MCE TORQMAX F5 Reference Manual

Elevator drive

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TORQMAX F5 ELEVATOR DRIVE

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Page 1 TORQMAX F5 ELEVATOR DRIVE Reference Manual...
Page 2 This instruction manual describes the TORQMAX F5 ELEVATOR DRIVE. Before working with the unit the user must become familiar with it. This especially applies to the knowledge and observance of the following safety and warning indications. The icons used in this instruction manual have the following meaning: ...
Page 3: Table Of Contents
Table of Contents General ............6 Encoder Feedback Interfaces .........51 Incremental TTL Encoder Interface X3A Screw Product Description ..........6 Terminals ...............53 EnDat Encoder Interface X3A ..........55 Summary of Changes ..........7 Sin/Cos Encoder Interface X3A ...........58 SSi Encoder Interface X3A ..........61 Technical Information .........
Page 4 Advanced Ride Adjustments ........104 Replacement Parts ......... 341 Inertia Learn .................104 Internal Pretorque ..............105 Transistor Tests ............342 Closed Loop Analog Pretorque ..........106 Unintended Movement Test ........344 Closed Loop Digital Pretorque ...........107 Brake Release Confirmation Tests .......345 Predictive Synthetic Pretorque ........
Page 5 READ FIRST - SAFETY PRECAUTIONS AC motor controls and servo drives contain dangerous voltages which can  cause death or serious injury. During operation they can have live "ener- Danger to Life gized" un-insulated parts, moving parts, as well as hot surfaces. Care should be taken to ensure correct and safe operation in order to minimize risk to personnel and equipment.
Page 6: General
General 1. General 1.1. Product Description In selecting the TORQMAX F5 series inverter, you have chosen a frequency inverter with the highest quality and dynamic performance. The F5 inverter has the following features: Small mounting footprint Large die IGBTs Power circuit gives low switching losses...
Page 7: Summary Of Changes
Summary of Changes 1.2. Summary of Changes Section 2.2.4.1: Removed the column which refers to the UL 489 MCCB. Section 2.2.4.2: Removed the column which refers to the UL 489 MCCB. Section 2.4: The rated output current has been changed to 224A. The E.OC trip level is 540A.
Page 8 Summary of Changes Section 6.18: The DB (Debug Parameter Group) section has been added with the following to display the execution time of the timer interrupts that are used to execute the software’s primary functions. This group is only vis- ible with Combivis.
Page 9: Technical Information
Technical Information 2. Technical Information 2.1. Mounting Instruction 2.1.1. Classification The elevator drive is classified as an “Open Type” inverter with an IP20 rating and is intended for “use in a pollution degree 2 environment.”  The unit must be mounted inside of a control cabinet offering proper environmental protection.
Page 10: Harsh Environments
Technical Information 2.1.3. Harsh For extended life, prevent dust and other contaminants from getting into the Environments inverter. When installing the unit inside a sealed enclosure, make sure the enclosure is sized correctly for proper heat dissipation or that a cooling system has been installed in the panel.
Page 11: Electrical Connections
Electrical Connections 2.2. Electrical Connections CAUTION - RISK OF ELECTRIC SHOCK! Always disconnect supply 2.2.1. Safety First voltage before servicing the F5 Elevator Drive.  After disconnecting the supply voltage, always wait 5 minutes before attempting to change the wiring. The internal DC BUS capacitors must discharge.
Page 12: Fusing
Electrical Connections Integral solid state short circuit protection does not provide branch circuit 2.2.4. Fusing  protection. Branch circuit protection must be provided in accordance with the Manufacturer Instructions, National Electrical Code (NFPA70 or CSA22.1) and any additional local codes. The minimum voltage rating for protection devices used with 240V inverters shall be 250VAC.
Page 13 Electrical Connections Table 2.2.4.2 - 480V Units SCCR UL 248 Semiconductor Unit Size / [kA] rms Class J Rating [A] Fuse Number* / Rating [A] Housing 13 / E 50 140 06 40 / 40 14 / E 50 140 06 50 / 50 14 / G 50 140 06 80 / 80 15 / E...
Page 14: Line Chokes
Electrical Connections 2.2.5. Line Chokes A line choke with minimum 3% impedance is required for all 230 V  inverters 50hp (size 20) and greater. A line choke with minimum 3% impedance is required for all 480V inverters 100hp (size 23) and greater. Alternately, an isolation transformer installed between the main line and the elevator drive will satisfy the same requirement.
Page 15: Motor Cable Length
Electrical Connections 2.2.7. Motor Cable In some conventional installations and many MRL applications, the motor Length can be a considerable distance (greater then 40 feet) from the elevator drive. Under these circumstances the long cable length can cause high voltage peaks or high dV/dt (rate of voltage rise) on the motor windings.
Page 16: High Voltage Connections
High Voltage Connections 2.2.8. High Voltage Always note inverter voltage. Select appropriate over current protection Connections devices, select disconnect device, and select proper wire size before beginning the wiring process. Wire the drive according to NFPA 70 Class 1 requirements. The correct wire gauge for each size inverter can be selected from the charts in Sections 2.4-2.5.
Page 17: Ground Connections
Ground Connections When working with high frequencies ( > 1kHz ) and power semiconductors 2.2.9. Ground Connections it is recommended to make all ground connections with large exposed metal surfaces to minimize the ground resistance. The metal sub-plate the inverter is mounted on is regarded as the central ground point for the machine or the equipment.
Page 18 High Frequency Shielding Rigid metal conduit can be used as the shield of the motor wires. Always observe the following points: • Remove all paint from the control cabinet and motor housing where the conduit is fastened. • Securely fasten all conduit fittings. •...
Page 19: Storage Of Unit
This causes heat and gas and leads to the destruction of the capacitors. To avoid failures, the Torqmax F5 must be started up according to the fol- lowing specification based on duration of storage period (powered off): Storage Period: <...
Page 20: Dielectric Testing
Dielectric Testing 2.2.12. Dielectric Testing The Torqmax F5 Elevator drive is dielectric tested after assembly as part of the factory end test routine. This dielectric test is harmonized and in accordance with the requirements set forth in UL 508C, CSA C22.2 No.
Page 21: Brake Transistor Monitor
Brake Transistor Monitor 2.3. Brake Transistor Monitor The brake transistor monitor circuit monitors the brake transistor circuit and indicates to the elevator controller that a shutdown of the system is required in the event of a brake transistor failure. Monitor Circuit The brake transistor monitor circuit is part of the braking resistor circuit and monitors the brake transistor to confirm the transistor is switching correctly.
Page 22: Monitor Circuit Wiring Diagrams
Brake Transistor Monitor The DC contactor shall be rated for a minimum of 1000VDC and have a resistive current rating not less than the maximum braking transistor current of the connected F5 elevator drive. The control voltage is typically either 120VAC or 24VDC depending on the coil voltage of the contactors, I/O on the elevator control, and the ratings of the temperature sensor on the resistor.
Page 23 Brake Transistor Monitor Brake Transistor Monitor with Elevator Controller Supervision: Line Contactor Branch Circuit Fuses Line Choke EMI Filter Brake Resistor Line Contactor Elevator Control +PA PT Control Voltage Motor Power Terminal ++ for housings E,G,H +PA for housings R,U,W Out LC In BRT Brake Transistor...
Page 24: Temperature Sensor Wiring Diagrams
Brake Transistor Monitor Brake Transistor Monitor without Elevator Controller Supervision: Line Contactor Branch Circuit Fuses Line Choke EMI Filter Brake Resistor Line Contactor Elevator Control +PA PT Control Voltage Motor Reset Contactor Reset Reset Button Power Terminal ++ for housings E,G,H +PA for housings R,U,W Brake Transistor Watchdog...
