAL" (Para- meter 117). If the breaker cannot be closed after five attempts, a class F1 alarm is issued. If a relay has been assigned re- lay manager functions 74 or 75, it will be energized.

  • Page 74: Mains Decoupling

    3.6.12 Mains Decoupling NOTE If the mains monitoring (frequency and voltage) is disabled, no mains decoupling is performed. Parameter 145 Decoupling from the mains via ... GCB; GCB->EXT; EXT; EXT->GCB Mains decoupling GCB ..... If a mains failure (Parameter 192 to Parameter 205) occurs the GCB will ------ be opened.
  • Page 75 NOTE If the mains monitoring (frequency and voltage) is disabled, no mains decoupling is performed. Parameter 146 Decoupling from the mains via ... GCB; GCB->MCB; MCB; MCB->GCB Mains decoupling GCB .... If a mains failure (Parameter 192 to Parameter 205) occurs the GCB will ------ be opened.

  • Page 76: Emergency Power (Amf)

    Emergency Power (AMF) Parameter 149 Configuration of the emergency power (AMF) YES/NO Configure Parameters are grouped together in blocks to permit quicker navigation through the large emergency number of configuration screens. Selecting "YES" or "NO" has no effect if controlling or monitoring is performed.

  • Page 77: Emergency Power With Breaker Logic "Parallel

    3.7.1 Emergency Power With Breaker Logic "PARALLEL" Emergency power: Following a mains fault the "emergency power start delay" (Parameter 151) must expire before the engine is started. Once the voltage and frequency limit values are reached, the MCB is opened and the GCB is closed to the dead busbar.

  • Page 78: Emergency Power With Breaker Logic "External

    3.7.5 Emergency Power With Breaker Logic "EXTERNAL" ATTENTION This breaker logic will not permit emergency power in accordance with DIN VDE 0108! Emergency power: Following a mains fault the "emergency power start delay" (Parameter 151) must expire before the engine is started. Once the voltage and frequency limit values are reached, the MCB is opened and the GCB is closed to the dead busbar.

  • Page 79: Generator Power Monitoring

    3.8.1 Generator Power Monitoring It is possible to monitor two independently configurable generator power limit values. It is possible to output the tripping to one of these freely configurable relays by means of the relay manager (relay manager function 56 and 80). This function makes it possible to initiate external load shedding.

  • Page 80: Mains Power Monitoring

    3.8.2 Mains Power Monitoring It is possible to monitor two independently configurable generator power limit values. It is possible to output the tripping to one of the freely configurable relays by means of the relay manager (relay manager function 67). This function makes it possible to initiate external load shedding.

  • Page 81: Generator Overload Monitoring

    3.8.3 Generator Overload Monitoring NOTE All percentage values refer to a percentage of the generator rated power (Parameter 23; page 23). Function: "Positive real power not within the permissible range" - The single-phase or three-phase measured generator real power is above the configured limit value of the real power. Parameter 164 Generator overload monitoring ON/OFF...

  • Page 82: Generator Reverse/Reduced Power Monitoring

    3.8.4 Generator Reverse/Reduced Power Monitoring NOTE All percentage values refer to a percentage of the generator rated power (Parameter 23; page 23). Function: "Real power not within the permissible range" - The real power measured in a single-phase or in a three-phase system is below the configured limit value for the minimum load or below the configured value for reverse power.

  • Page 83: Load Imbalance Monitoring

    3.8.5 Load Imbalance Monitoring NOTE All percentage values refer to a percentage of the generator rated power (Parameter 24; page 23). Function: "Generator load imbalance not within the permissible range" - The percentage threshold value specifies the per- missible deviation of one phase current to the arithmetic mean value of all three phase currents. Parameter 172 Load imbalance monitoring ON/OFF...

  • Page 84: Time-Overcurrent Monitoring

    3.8.6 Time-Overcurrent Monitoring NOTE All percentage values refer to a percentage of the generator rated power (Parameter 24; page 23). Function: The PCM1 utilizes a two tier time-overcurrent monitoring with separate adjustable time delays. The threshold val- ues and delays can be selected so that the monitored current level is independent from the tripping time. The level 2 over- current is used as a fast-triggering high-current stage for protection against short circuits.