Page 25 Brake Transistor Monitor Temperature Sensor Monitor Circuit; Elevator Controller Supervision: Line Contactor Branch Circuit Fuses Line Choke EMI Filter Brake Resistor Line Contactor Elevator Control Control Voltage Motor Power Terminal ++ for housings E,G,H +PA for housings R,U,W Out LC In BRT Temperature Sensor Monitor Circuit;...
Page 26: Model Number Information
Model Number Information 2.4. Model Number Information 0 = Standard Unit (with keypad) 1 = Base Unit (no keypad) Part Number A,C = Peak Unit (with keypad) 17.F5.A5G-RP00 B = Base Peak Unit (no keypad) D = Base Peak Unit with Boosted GTR7 (no keypad) Unit Ident.
Page 27: Technical Data 230V (Size 13 To 23)
Technical data 230V (size 13 to 23)* 2.5. Technical data 230V (size 13 to 23)* Inverter Size Max Motor Power [hp] Housing Size Unit Hardware Input Input Ratings Supply voltage [V] 180...260 +/- 0 (240V Nominal Voltage) Supply voltage frequency [Hz] 50 / 60 +/- 2 Input phases Rated input current [A]...
Page 28 Technical data 230V (size 13 to 23)* Inverter Size Max Motor Power [hp] Housing Size Unit Hardware Input Ratings Supply voltage [V] 180...260 +/- 0 (240V Nominal Voltage) Supply voltage frequency [Hz] 50 / 60 +/- 2 Input phases Rated input current [A] UL minimum wire gauge [awg] UL maximum wire gauge...
Page 29: Technical Data 480V (Size 13 To 28)
Technical data 480V (size 13 to 28)* 2.6. Technical data 480V (size 13 to 28)* Inverter Size Max Motor Power [hp] 18.5 Housing Size Unit Hardware Input Ratings Supply voltage [V] 305...528 ±0 (480 V Nominal voltage ) Supply voltage frequency [Hz] 50 / 60 +/- 2 Input phases Rated input current 400VAC [A]...
Page 30 Technical data 480V (size 13 to 28)* Inverter Size Max Motor Power [hp] 50 Housing Size Unit Hardware Input Ratings Supply voltage [V] 305...528 ±0 (480 V Nominal voltage ) Supply voltage frequency [Hz] 50 / 60 +/- 2 3 or 2x3 Input phases Rated input current 400VAC [A] (UL) Rated input current 480VAC [A]...
Page 31: Dimensions And Weight
Dimensions and Weight 2.7. Dimensions and Weight H Housing G Housing E Housing 31lb / 14kg 22lb / 10kg 11lb / 5kg R Housing R Housing (230V Size 19 only) 55lb / 25kg 71lb / 32kg W Housing U Housing 166lb / 75kg 353lb / 160kg See next page for dimension tables.
Page 32 Dimensions and Weight Dimensions in inches Dimensions in mm Housing Housing 5.12 11.4 8.75 0.28 10.8 13.4 10.0 0.28 13.0 11.7 13.4 10.0 0.28 13.0 13.5 20.5 14.0 0.394 11.8 19.5 13.5 20.5 10.9 0.394 11.8 19.5 13.5 31.5 14.0 0.394 11.8 30.5 26.4 37.0 14.5 0.512 24.8 35.8 Mounting Holes G,H,R,U,W...
Page 33: Power Connections
Power Connections 2.8. Power Connections  Housing Size E Verify input voltage with name plate for proper connection 230V or 480V L1, L2, L3 3 phase supply voltage ++, - - Connection for DC supply ++, PB Connection for braking resistor N/L2 U, V, W Motor connection...
Page 34 Power Connections  Housing Size R Verify input voltage with name plate for proper connection 230V or 480V Note always verify input voltage with name plate for proper connection K1 K2 T1 T2 L1, L2, L3 3 phase supply voltage T1, T2 Connection for temperature sensor +PA, -...
Page 35: Connection Of The Power Circuit
Motor Choke or Output Filter Line Choke Motor Interference Suppression Filter Sub-Panel in Control Cabinet TORQMAX F5 External motor temperature sensor (for all units) Don't install sensor wires with control wires! Must use double shield when running these No jumper required, when...
Page 36: Ferrite Ring Installation
Ferrite Ring Installation 2.10. Ferrite Ring All PWM type frequency inverters generate high frequencies as a result of fast switching of the IGBT output transistors. As these high frequencies trav- Installation el along the motor wires they can easily be coupled to other wires in proxim- ity to the motor leads.
Page 37 Ferrite Ring Installation Installation The ferrite rings are to be installed on the motor wires as close to the in- verter as possible. Take the ferrite(s) and pass all three motor phases through the center. Use a wire tie to secure the ferrite(s) to the wire. Note: Do not pass the earth ground wire through the ferrite(s).
Page 38 Ferrite Ring Installation Use with regen units Ferrite rings are required to limit common mode noise and minimize elec- trical disturbances on the DC bus connections between the inverter and regen unit(s). Ferrite rings are to be installed over both the ++ and -- DC bus connectors and should be installed as close to the inverter as possible.
Page 39: Time Dependent Overload Curve
Overload Curves 2.11. Time dependent overload curve If the load current exceeds the rated current but is below the overcurrent level, an overload timer begins counting. The rate at which the timer increments is a function of load current. The higher the current the faster the increments. When the counter reaches the limit the Error Overload (E.OL) fault is triggered and the output to the motor is shut off.
Page 40: Low Speed Overload
PWM. As a result, the continuous output current must be limited at low speeds to prevent the power transistors from overheating. The Torqmax F5 will drop the carrier frequency to 4kHz if necessary to be able to continue to provide current to the motor. Once the output frequency rises above low frequency or the current drops below the levels listed below, the carrier frequency will be returned to the higher value.
Page 41: Control Connections
Control Connections 3. Control Connections 3.1. Control Circuit 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 3.1.1. Terminal Strip Connections F5-A Terminal tightening torque = 0.5 Nm PIN Function...
Page 42: Connection Of The Control Signals
Control Connections 3.1.2. Connection of To prevent a malfunction caused by interference voltages on the control the control signals inputs, the following steps should be observed: • Establish a true earth ground for all ground connections! • Do not connect drive signal commons to earth ground! ...
Page 43: Voltage Input / External Power Supply
Control Connections The supply to the control circuit through an external voltage source keeps the 3.1.5. Voltage Input control in operational condition even if the power stage is switched off. The / External Power external power supply should have the 0VDC connected to ground, preferably Supply at the supply device itself.
Page 44: Control Circuit - Sto
Control Circuit - STO 3.2. Control Circuit An optional Safe Torque Off (STO) control card can be used with the F5 drive. The safety control card provides Safe Torque Off functionality in accordance - STO to IEC 61800-5-2. These inverter units with a safety control card can be identified by the KEB part number and will have a “K”...
Page 45: Assembly Of The Wires (F5-K)
Control Circuit - STO D, E Housings G, H, R, U, W Housings Terminal Description Control terminal strip STO terminal block Encoder Interface channel 1 Encoder Interface channel 2 HSP5 interface 3.2.1. Assembly of the The STO control card uses a spring-loaded terminal strip. Use the following wires (F5-K) instructions when wiring the control terminals Required Tools:...
Page 46: Terminal Strip Connections (F5-K)
Control Circuit - STO 3.2.2. Terminal Strip X2A - Control Connections (F5-K) Pin Function Name Description Digital Common Reference potential for digital inputs/outputs 20 ...24V Input Voltage input when an external 24VDC V = 24VDC +20%/-15% supply is used = 1A Digital Common Reference potential for digital inputs/outputs 24V-Output...
Page 47 Control Circuit - STO Pin Function Name Description Relay 2 Common See pin 29 Relay 1 Common See pin 30 Relay 2 NC See pin 29 Contact = 30VDC Relay 1 NC See pin 30 Contact I = 0.01...1A Relay 2 NO Programmable Output LO20 Contact Default = Brake Control...