  • Page 85: Generator Frequency Monitoring

    3.8.7 Generator Frequency Monitoring Function: "Generator frequency not within the permissible range" - The generator frequency is outside of the limit values set for overfrequency or underfrequency. The engine is shut down immediately (class F3 alarm), and an alarm message is dis- played.

  • Page 86: Generator Voltage Monitoring

    3.8.9 Generator Voltage Monitoring The line-to-line (wye) voltage is monitored. Function: "Generator voltage not within the permissible range" - If one or more phases of the generator voltage exceeds the limit values set for overvoltage or undervoltage, the engine is shut down immediately (class F3 alarm) and an alarm message is displayed.

  • Page 87: Mains Frequency Monitoring

    3.8.10 Mains Frequency Monitoring Monitoring the mains frequency is absolutely vital if a generator is operated in conjunction with the infinite grid. In the event of mains failure (e.g. utility power outage) the generator that is operating in parallel with the utility must be automati- cally disconnected from the mains.

  • Page 88: Mains Voltage Monitoring

    3.8.11 Mains Voltage Monitoring Monitoring the mains voltage is absolutely vital if a generator is operated in conjunction with the infinite grid. In the event of mains failure (e.g. utility power outage) the generator that is operating in parallel with the utility must be automatically disconnected from the mains.

  • Page 89: Phase/Vector Shift Monitoring Dϕ/Dt

    Phase/Vector Shift Monitoring d ϕ ϕ ϕ ϕ /dt 3.8.12 A phase/vector shift is a sudden change in the voltage curve that is caused by a large generator load change. The meas- uring circuit detects a change in a single sine wave. This sine wave is compared with a calculated mean value from pre- vious measurements.

  • Page 90: Mains Settling Time

    3.8.13 Mains Settling Time Parameter 206 Mains settling time 0 to 999 s Mains settling It is possible to delay the synchronization of the generator to the mains for the period of time 000s time configured here. This will permit the user to ensure that the mains voltage is stable while the generator continues to operate in an isolated (parallel) mode or idle offline.

  • Page 91: Discrete Inputs

    Discrete Inputs Parameter 210 Configuration of discrete inputs YES/NO Configure Parameters are grouped together in blocks to permit quicker navigation through the large dig.inputs number of configuration screens. Selecting "YES" or "NO" has no effect if controlling or monitoring is performed. This parameter has the following effects: YES....
  • Page 92 Parameter 212 Delay time of the discrete alarm inputs 1-4 Dig.input 1234 A delay time in stages can be assigned to each alarm input. The individual stages are delay 0000 listed below. The discrete input must be present without interruption throughout the delay time in order to be "enabled".

  • Page 93: Configuring The Text For The Discrete Inputs

    3.9.2 Configuring The Text For The Discrete Inputs NOTE If terminal 6 is configured to "Sprinkler operation" (override or critical mode; Parameter 223) or if a gas engine is se- lected (Parameter 267), the EMERGENCY STOP function must always be assigned to terminal 34. If terminal 34 is not a discrete input, the EMERGENCY STOP function is assigned to the discrete input with the lowest terminal number (this discrete input is then normally the input with terminal number 61).

  • Page 94: Table 3-10: Function - External Operation Mode Selection

    Block operation mode selector switch via terminal 63 Parameter 217 Disabling the change of the mode using terminal 63 ON/OFF Op.mode blocked OFF ....This terminal is used as an alarm input. by Ter.63 ON ....Terminal 63 is used as control input. If terminal 63 is energized, the operation mode cannot be changed using the pushbuttons on the face of the control unit.
  • Page 95 Enable 'Close GCB without engine delay' via terminal 67 Parameter 220 Close GCB before the del. engine monit. expires via terminal 67ON/OFF Close GCB asap OFF ..... This terminal is used as an alarm input. by Ter.67 ON....This terminal is used as control input. •...

  • Page 96: Terminal 6

    3.9.4 Terminal 6 ATTENTION The various functions of terminal 6 are enabled at different signal levels! Parameter 223 Function of terminal 6 Function term.6 This parameter is used to assign a function to the terminal 6 discrete input. The following ------------------------ functions may be selected for the discrete input: •...
  • Page 97 Starting without closing GCB Parameter 224 Perform engine cool down if starting without CB has been selected Start withno GCB ON/OFF cool down ON....After removing the start request, an engine cool down is performed for the Only if terminal 6 has been con- time configured in Parameter 283.

  • Page 98: Figure 3-11: Sprinkler Operation

    NOTE If "Sprinkler operation" (terminal 6) has been activated, class F2 and F3 alarms are converted to class F1 alarms (ex- ception: terminal 34 or 61 and overspeed). Class F2 and class F3 alarms ! Class F1 alarm "Sprinkler shutdown F1 active": Parameter 225 permits the user to select whether the Sprinkler alarm classes are active during the Sprinkler coasting or if the primary alarm class will be active after the Sprinkler (critical mode) request (termi- nal 6) has terminated.

  • Page 99: Analog Inputs (Package P01)

    3.10 Analog Inputs (Package P01) Parameter 226 Configuration of analog inputs YES/NO Configure Parameters are grouped together in blocks to permit quicker navigation through the large analg.inp. number of configuration screens. Selecting "YES" or "NO" has no effect if controlling or monitoring is performed.
  • Page 100 Scaleable analog input 0/4-20 mA (analog input [T1]-[T3]) NOTE The scalable analog inputs 0/4 to 20 mA can be configured alternatively for the following functions: • Mains interchange (import/export) real power actual value, or • real power set point value. If one of the both functions is assigned to an available 0/4 to 20 mA input T{x} (see Parameter 25 and Para- meter 84), the corresponding analog input T{x} must be configured to OFF.
  • Page 101 Parameter 229 0/4 to 20 mA input; measuring range 0 to 20 mA / 4 to 20mA Analog input x The measuring range 0 to 20 mA or 4 to 20 mA is selected via this parameter. If 4 to 0-00mA 20 mA is configured and a current of less than 2 mA is measured, the controller assumes [x = 1 to 3]...
  • Page 102 Pt100 Input (Analog Input [T4]-[T5]) Pt100 inputs may be measured here. The analog input is displayed with its description. Two threshold limits can be moni- tored. The first level initiates a class F1 alarm, the second level initiates a class F3 alarm. Parameter 236 Pt100 input;...
  • Page 103 VDO Input 'Pressure' (Analog Input [T6]) NOTE The default threshold values are configured in "bar". If the unit "psi" is configured (Parameter 157) the display of the measured values as well as the transmission via the interface appears in "psi". VDO inputs for pressure may be measured here.

  • Page 104: Figure 3-12: Vdo Transmitter 323.805/001/001 (Slope)

    Parameter 247 VDO input, pressure; delay time for limit values of class Delay F1 and F3 alarm 0 to 650 s limit 1/2 000s In order to initiate an alarm, the measured value must be over or under (dependent upon Parameter 248) the threshold value (Parameter 245 or Parameter 247) without interruption for at least this time.
  • Page 105 Parameter 251 VDO input, temperature; limit value for class F1 alarm 40 to 120 °C Limit warning If the measured value exceeds or falls below this configured threshold value (dependent value 000°C upon Parameter 254) for at least the delay time (Parameter 253), the following alarm class is issued.
  • Page 106 Engine Delayed Monitoring Of The Analog Inputs Parameter 256 Analog inputs; engine delayed monitoring Ana.in 12345678 The analog inputs may be disabled until the engine has reached rated speed ("firing SV.del. NNNNNJNN speed reached"). This parameter specifies which analog inputs are to be constantly en- abled and temporarily disabled by configuring a "Y"...