Page 48: Digital Inputs (F5-K)
Control Circuit - STO 3.2.3. Digital Inputs Use of internal voltage supply Use of external voltage supply (F5-K) 6 8 10 6 8 10 3.2.4. Analog Inputs Current Voltage Potentiometer (F5-K) R = 0…3/5/10kΩ 2022 2022 0…±20mA 4…20mA 0…±10Vdc 3.2.5. Digital Outputs (F5-K) 3.2.6.
Page 49: Analog Outputs (F5-K)
Control Circuit - STO 3.2.7. Analog Outputs 0…10Vdc 0…10Vdc (F5-K) 10mA 10mA max= max= 2224 3.2.8. STO Conections (F5-K) X2B - Safety Control Name Description STO1+ STO1+ Input STO Channel 1 STO1- STO1- STO2+ STO2+ Input STO Channel 2 STO2- STO2- STO-OUT Output STO...
Page 50: Sto Inputs (F5-K)
Control Circuit - STO 3.2.9. STO Inputs Specification of the STO inputs (F5-K) Status 0 Status 1 STO Inputs UL (V) IL (mA) UH (V) IH (mA) max. min. not defined The maximum short-term starting current of the input is limited to 300 mA. 3.2.10.
Page 51: Encoder Feedback Interfaces
Encoder Feedback Interfaces 3.3. Encoder The encoder feedback interface is a modular board installed on the control card of the drive depending on encoder type. The encoder feedback interface board Feedback will have to two ports, X3A and X3B. Various options are available for each Interfaces port with each combination having a unique indicator in the part number digit.
Page 52 Encoder Feedback Interfaces Depending on the type of encoder interface used, below are the general specifications of the incremental channel signals TTL incremental input/output signal channels 2...5V 0...0,5V 2...5V 0...0,5V 2...5V 0...0,5V 2...5 V 0...0,5V Signal format of EnDat, Sin/Cos, SSi, Hiperface encoder input channels A and B (SIN and COS) 1 wave cycle per increment...
Page 53: Terminals
TTL Incremental Terminal Strip - Encoder Connections 3.3.1. Incremental Connect the incremental encoder mounted on the motor to the 8 position TTL Encoder terminal connector at X3A. This connection provides speed feedback and Interface X3A is imperative to the proper operation of the F5. Screw Terminals ONLY when the inverter is switched off and the volt- ...
Page 54 TTL Incremental Terminal Strip - Encoder Connections The following specifications apply to encoder interface X3A, channel 1 • Max. operating frequency: 300 kHz. = 120 Ω • Internal terminating resistance: • RS422 or TTL level square wave voltage level: 2...5 Vdc Input equivalent circuit approx.
Page 55: Endat Encoder Interface X3A
EnDat Encoder Interface X3A 3.3.2. EnDat Encoder The EnDat encoder provides two differential analog channels for incremen- Interface X3A tal position and one serial data channel with clock for communication with the encoder. This serial data channel can provide the drive with the abso- lute position of the motor as well as other operating data.
Page 56 EnDat Encoder Interface X3A ENDAT Pin No. Signal Description Drive connection X3A Signal input A- Female SUBD 15 HD Signal input B- CLOCK + Synch. signal for serial data CLOCK - Synch. signal for serial data Signal input A+ (absolute track for counter and direction detection) Signal input B+ (absolute track for counter and direction detection) + 5V Supply voltage for encoder...
Page 57 EnDat Encoder Interface X3A Technical Data • Input resistance: 120 Ohm • Process data channel: 1Vpp • Parameter channel: EIA RS485 half duplex • Clock signal output: EIA RS485 • Maximum input frequency: 200 kHz • Encoder line number: 1...2048 inc •...
Page 58: Sin/Cos Encoder Interface X3A
Sin/Cos Encoder Interface X3A 3.3.3. Sin/Cos The Sin/Cos encoder provides two differential analog channels for incre- Encoder Interface mental position and two differential analog channels for the absolute posi- tion of the motor The analog cosine and sine wave signals of tracks A and B have a voltage of 1 Vpp with an Offset of 2.5 V.
Page 59 Sin/Cos Encoder Interface X3A Sin/Cos Pin No. Signal Description Drive connection X3A Differential signal to C+ Female SUBD 15 HD Differential signal to D+ Differential signal to A+ Differential signal to B+ SIN+ Absolute track for initial position and angular calculation COS+ Absolute track for initial position and angular calculation COS+ Incremental signals A for counter and direction detection SIN+ Incremental signals B for counter and direction detection...
Page 60 Sin/Cos Encoder Interface X3A Technical Data • Input resistance: 120 Ohm • Process data channel: 1Vpp • Maximum input frequency: 200 kHz • Encoder line number: 1...2048 inc • Maximum cable length: 100 m (based on signal levels, otherwise see below) •...
Page 61: Ssi Encoder Interface X3A
SSi Encoder Interface X3A 3.3.4. SSi Encoder The SSi encoder provides two differential analog channels for incremental Interface X3A position and one serial data channel with clock for communication with the encoder. This serial data channel can provide the drive with the absolute position of the motor.
Page 62 SSi Encoder Interface X3A Pin No. Signal Description Drive connection X3A signal input A- Female SUBD 15 HD signal input B- CLOCK + synch. signal for serial data CLOCK - synch. signal for serial data Signal input A+ (absolute track for counter and direction detection) Signal input B+ (absolute track for counter and direction detection) + 5V Supply voltage for encoder...
Page 63 SSi Encoder Interface X3A Technical Data • Input resistance: 120 Ohm • Process data channel: 1Vpp • Parameter channel: EIA RS485 half duplex • Clock signal output: EIA RS485 • Maximum input frequency: 200 kHz • Encoder line number: 1...2048 inc •...
Page 64: Biss / Endat 2.2 Encoder Interface X3A
BiSS / EnDat 2.2 Encoder Interface X3A 3.3.5. BiSS / EnDat The BiSS/EnDat 2.2 encoder supports encoders with bidirectional serial 2.2 Encoder communication for incremental and absolute position with high transfer rates. Interface X3A The encoder provides one serial data channel with clock for communication with the encoder.
Page 65 BiSS / EnDat 2.2 Encoder Interface X3A BiSS / EnDat 2.2 Pin No. Signal Description Drive connection X3A DATA + Data Channel + Screw Terminal Strip DATA - Data Channel - CLOCK + Clock Channel + CLOCK - Clock Channel - 5.25V voltage output for encoder supply 2 3 4 5 6 7 8 24V voltage output for encoder supply...
Page 66 BiSS / EnDat 2.2 Encoder Interface X3A Technical Data Interface Type EnDat 2.2 / BiSS Input Signals 5V TTL, Data and Clock according to RS-422/485 Inputs / Tracks EnDat BiSS Data channel SSI bi-directional, half duplex Data channel. SSI uni-directional Clock Frequency EnDat 2.1 = 1 MHz 3.125 MHz...
Page 67: Hiperface Encoder Interface X3A
Hiperface Encoder Interface X3A 3.3.6. Hiperface The Hiperface encoder provides two differential analog channels for incremental Encoder Interface position and one serial data channel for communication with the encoder. This serial data channel can provide the drive with the absolute position of the motor as well as other operating data.
Page 68 Hiperface Encoder Interface X3A HIPERFACE Pin No. Signal Description Drive connection X3A signal input A- Female SUBD 15 HD signal input B- Signal input A+ (absolute track for counter and direction detection) Signal input B+ (absolute track for counter and direction detection) +7.5V Supply voltage for encoder reference potential for supply voltage...