  • Page 107: Outputs

    3.11 Outputs Parameter 258 Configuration of the outputs YES/NO Configure Parameters are grouped together in blocks to permit quicker navigation through the large outputs number of configuration screens. Selecting "YES" or "NO" has no effect if controlling or monitoring is performed. This parameter has the following effects: YES....

  • Page 108: Relay Manager

    3.11.2 Relay Manager The relay manager enables the assignment of an arbitrary combination of functions to each relay. In order to achieve this, each function of the control has its own number. A text, which describes a logical condition that energizes the relay, must now be entered in the configuration menu for each relay.

  • Page 109: Engine

    3.12 Engine Parameter 264 Configuration of the engine YES/NO Configure Parameters are grouped together in blocks to permit quicker navigation through the large engine number of configuration screens. Selecting "YES" or "NO" has no effect if controlling or monitoring is performed. This parameter has the following effects: YES....

  • Page 110: Start/Stop Sequence 'Gas Engine

    3.12.1 Start/Stop Sequence 'Gas Engine' NOTE The configured number of start attempts (Parameter 271) will be performed. without Pickup active: < 15 Hz Time jump 1500 1/min min. speed starter is not reached Start frequency f-contr. + time ZD (1) min.

  • Page 111: Figure 3-14: Wiring Diagram For Opening Gas Valves With The Pcm From V4.1001

    Starting Sequence If the control is equipped with a three-position frequency controller, a continuous signal (time adjustable via Para- meter 275) is output prior to starting the engine at the "Frequency lower" relay output. The starter is then enabled. Follow- ing the expiration of the ignition delay time (Parameter 269) and if the engine is rotating with at least the configured "minimum speed for ignit."...
  • Page 112 Parameter Parameter 268 Gas engine; minimum start speed 0 to 999 rpm Min.speed for ! The minimum starter speed can only be detected using an enabled magnetic pick- ignit. 000 rpm up (Parameter 280). This screen is only visible if the parameter "Pickup"...

  • Page 113: Start/Stop Sequence 'Diesel Engine

    3.12.2 Start/Stop Sequence 'Diesel Engine' NOTE The configured number of start attempts (Parameter 277) will be performed. 1500 1/min Start frequency f-contr. + time Speed governor Approach idle gas position Engine monitoring activated Start request Start relay Pre-glow 0,5 s 0,5 s Starter Delayed engine...
  • Page 114 Starting Sequence If the control is equipped with a three-position frequency controller, a continuous signal (time adjustable via Para- meter 281) is output prior to starting the engine at the "Frequency lower" relay output. Following the expiration of this time, the "Pre-glow"...

  • Page 115: Cool Down

    Parameter 281 Diesel engine; approach idle gas position (time) 0 to 999 s time f lower The duration that the "lower engine speed" signal (see Parameter 280) is output. bef.start 000s with three- step controllers only Parameter 282 Diesel engine; fuel solenoid logic open to stop / close to stop Fuel relay logic open to stop..

  • Page 116: Delayed Engine Monitoring And Firing Speed

    3.12.4 Delayed Engine Monitoring And Firing Speed Figure 3-16: Delayed engine monitoring Parameter 284 Engine; delayed engine monitoring 1 to 99 s Delayed engine Delay between reaching the firing speed and monitoring of selected alarms (e.g. oil pres- monitoring sure, generator underfrequency, etc.). Parameter 285 Engine;...

  • Page 117: Pick-Up

    3.12.5 Pick-Up Measuring the engine speed can be performed alternatively by means of a Magnetic Pickup, the generator frequency, or a tacho generator. Parameter 286 Pickup; Pickup measurement ON/OFF Pickup input ON....Engine speed monitoring is performed by means of a Magnetic Pickup. Once firing speed has been achieved, the starter disengagement is initi- ated by the MPU measurements.

  • Page 118: Maintenance Call

    3.13.1 Maintenance Call Parameter 290 Counter; maintenance call 0 to 9,999 h Service interval A maintenance interval can be specified with this parameter. After the engine has been in 0000h operation for the number of hours configured here, a maintenance message (class F1 alarm) is displayed.