Page 69 Hiperface Encoder Interface X3A Technical Data • Input resistance: 120 Ohm • Process data channel: 1Vpp • Parameter channel: EIA RS485 half duplex • Maximum input frequency: 200 kHz • Encoder line number: 1024 inc • Maximum cable length: <100 m (based on signal levels, otherwise see below) Cable length based on cable resistance The maximum cable length is calculated as follows:...
Page 70: Uvw Encoder Interface X3A
UVW Encoder Interface X3A 3.3.7. UVW Encoder The UVW encoder provides two differential analog channels for incremental Interface X3A position and three analog channels for the absolute position of the motor. Tracks A and B are incremental TTL signals with a maximum of 8,192 increments per revolution.
Page 71 UVW Encoder Interface X3A Pin No. Signal Description Drive connection X3A Incremental encoder input track A Female SUBD 15 HD Differential signal to A+ Incremental encoder input track Differential signal to B+ Input zero track (not evaluated) Differential signal to N+ (not evaluated) Block commutation track U Differential signal to U+ Block commutation track...
Page 72: Incremental Ttl Encoder Interface X3A Subd
Incremental TTL Encoder Interface X3A SubD 3.3.8. Incremental Connect the incremental encoder mounted on the motor to the 15-pin TTL Encoder Sub-D connector at X3A. This connection provides speed feedback and is Interface X3A SubD imperative to the proper operation of the F5. Encoder Card Part Number: Housing Size ≤...
Page 73 Incremental TTL Encoder Interface X3A SubD 1. Maximum Encoder voltage: +5.2 V 2. Encoder line number: 1...16383 ppr 2500 ppr is recommended and gives best speed resolution and regulation performance for applications with a maximum motor speed of up to 4500 rpm.
Page 74: X3B Output Ttl Incremental
Output - Encoder Connections ONLY when the inverter is switched off and the voltage  3.3.9. X3B Output supply is disconnected may the feedback connectors TTL Incremental be removed or connected! The second incremental encoder connection serves as a buffered output of the motor encoder.
Page 75: Operation Of The Unit
Operation of the unit 4. Operation of the unit The Torqmax Elevator drive uses a special operator keypad which provides a 4.1. LCD Operator user interface and functionality specific to elevator applications. The operator must be plugged into the drive in order for the drive to function properly. ...
Page 76: Serial/Can Hardware Version
Serial/CAN Hardware Version 4.2. Serial/ CAN Hardware Version Hardware CAN | RS 485 RS 232/485 Bus Communications Diagnostics Signal Signal CAN V+ CAN L TxD, RS232 CAN H RxD, RS232 RxD A -, RS485 RxD B +, RS485 RxD B +, RS485 RxD A -, RS485 CAN GND ) VP +5V (10mA)
Page 77: Backward Compatibility
Backward Compatibility The Serial LCD v3.34 is supported by control card v4.3 or higher. The F5 4.3. Backward control card software version can be found in Diagnostics Screen #9 (See Compatibility section 4.8 for more information on Diagnostics). v3.33 can upload and synchronize with drives that have been programmed with previous versions, beginning with v3.21.
Page 78: Languages
Languages 4.6. Languages The LCD Keypad supports 7 different languages: • English • Spanish • French • Portuguese • Italian • German • Russian The language can be adjusted in several ways: • During boot-up, if the operator & keypad are not synchronized, the user can access the language menu via the (F4) Hotkey •...
Page 79: Programming Menu
Programming Menu 4.7. Programming The programming menu is where all manual parameter adjustments are made and can be accessed at Home > Prog (F3). Menu The Parameter menu contains the following groups: • Operator System (OS) • Basic Setup (US) •...
Page 80: Parameter Adjustment
Programming Menu When adjusting a parameter, press “ENTER” to access Edit Mode. 4.7.1. Parameter Parameter values can only be changed in Edit Mode. Adjustment • Up/Down - Can be used to increment or decrement the number. Press the ENTER key to save the change. Edit Mode Active •...
Page 81: Setting The Password
Programming Menu 4.7.2. Setting the The LCD keypad has different access levels that are password protected. Password Different levels provide access to more parameters and give the read and write privileges. If you expect to see more parameters or need higher access to change parameters, please contact KEB.
Page 82 Programming Menu Temporary OEM Password Access A unique, temporary password can be generated to provide OEM level access for a period of one day for troubleshooting purposes. Using the program Elevator Password Generator.exe, enter the date set in the keypad operator. This can be changed at: Home > Prog > Setup > Date. The program will generate a unique password based on the date set in the keypad operator which will provide temporary OEM password access which is valid until the date in the keypad operator changes.
Page 83: Units
Programming Menu 4.7.3. Units The KEB LCD operator supports both imperial and metric units. Toggling between unit settings only scales the parameters and does not change any internal values. The units can be changed at Home > Prog > Basic Setup > US02 The ability to change units is dictated by the user access level.
Page 84: Diagnostics Screen
Diagnostics Screen 4.8. Diagnostics The LCD operator has split-view diagnostic screens. The diagnostics are grouped together which makes it easier to view several related parameters. Screen The screens can be accessed at Home > Diag If a malfunction occurs during operation, the drive shuts down operation and 4.8.1.
Page 85: Fault Data Logging
Diagnostics Screen 4.8.2. Fault Data The fault data logging function can be used to capture a scope trace of up to Logging four parameters in high resolution before and after a drive fault is triggered. The scope file is then saved to flash memory on the keypad operator and the file can be transferred from the keypad operator via FTP and be imported within Combivis 6 to evaluate the scope trace.
Page 86: Date & Time
Date & Time 4.9. Date & Time The LCD keypad has a real-time clock and stores the date. This allows the operator to keep time stamps of faults and track total run hours.  The Serial/CAN operator does keep track of the time/date and will do so for several weeks without power.
Page 87: Customizing Parameter Lists
Customizing Parameter Lists 4.10. Customizing Custom parameter lists can be made to mask off parameters from view, depending on user access password level. Parameter Lists The OEM password level provides read and write access to all applicable keypad operator parameters. A custom parameter list applies to all lower password levels, although whether a parameter is viewable or has write access also depends on each password level which has precedence over the custom parameter list.
Page 88 Customizing Parameter Lists LC41 will not be accessible in the User or Basic password Levels LS02 will be accessible in the OEM password level only. LS01 will be accessible in all password levels: OEM, Adjuster, User, Basic. LS01 will read-only in the Basic password level Once the text file for a custom parameter list has been created, it must be saved as the following: para_dis.txt.
Page 89: Customizing Defaults
Customizing Defaults 4.11. Customizing A pre-saved parameter file can be used to create custom defaults settings. Defaults The pre-saved parameter file can either be created using the Combivis computer program or taken as an upload from a drive already programmed. The file type needs to be .dw5.
Page 90: Initial Start Up
Initial Start Up 5. Initial Start Up 5.1. Connecting The drive and operator must be “synched” before being able to operate. When the operator/drive are initially booted up, the parameters of each are compared the drive and and it is determined if the units are synched. If they are not, the user will be operator given programming options.
Page 91: Manual Programming
Manual Programming Copy drive to operator (Previously Programmed Drive): Install the operator keypad, the boot sequence will begin and the display will indicate that the settings between the drive and operator do not match and that they are not synchronized; press the ENTER button to proceed. Press the F2 button under “Upld”...
Page 92: Elevator App
Elevator App 5.2.2. Elevator App The Torqmax F5 drive can also be programmed via the mobile lift app. The KEB Elevator app connects to the F5 elevator drive via a phone’s bluetooth connection. Setup, adjustment and troubleshooting of the F5 drive can be done using the mobile app.
Page 93: Basic Setup
US04 - Control Type (i.e. Binary, Serial, Analog) Next, the configuration must be loaded using US05. This step serves to load the Torqmax F5 drive with the correct limits and internal settings according to the application: US05 - Load Configuration (Write config. to drive) •...
Page 94: Inputs
Inputs/Output Configuration 5.4.1. Inputs Enter the following input parameters (Home > Prog > Inputs) depending on the controller requirements. • LI01 - Type of Input (PNP or NPN logic) • LI04-11 - Input Function SETUP OF THE INPUTS IS NOW COMPLETE! Enter the following output parameters (Home >...
Page 95: Motor Data
Next, the basic motor parameters must be entered before doing an automatic motor learn (Home > Prog > Motor Data). The Torqmax F5 inverter is capable of driving either AC induction motors or AC permanent magnet motors. From here on, induction motors will be referred to as “IM”...
Page 96: Encoder Data
Encoder Data Torque units will change depending on which units are set in US02. For reference, here are the equations to convert between Imperial and Metric units provided different nameplate information: HP * 5252 kW * 7051 lb-ft Rated Motor Speed Rated Motor Speed 1.355 Further PM motor data parameters will be determined during the Motor Tune...
Page 97: Speed Profile
Speed Profile 5.8. Speed Profile Next, the speed control parameters can be set for digital, binary, and positioning control. The speed commands in Analog and Serial speed control are dictated by the controller, so these speed parameters will have no effect on the actual run speed.
Page 98 Speed Profile Accel Jerk Decel Jerk Acceleration Deceleration Stop Jerk Final Stop Start Jerk One Floor Emergency High (Short Runs - Inspection (Intermediate Speed Intermediate Speed 3) Speeds 1,2) Acceleration LS20 LS30 LS50 LS40 Start Jerk LS21 LS31 LS51 LS41 Accel Jerk LS22 LS32...
Page 99: Motor Learn
Motor Learn Next, the complete motor data must be learned with the automated learn 5.9. Motor Learn function. The motor characteristics, including the motor’s inductance and resistance, can be learned with the drive’s tuning function. The Motor Learn function can be found under the Tune Parameters group from the Programming menu (Home >...
Page 100: Encoder Learn
Encoder Learn 5.10. Encoder Next, the encoder needs to initialized and configured. Learn In applications with Induction Motors, the Encoder Synchronization function can be used to determine the correct A/B phasing of the encoder channels and whether the direction needs to be inverted for the correct direction of travel. For IM motors, the Encoder Synchronization can be adjusted at parameter: •...
Page 101: Spi Encoder Learn
Encoder Learn SPI can be done with the ropes on and the brake set. To start the SPI 5.10.1. SPI Encoder functionality go to LL05 and follow the instructions on the LCD: Learn • LL05 - SPI (“START”) The user will be prompted to: 1.
Page 102: Encoder Pole Position Learn
Encoder Learn 5.10.2. Encoder Pole As an alternative to using the SPI function, a user can use the Encoder Pole Position Learn Position Learn. The advantage of the Encoder Pole Position Learn is that it learns the correct A/B channel phasing in addition to the pole position. However, the procedure does require frictionless movement (unroped sheave or balanced car).
Page 103: Encoder Synchronization
Running the Motor The Encoder Synchronization process will determine the correct A/B encoder 5.10.3. Encoder channel phasing and direction of rotation for both IM and PM motors. For Synchronization PM motors, the Encoder Synchronization process immediately follows either method of learning the encoder pole position. Begin the process by setting: •...
Page 104: Advanced Ride Adjustments
Advanced Ride Adjustments 5.12. Advanced Ride Adjustments 5.12.1. Inertia Learn For optimum control of the elevator, it is recommended to learn the system inertia and activate the feed forward torque controller (FFTC). FFTC reduces the dependence on the speed feedback from the motor by predicting what the system will do and providing the required torque command based on that prediction.
Page 105: Internal Pretorque
Advanced Ride Adjustments 5.12.2. Internal Internal pre-torque is a feature of the drive which can be used to minimize, if Pretorque not totally eliminate, the rollback which may occur at brake pick, without the need for external load weighing devices. Pretorque is available when the LC01 Control Mode is set for Closed Loop FOC or Closed Loop Synthetic Pretorque.
Page 106: Closed Loop Analog Pretorque
Advanced Ride Adjustments 5.12.3. Closed Loop Setting the Control Mode LC01 = 3, Closed Loop Analog Pretorque allows the Analog Pretorque drive to use an external pretorque input signal via AN2+ and AN2- on terminal strip X2A for use with an analog load weighing device. The first step is to ensure the load-weigher is calibrated according to the manufacturer’s instructions.
Page 107: Closed Loop Digital Pretorque
Advanced Ride Adjustments 5.12.4. Closed Loop By setting the Control Mode LC01 = 4, Closed Loop Digital Pretorque, a fixed Digital Pretorque digital pretorque value (% of the motor rated torque) is set with LC34 Digital Pretorque. This applies to US04 Control Types Digital (0), Binary (1), Absolute Analog (2), Bi-Polar Analog (3) and Serial Binary Speed DIN66019 Service 50 (6).
Page 108 Advanced Ride Adjustments Pre-torque Timing Chart Enable Direction + Speed Current Check Brake Release Delay LT01 Control Hold Oﬀ LT02 Speed Start Delay LT03 Brake Drop Delay LT10 Current Hold Time LT12 Current Ramp LT13 Down Time Pretorque LC05, LC10 Accel.
Page 109: Parameter Description
Parameter Description 6. Parameter Description The programming menu is where all manual parameter adjustment are made and can be accessed at Home > Prog (F3). The Parameter menu contains the following groups: Operator System: OS00...OS25 These parameters provide general information about the operator and drive hardware and software.
Page 110 Parameter Description Control Setting: LC01...LC44 These parameters contain advanced adjustment parameters which affect the motor gains, system inertia gains, pre-torque, etc. Timer Parameters: LT01...LT31 These parameters adjust brake and drive signaling timers. Positioning Parameters: LP01...LP23 These parameters contain the adjustments needed for the drive positioning control.
Page 111: Basic Setup Parameters
US - Basic Setup Parameters 6.1. US - Basic Setup Parameters This parameter chooses to display the speed, accel, and torque units in either US02 Imperial or Metric format. System Units Settings: m / sec ft / min Default = ft / min This parameter chooses the motor type and gearing configuration of the US03 system.
Page 112 US - Basic Setup Parameters US04 This parameter selects the type of speed selection and rotation setting. Further details for each are provided on the following pages. Control Type Setting: Description: Digital Speed Four digital inputs select up to five different Selection speeds.
Page 113 US - Basic Setup Parameters Digital Speed Selection Digital Speed Selection utilizes four digital inputs assigned in LI04-11 as Speed Selection (27) to select up to five speeds. Input priority will be I1>I2>...I8. The input logic table can be defined in LI03 Speed Input Decoding as to which corresponding speed in the LS parameter group is selected.
Page 114 US - Basic Setup Parameters Absolute Analog Speed A uni-polar 0...+10VDC analog signal connected to terminals AN1+ and AN1- controls the speed from 0...High Speed. The High Speed must be set in LS02. For controllers which do not output 10V corresponding to High Speed, the analog input can be scaled by LA05 AnIn1 Gain.
Page 115 US - Basic Setup Parameters Serial Speed DIN66019, Service 49 RS485 serial communication DIN66019, Service 49 protocol includes 4x16- bit Process Data Inputs. The Process Data Inputs are then mapped to the corresponding functions: Field Bus Speed, Control Word, Pretorque, Position. The serial communication connected to the keypad operator terminal port X6C controls the speed via the Process Data Input assigned as Field Bus Speed.
Page 116 US - Basic Setup Parameters Serial Speed DIN66019, Service 50 RS485 serial communication DIN66019, Service 50 protocol includes 1x32-bit, 2x16-bit Process Data Inputs and an 1x32-bit AUX R/W. The Process Data Inputs are then mapped to the corresponding functions: Field Bus Speed, Control Word, Pretorque, Position.