  • Page 119: Start Counter

    3.13.3 Start Counter Parameter 292 Counter; number of engine starts 0 to 32,000 Set start The start counter is used to display how many times the engine has been started. Follow- counter 00000 ing each starting attempt the start counter is increased by one. This permits the user to dis- play the correct number of starts if this controller is used on an older engine, a starter is replaced, or this controller is to replace an older controller.

  • Page 120: Real Time Clock (Package P01)

    3.13.5 Real Time Clock (Package P01) NOTE If several PCM control units are on one common CAN bus all clocks are synchronized daily at 12:00 o'clock (noon) to the time of the control with the lowest control/generator number. This makes it essential that each control unit has a different control number.

  • Page 121: Current Slave Pointer

    3.13.6 Current Slave Pointer A current slave pointer, which records and stores the maximum generator current, is implemented in the control. The dis- play of the maximum generator current can be selected in the Automatic mode by pressing the "Message" push-button. The following screen appears in the display: Parameter 298 Current slave pointer;...

  • Page 122: Commissioning

    Commissioning DANGER - HIGH VOLTAGE When commissioning the control, please observe all safety rules that apply to the handling of live equipment. Ensure that you know how to provide first aid in the event of an uncontrolled release of energy and that you know where the first aid kit and the nearest telephone are.
  • Page 123 If the mains parallel operation performs in a satisfactory manner, the synchronization of the mains power circuit breaker (MCB) must be checked: A power failure in the system must be simulated or observed by the controller. During a mains parallel operation, change the operation mode from AUTOMATIC to MANUAL.

  • Page 124: Analog Output Manager (Package P01)

    Analog output manager (Package P01) NOTE The functions listed below can only be output correctly if the existing version of the control permits this. Func- Output Value Input of the two limit values tion The analog output is disabled. Actual generator real power [dimensionless] Lower power limit (can also be –...
  • Page 125 Func- Output Value Input of the two limit values tion Analog input [T1] [°C] or (Package P01) [°F] or freely scaleable Analog input [T2] [°C] or (Package P01) [°F] or freely scaleable Analog input [T3] [°C] or (Package P01) [°F] or freely scaleable Lower measured value e.

  • Page 126: Figure 4-1: Analog Outputs - Cosϕ Scaling

    The designation 0 % stands for either 4 mA or 0 mA; the designation 100 % stands for 20 mA. The values may also be assigned with prefixes (see relay manager function 1). Definition of power factor cos ϕ ϕ ϕ ϕ scaling: According to the scaling of the analog output, the power factor cos ϕ can be output within the range from capacitive values ranging from c0.00 via power factor ϕ...

  • Page 127: Relay Manager

    Relay Manager Output Explanation Alarm class 1 Alarm class 2 Alarm class 3 Firing speed reached (engine runs) Mains failure; undelayed The function reacts according to the status of the breakers. The condi- tions described in chapter "Emer- gency power" apply. Battery undervoltage Operation mode AUTOMATIC Operation mode MANUAL...
  • Page 128 Output Explanation Discrete input [D16] Auxiliary services i.e. prelube/cooling pumps --Internal-- Centralized alarm (class F1, F2, or F3 alarm; enabled until acknowl- edgement) TEST or AUTOMATIC operation mode selected Generator power watchdog, level 1 MCB is closed GCB is closed --Internal-- Mains parallel operation is desired: disable interlock of GCB <>...
  • Page 129 Output Explanation Left mains rotating field Engine enable Set engine enable As long as there is a start request for the engine and during cool down (as long as the operation of the engine is enabled, i.e. opera- tion mode AUTOMATIC and dis- crete input 3/5, emergency power, start via interface, manual start, etc.).
  • Page 130 Output Explanation --Internal-- --Internal-- --Internal-- Three-position controller: n+ / f+ / P+ Three-position controller: n- / f- / P- (use an external RC protection cir- Three-position controller: V+ / Q+ cuit) Three-position controller: V- / Q- --Internal-- Wire break Analog input [T1] Wire break Analog input [T2] Wire break Analog input [T3] Wire break Analog input [T4]...

  • Page 131: Interface Protocol

    Interface Protocol Transmission Telegram Contents (words) Unit Note UGNEXPO Generator voltage delta V V × 10 Generator frequency f Hz × 100 PGNEXPO Actual generator real power P W × 10 Exponents High Byte: PGNEXPO Generator power Low Byte: UGNEXPO Generator voltage Real power set point value PGNWD PGNEXPO...
  • Page 132 Contents (words) Unit Note Actual mains interchange (import/export) PNTEXPO W × 10 real power Control register 1 Bit 15 = 1 \ Starting enabled (in isolated operation Bit 14 = 1 / or mains parallel operation) Bit 13 = 1 \ --Internal-- Bit 12 = 1 / Bit 11 = 1 \...
  • Page 133 Contents (words) Unit Note 20 Configuration [T1]-[T4] Display in ... °C °F bar/1 psi/1 no unit Analog input [T4] Bit 15 = Bit 14 = Bit 13 = Bit 12 = Analog input [T3] Bit 11 = Bit 10 = Bit 9 Bit 8 Analog input [T2]...
  • Page 134 Contents (words) Unit Note 10/3 33 Configuration [T5]-[T8] Display in ... °C °F bar/1 psi/1 no unit Analog input [T8] Bit 15 = Bit 14 = Bit 13 = Bit 12 = Analog input [T7] Bit 11 = Bit 10 = Bit 9 Bit 8 Analog input [T6]...
  • Page 135 Contents (words) Unit Note 16/1 49 Operation mode Bit 15 = 1 LOAD TEST operation mode Bit 14 = 1 STOP operation mode Bit 13 = 1 TEST operation mode Bit 12 = 1 MANUAL operation mode Bit 11 = 1 AUTOMATIC operation mode Bit 10 = 1 --Internal--...
  • Page 136 Contents (words) Unit Note 18/1 55 Internal alarm 3 Bit 15 = 1 \ F3: Time-overcurrent, level 2 or Bit 14 = 1 / inverse time-overcurrent, IEC255 Bit 13 = 1 \ F3: Generator overspeed (Pickup) Bit 12 = 1 / Bit 11 = 1 \ Import power 0 kW not reached Bit 10 = 1 /...
  • Page 137 Contents (words) Unit Note 19/1 58 External alarm 1 Bit 15 = 1 \ Discrete input [D01] Bit 14 = 1 / Bit 13 = 1 \ Discrete input [D02] Bit 12 = 1 / Bit 11 = 1 \ Discrete input [D03] Bit 10 = 1 / Bit 9...
  • Page 138 Contents (words) Unit Note 22/2 68 Alarm messages IKD2 (SC06) Bit 15 = 1 Failure DI8 of the IKD2 Bit 14 = 1 Failure DI7 of the IKD2 Bit 13 = 1 Failure DI6 of the IKD2 Bit 12 = 1 Failure DI5 of the IKD2 Failure DI4 of the IKD2 Bit 11 = 1...
  • Page 139 Meaning of the number 69 of the telegram " Currently active display message": Number Meaning GCB synchronization MCB synchronization GCB dead bus start MCB dead bus start Crank Start pause Cool down 000s (000s: the remaining time is displayed) Engine stop! Preglow Purging operation Initial state...

  • Page 140: Receiving Telegram

    Receiving Telegram The CAN protocol for remote control of the PCM is available upon request. Woodward however recommends the use of a PCK 4. The following three data words can be received by the PCM. Refer to the PCK 4 manual on how to control sev- eral PCM control units.

  • Page 141: Framework Conditions To The Can Bus

    Framework Conditions To The CAN Bus 4.6.1 Transmission Telegram The data of the following table can be handled by a Gateway PCK4 or a PLC and can be transferred to other busses. A PCM is sending the data via circular CAN messages. The transmitting rate of this communication is 125 kBaud.