Page 117 US - Basic Setup Parameters Serial Binary Speed DIN66019, Service 50 RS485 serial communication DIN66019, Service 50 protocol includes 1x32-bit, 2x16-bit Process Data Inputs and an 1x32-bit AUX R/W. The Process Data Inputs are then mapped to the corresponding functions: Field Bus Speed, Control Word, Pretorque, Position.
Page 118 US - Basic Setup Parameters Control Sequence Starting: Drive Enable input, I7. Up or Down direction. May be given with the Drive Enable, before, or after. If both the Up and Down directions are given, a Direction Selection Failure will occur. If LI15 = Down Input Only, the Up direction is automatically selected internally.
Page 119 US - Basic Setup Parameters Speed Input(s), Analog or Serial pattern May be given with the direction input, before, or after. Acceleration to selected speed will begin after LT01 Brake Release Delay and LT03 Speed Start Delay For external profile pattern from Analog or Serial speed control, LT03 Speed Start Delay will expire automatically when command becomes non-zero.
Page 120 US - Basic Setup Parameters After entering the basic setup parameters (US02-US04 & US06) the system US05 configuration must be written to the drive. This procedure loads the drive with Load Configuration the correct parameters depending on the motor type and sets the correct limits and scalings.
Page 121: Li - Input Parameters
LI - Input Parameters 6.2. LI - Input Parameters LI01 Determines whether the digital inputs are PNP (sourcing, +24VDC = ON) or NPN (sinking, 0VDC = ON). This setting is applied globally to all inputs. Type of Input Settings: Default = PNP (0) LI02 This parameter controls a digital noise filter which can be used to mask relay bounce or other unwanted momentary signals.
Page 122 LI - Input Parameters Digital Speed Selection Utilizes four inputs to select up to five different speeds. Older KEB elevator software and worldwide variants are available. Because of this, several different truth tables for the Digital Speed Selection are available: Version: LI03 Setting: US Lift...
Page 123 LI - Input Parameters LI03 = D(Level - High - Inspect. - Interm.) [Leveling at start], NUM = 4 US04 Param. Control Inputs Digital Speed Selection LS01 EVELING LS02 PEED LS02 PEED LS03 NSPECTION LS05 NTERMEDIATE  * Valid only at start (once leveling speed is reached it is not possible to accelerate up to high speed again until after zero speed has been selected) LI03 = D(Inspect.
Page 124 LI - Input Parameters Binary Speed Selection Utilizes three binary-coded inputs for up to 7 speeds. Older KEB elevator software and worldwide variants are available. Because of this, several different truth tables for the Binary Speed selection are available: Versions: LI03 Setting: US Lift 1.60, 1.62, 1.72 B(Level - Correction - Inspection)
Page 125 LI - Input Parameters LI03 = B(Inspection - Level - Correction), NUM = 1 US04 Control Inputs Binary Speed Parameter Selection LS01 EVELING LS02 LS03 NSPECTION LS04 ORRECTION LS05 NTERMEDIATE LS06 NTERMEDIATE LS07 NTERMEDIATE LI03 = B(Level - Correction - High), NUM = 2 US04 Control Inputs Binary Speed...
Page 126 LI - Input Parameters LI04 Input 1 corresponds to digital control terminal I1, X2A.10. Input 1 Function If this input is available, then it is free to be programmed with the one of the following input functions: Programmable Input Description of Functionality: Functions for LI04 - LI11: No Function...
Page 127 LI - Input Parameters Programmable Input Description of Functionality: Functions for LI04 - LI11: Position Deviation Corrects position deviation at leveling Reset zone marker, according to distance set in LP05. Teach Value Learns floor value (not yet implemented) Up Direction Input assigned as up direction command Down Direction Input assigned as down direction command...
Page 128 LI - Input Parameters Note: Two inputs cannot be assigned the same function, except Brake Release Confirmation. Programmable Input Description of Functionality: Functions for LI04 - LI11: 125% NTS When triggered, the drive will be config- ured for 125% load NTS tests. This input is active low.
Page 129 LI - Input Parameters Brake Release Confirmation When an input is programmed for Brake Release Confirmation (18), the drive checks to see if the brake opens or closes within a set amount of time, otherwise a Brake Switch Failure fault will occur. The timers are defined as: Starting: t = LT01 + LT03 + 2.5...
Page 130 LI - Input Parameters Open Loop Easy Direction is available for open loop induction applications. The user will be required to set LC01 Control Mode to Open Loop Vector (1) and to set LI50 UPS Mode to Easy Direction (1). While in UPS mode when the run is commanded, the drive will briefly turn the motor in both directions while monitoring the torque current.
Page 131 LI - Input Parameters UPS Operation During UPS Operation there is the option for the drive to determine the direction of travel based on the load to utilize the least amount of power under a UPS supply. This option is called “Easy Direction” . During the brake release sequence the drive will measure the motor torque and then command the motor to travel in the direction of least resistance at the programmed LS10 Battery Operation Speed.
Page 132 LI - Input Parameters Main Contactor Check (MCC) Input / Output The MCC Input and Output can be incorporated independently or function in combination. MCC Output The MCC output is used to control the motor contactor. The MCC output is ON when the drive processes the Direction + Speed input commands (or direction only for analog and serial speed control modes).
Page 133 LI - Input Parameters MCC Output + Input When used in combination, the following diagram shows an example of the connection. Contactor Motor MCC Input Enable 24VDC Direction MCC Output Coil Pilot Speed Relay...
Page 134 LI - Input Parameters Speed Selection When the US04 Control Type = Binary Speed Selection (1) or Digital Speed Selection (0), the X2A terminal strip inputs to be used for speed selection must be assigned with LI04-11. For Binary Speed Selection, three inputs will need to be assigned Speed Selection (27) and for Digital Speed Selection, four inputs will need to be assigned as Speed Selection.
Page 135 LI - Input Parameters ESD - Emergency Slowdown The Emergency Slowdown (ESD) can be used as an alternate slowdown profile, or quick stop. The ESD input is an active low input controlled by the controller. ‘ESD Input Failure’ fault will occur if the ESD input is not detected (high) at the beginning of a run.
Page 136 LI - Input Parameters ETS - Emergency Terminal Slowdown The Emergency Terminal Slowdown (ETS) can be used as an alternate slowdown profile, or quick stop. The ETS input is an active low input controlled by the controller. ‘ETS Input Failure’ fault will occur if the ETS input is not detected (high) at the beginning of a run.
Page 137 LI - Input Parameters NTS - Normal Terminal Slowdown The Normal Terminal Slowdown (NTS) can be used as an alternate slowdown profile, or quick stop. The NTS input is an active low input controlled by the controller. When the NTS input is dropped (pulse or constant), the drive will begin to compare the encoder speed against the corresponding NTSD threshold and direction (TS03-08).
Page 138 LI - Input Parameters LI04-11: Digital Inputs LI04...LI11 correspond to inputs I1...I8 (I7 reserved for Drive Enable). See Section 3.1.1 or 3.2.2 for terminal strip assignments. Each input is programmable with one of the input functions listed for LI04. Input 1 corresponds to digital control terminal I1, X2A.10 (F5-A, Section LI04 3.1.1).
Page 139 LI - Input Parameters LI15 Sets the function of inputs programmed as Up and Down according to US04 Control Type. In addition, the Brake Control output condition can Direction Selection be assigned to direction or speed inputs. Direction Selection and Brake Inputs Function options can be selected in combination.
Page 140 LI - Input Parameters LI16 Allows a custom input logic table to be defined for binary speed control mode, US04 Control Type = Binary Speed Selection (1). This parameter Custom Input must be adjusted as a hexadecimal number using the NUM function Decoding on the keypad when editing.
Page 141 LI - Input Parameters Sets the response to a Brake Switch Failure fault, when an input is assigned LI20 as Brake Release Confirmation. Brake Switch Function Setting: Description: General Reset Brake switch faults will automatically reset up to the number of times adjusted in LX01. Auto Reset The brake switch fault will only reset 3 times, regardless of the LX01 setting.
Page 142 LI - Input Parameters LI60 When this function is turned on, it allows the controller to command the drive to switch between correction and inspection speeds. This parameter only Correction / Inspection applies to Binary Speed Control (1). LI60 OFF 1.
Page 143: Lm - Motor Data Parameters
LM - Motor Data Parameters 6.3. LM - Motor Data Parameters These parameters define and display all relevant motor values and motor protection settings. The drive will only allow access to motor parameters related to the motor loaded in US03. Parameters that pertain to induction motors will have the following icon listed beside it.
Page 144 LM - Motor Data Parameters The rated motor speed in rpm, according to nameplate. LM02 Motor Speed For an Induction Motor you may NOT enter the motor-synchronous speed (e.g. 1200 rpm for a 6 pole, 60Hz motor) Rated Motor Speed = Synchronous Speed - Slip Speed.
Page 145 LM - Motor Data Parameters any slip. For a given number of motor poles, the rated motor speed or frequency should be verified against the nameplate values and changed accordingly in the drive, as rounding may occur on the nameplate. The number of motor poles will always be an even, whole number.
Page 146 LM - Motor Data Parameters Example: The motor nameplate reads 95 rpm, 15 Hz. Solving for the number of motor poles, we get: # of Motor Poles = Rated Frequency (Hz) x 120 / Rated Speed (rpm) = 15 Hz x 120 / 95 rpm = 18.94 Motor Poles Here, the number of motor poles is approximately 19.
Page 147 LM - Motor Data Parameters LM03 The rated motor current in amperes, according to nameplate. Motor Current LM04 The rated motor frequency in Hz, according to nameplate. Motor Frequency  FOR PM SYNCHRONOUS MOTORS, the relationship between the rated motor speed, rated motor frequency and the number of motor poles MUST NOT include any slip.
Page 148 LM - Motor Data Parameters LM06 The motor power factor, according to nameplate. Motor Power Factor This parameter is not the efficiency of the motor but the ratio of the magnetizing current to the total phase current of the motor. Lower power factor values will increase the magnetizing current to the motor and thus increase the field strength resulting in tighter control of the motor.
Page 149 LM - Motor Data Parameters LM08 This parameter is used to activate and select the type of motor overload function. Depending on the setting of this parameter, the Elevator Drive will Electric Motor trigger an ‘Error Motor Protection’ fault causing the motor to stop. Protection Settings: Default = On (1)
Page 150 LM - Motor Data Parameters LM09 Current level for Electric Motor Protection. Electric Motor Protection Current This parameter sets the current threshold in amps above which the Elevator drive activates the motor overload function, described in LM08 Electric Motor Protection.This parameter should be set in accordance with motor rated current.
Page 151 LM - Motor Data Parameters Peak motor current factor for drive overload error for PM motors. LM11 Peak Motor Current Factor This parameter is not applicable to Induction Motors and therefore will not appear. For PM motors the current limit for electronic motor protection is set equal to the rated motor current in LM03.
Page 152 LM - Motor Data Parameters LM20 Motor Ls The equivalent induction motor sigma inductance. This value is calculated from the per phase stator and rotor leakage inductances. This is the total phase-to-phase reflected leakage inductance of the motor stator winding. The inductance listed on the manufacturer’s data sheet may likely be for one phase.
Page 153 LM - Motor Data Parameters LM22 Motor Rr This is the per phase induction motor rotor resistance. This parameter is not applicable to PM Synchronous motors and therefore will not appear. This value can be learned with a Motor Tune. Refer to Section 5.9 for further details.
Page 154 LM - Motor Data Parameters LM24 Field Weakening Corner The field weakening corner determines at which speed the peak torque limit starts being reduced. It is necessary to reduce the peak torque limit of the motor since the drive’s ability to force current into the motor is limited by the applied voltage as rated speed is reached.
Page 155 LM - Motor Data Parameters LM25 Field Weakening Speed This parameter provides a better adjustment of the field weakening torque curve. Under certain situations, if the input voltage is sagging too low or the motor has very high slip, it is possible that the voltage limit might be reached. This can be confirmed by monitoring the Modulation Grade in the Diagnostic Screen #2 or DG.10.
Page 156 LM - Motor Data Parameters LM26 Motor Ls Max This parameter is not applicable to Induction motors and therefore will not appear. Maximum motor inductance. This value can be learned with a Motor Tune. Refer to Section 5.9 for further details. LM27 Motor Inductance Mode...
Page 157 LM - Motor Data Parameters This parameter activates various controllers in the drive. Multiple options may LM30 be selected, in which the NUM value is the sum of the options selected. Motor Control Setting: Description: Motor Model Turns on motor model. The drive will auto- matically activate the motor model after the LL01 Motor Tune has been completed suc- cessfully.
Page 158: Le - Encoder Data Parameters
LE - Encoder Data Parameters 6.4. LE - Encoder Data Parameters X3A Encoder Input 1 Parameters LE1…LE17 correspond to encoder interface 1, X3A. This parameter displays the type of encoder feedback card installed in the drive. LE01 Encoder Interface This parameter is also used to reset ‘Error Encoder Interface’ faults. If an ‘Error Encoder Interface’...
Page 159 LE - Encoder Data Parameters This parameter is used to adjust the sample time of the encoder feedback for LE04 calculation of the actual motor speed value. With certain motors or encoders Sample Rate for it may be beneficial to use a time other than the factory setting. Lower values Encoder 1 lead to higher bandwidth and faster response times of the motor.
Page 160 LE - Encoder Data Parameters This parameter displays the position of the encoder in relation to one of the LE06 motor poles. This may often be referred to as the encoder position. Encoder 1 Pole Position The parameter is only applicable to PM Synchronous motors. Refer to Section 5.10.1 or 5.10.2 for the procedures to learn the pole position.
Page 161 LE - Encoder Data Parameters Setting: Description: Power on A single pole position learned after power on. NOP + Power After power on, a single pole position learned be- fore each run is performed. Encoder 1 Pole Posi- tion LE06 will update at the beginning of each run. After reset A single pole position learned after reset.
Page 162 LE - Encoder Data Parameters LE09 Numerator of encoder scaling factor when enabled with the setting of LE08 Encoder Scaling = LE02 x LE09 / LE10. Encoder 1 Numerator LE10 Denominator of encoder scaling factor when enabled with the setting of LE08 Encoder Scaling = LE02 x LE09 / LE10.
Page 163 LE - Encoder Data Parameters LE13 The number of commutation poles for a UVW encoder. In general, the number of UVW encoder and motor poles should be the same; if different, it is possible UVW Encoder to adjust the number of UVW encoder poles. This parameter is only relevant Commutation when the encoder type is UVW and a UVW encoder feedback is interface is used (LE01 = UVW Interface).
Page 164 LE - Encoder Data Parameters X3B Encoder Output / Input 2 Parameters LE31…LE36 correspond to encoder interface 2, X3B. • Parameters LE32...34 and 36...39 correspond to encoder interface 2, X3B as an input. • Parameter LE35 corresponds to encoder interface 2, X3B as an output.
Page 165 LE - Encoder Data Parameters LE35 This parameter selects the output ppr for the encoder output channel X3B. Encoder 2 Output PPR Function: Settings: Description: Channel 1 The increments of the encoder at Channel 1 (X3A) are output via encoder emulation at Channel 2 (X3B).