  • Page 142: Coding Of The Power Setpoint Value

    4.6.3 Coding Of The Power Setpoint Value The following power values may be pre-specified: constant/baseload power (C power), outgoing/export power (E power) and incoming/import power (I power). The real power set point value is transmitted in binary form using bits 0-13. The control argument must be transmitted in the basis of bits 14 and 15.

  • Page 143: List Of Parameters

    List of Parameters Unit number P/N _________________________________ Rev ___________________________________ Version PCM _________________________________________________________________________ Project _____________________________________________________________________________ Serial number S/N _________________ Date _________________________________ Parameter Setting range Default value Customer setting Software version V x.xxxx Enter code 0 to 9.999 XXXX % Y % N % Y % N Direct para.
  • Page 144 Parameter Setting range Default value Customer setting ONTROLLER CONFIGURATION % Y % N % Y % N YES/NO Configure controller Initial state Frequency 0 to 100 % 50 % P-gain 1 to 240 0.2 to 60.0 s 1.0 s Reset time Derivative time 0.00 to 6.00 s 0.00 s...
  • Page 145 Parameter Setting range Default value Customer setting ONTROLLER CONFIGURATION % on % off % on % off ON/OFF Power controller 0 to 100 %/s 20 %/s power controller ramp Power limit P max. 10 to 120 % 100 % Power limit P min.
  • Page 146 Parameter Setting range Default value Customer setting REAKER CONFIGURATION synch 0.02 to 0.49 Hz 0.20 Hz Synchronize df max Synchronize df min 0.0 to 0,49 Hz 0.10 Hz Synchronize dV max 1.0 to 20.0 % 2.0 % 0.02 to 0.26 s 0.24 s Synchronize time pulse>...
  • Page 147 Parameter Setting range Default value Customer setting MONITORING CONFIGURATION % on % off % on % off Rev./red.power monitoring ON/OFF Rev./red.power resp.value -99 to +99 % 10 % 0,0 to 9,9 s 1.0 s Rev./red.power delay % on % off % on % off Load unbalanced ON/OFF 0 to 100 %...
  • Page 148 Parameter Setting range Default value Customer setting ISCRETE INPUTS CONFIGURATION EMERGENCY OFF Errortxt.term.34 Errortxt.term.35 terminal 35 Errortxt.term.36 terminal 36 terminal 61 Errortxt.term.61 Errortxt.term.62 terminal 62 Errortxt.term.63 terminal 63 terminal 64 Errortxt.term.64 terminal 65 Errortxt.term.65 Errortxt.term.66 terminal 66 terminal 67 Errortxt.term.67 Errortxt.term.68 terminal 68 terminal 69...
  • Page 149 Parameter Setting range Default value Customer setting NALOG NPUTS ONFIGURATION % high % high Monitoring for High limit mon. [high] High limit mon. % low % low low limit mon. [low] % on % off % on % off Analog input 3 scalable ON/OFF Name and unit...
  • Page 150 UTPUT ONFIGURATION % Y % N % Y % N Configure outputs YES/NO Analg.out.12O121 Parameter 0 to 22 % OFF % OFF 0 to 20 mA Analg.out.12O121 0-00 mA % 0-20mA % 0-20mA 0 to 20 mA % 4-20 % 4-20 4 to 20 mA 0 to 9,990 Analg.out.12O121...
  • Page 151 HB_PCM1x_Packages_Configuration_09.04_GB...
  • Page 152 Woodward SEG GmbH & Co. KG Krefelder Weg 47 ⋅ D – 47906 Kempen (Germany) Postfach 10 07 55 (P.O.Box) ⋅ D – 47884 Kempen (Germany) Phone: +49 (0) 21 52 145 1 Internet Homepage http://www.woodward-seg.com Documentation http://doc.seg-pp.com Sales Phone: +49 (0) 21 52 145 635 ⋅ Telefax: +49 (0) 21 52 145 354 e-mail: kemp.electronics@woodward.com...

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