Page 166 LE - Encoder Data Parameters LE36 Refer to parameter LE15 for description. PT1 Time Encoder 2 Refer to parameter LE05 for description. LE37 Encoder 2 Multiplier Refer to parameter LE09 for parameter description. LE38 Encoder 2 Numerator Refer to parameter LE10 for parameter description. LE39 Encoder 2 Denominator...
Page 167: Ln - Machine Data Parameters
LN - Machine Data Parameters 6.5. LN - Machine Data Parameters  The following parameters relate to the machine data of the elevator. It is important to enter the correct values, such that both the motor and the car run at the correct speed and the drive’s internal Overspeed Error limit is calculated correctly.
Page 168 LN - Machine Data Parameters The load capacity of the elevator, in lbs or Kg, depending on US02 System LN04 Units (ft/min or m/s). Load This parameter has no function and is only used for reference. LN05 This parameter can be used to estimate the gear ratio if it is not known. Estimated Gear After correctly entering values into LM02 Motor Speed, US06 Contract Speed, Reduction Ratio...
Page 169: Ls - Speed Profile Parameters
LS - Speed Profile Parameters 6.6. LS - Speed Profile Parameters The inputs for each of the normal operating speed LS01-LS07 must be assigned by setting the corresponding inputs functions in LI04-LI11 = Speed Selection (27). Refer to LI03 Speed Input Decoding for logic tables and further details.
Page 170 LS - Speed Profile Parameters LS00 Zero Speed Offset. When this parameter is set to a speed other than zero and only the enable and direction signals have been sent to the drive (no speed Zero Speed command), the motor will be run at the offset speed programmed in LS00. This function only applies to binary and digital speed control modes.
Page 171 LS - Speed Profile Parameters LS06 Intermediate Speed 2. This speed setting uses the One Floor Speed profile settings LS30-35 and LS38 Correction Distance. Max. Value: US06 Contract Intermediate Speed 2 Speed LS07 Intermediate Speed 3. This speed setting uses the Emergency Speed profile settings LS40-45 and LS47 Correction Distance.
Page 172 LS - Speed Profile Parameters Preset profiles, LS15-LS17 Preset profile settings are available for selection based on type of desired profile. The presets will automatically adjust the acceleration, deceleration and jerk rates for a corresponding speed selection. ‘Soft’ settings will have a relaxed profile, while ‘Hard’...
Page 173 LS - Speed Profile Parameters The run profile is defined by jerks, acceleration, and deceleration. Different run profiles are available based on selected speed and/or input function (e.g. Emergency Profile). The speed profiles and corresponding parameters are broken down into the following groups: •...
Page 174 LS - Speed Profile Parameters In general, higher values result in a hard/fast profile, while lower values give softer, slower transitions. Accel Jerk Higher Values Lower Values Acceleration Start Jerk Empirical values: 2.00...3.00 for retirement homes, hospitals, apartment buildings 3.00...4.50 for office buildings, banks etc. ...
Page 175 LS - Speed Profile Parameters High Speed Profile Rate Settings LS20 Acceleration rate for High Speed profile. Acceleration High Speed LS21 Start Jerk rate into acceleration for High Speed profile. Start Jerk High Speed Acceleration Jerk rate into high speed for High Speed profile. LS22 Acceleration Jerk High Speed...
Page 176 LS - Speed Profile Parameters One Floor (Intermediate 1, 2) and NTS Speed Profile Rate Settings LS30 Acceleration rate for One Floor profile (Intermediate Speed 1 or 2). Acceleration One Floor LS31 Start Jerk rate into acceleration for One Floor Speed profile (Intermediate Speed 1 or 2).
Page 177 LS - Speed Profile Parameters Emergency (Intermediate Speed 3) Profile Rate Settings LS40 Acceleration rate for Emergency Profile (Intermediate Speed 3 or Emergency Profile input). Acceleration Emergency Start Jerk rate into acceleration for Emergency Profile (Intermediate Speed 3 LS41 or Emergency Profile input). Start Jerk Emergency Acceleration Jerk rate into speed for Emergency Profile (Intermediate Speed LS42...
Page 178 LS - Speed Profile Parameters ESD and ETS Profile Rate Settings Deceleration rate for Emergency Slowdown (ESD) and Emergency Terminal LS48 Slowdown (ETS) input functions. ESD/ETS Deceleration Deceleration Jerk rate for Emergency Slowdown (ESD) and Emergency LS49 Terminal Slowdown (ETS) input functions. ESD/ETS Jerk...
Page 179 LS - Speed Profile Parameters Inspection Speed Profile Rate Settings LS50 Acceleration rate for Inspection Speed profile. Acceleration Inspection LS51 Start Jerk rate into acceleration for Inspection Speed. Start Jerk Inspection LS52 Acceleration Jerk rate into inspection speed for Inspection Profile. Acceleration Jerk Inspection LS53...
Page 180: Ll - Tune Parameters
LL - Tune Parameters 6.7. LL - Tune Parameters For troubleshooting learn procedures, refer to Section 7.5 Auto tune of drive and motor characteristics. Refer to Section 5.9 for procedure. LL01 Motor Tuning LL02 Percentage of rated motor current the drive will use when measuring the stator inductance of PM Synchronous motors.
Page 181 LL - Tune Parameters Determines correct phasing of A/B encoder channels and direction of rotation. LL07 Refer to Section 5.10.3 for procedure. Encoder Synchronization Learns the system inertia and activates the feed forward torque control (FFTC). LL10 Method should be performed with a balanced car. Learning the system inertia Inertia Learn can provide better dynamic performance and a better ride quality with little or no adjustment of the speed control gains.
Page 182 LL - Tune Parameters LL16 Maximum speed used during Overspeed Test in LL15. A non-zero value must be entered to perform the test correctly. Overspeed Test Speed LL17 The Safety Release function turns off the acceleration jerk rates and raises the maximum torque limit to 300% of LM07 Motor Torque for one run in order Safety Release to drive an elevator car off the safeties.
Page 183: Lc - Control Setting Parameters
LC - Control Setting Parameters 6.8. LC - Control Setting Parameters The Control Mode determines whether the drive runs in open or closed-loop operation and the type of pre-torque control. LC01 Setting: Description: Control Mode Open Loop V/Hz Open loop in Volts per Hertz operation (induction motors only).
Page 184 LC - Control Setting Parameters When using induction motors, the drive may be run open loop on inspection to verify whether the encoder functions normally. By setting the parameter LC01 Motor Control = Open Loop V/Hz, the inverter runs the motor open loop. The encoder feedback (motor speed) is displayed in Diagnostics Screen #2 or parameter DG07 Motor Speed, but has no effect on the operation of the motor.
Page 185 LC - Control Setting Parameters LC02 If the inertia learn procedure has taken place, then the Speed Gain Optimization provides a quick adjustment of the speed control response on a scale between Speed Gain 0 = ‘Soft’ and 25= ‘Hard’ . From the learned inertia value, the drive determines Optimization a ratio between the proportional and integral gain and adjustment of the optimization will scale each accordingly.
Page 186 LC - Control Setting Parameters Proportional Gain The proportional gain maintains general control and stability over the entire speed range. The proportional gain is split into three values: one for acceleration and constant speed, (LC03), one for deceleration and leveling (LC04) and one for pre-torque (LC05). Additionally, the value can be made speed dependent to automatically increase/reduce (LC25) with speed.
Page 187 LC - Control Setting Parameters LC03 Proportional speed control gain during acceleration and high speed. KP Speed Acceleration Proportional speed control gain during deceleration and low speed. LC04 KP Speed Deceleration LC05 Proportional speed control gain for pre-torque. KP Speed Pretorque In most cases it is not necessary to adjust the proportional gain.
Page 188 LC - Control Setting Parameters Integral Gain The integral gain is responsible for correcting long term average error in speed as well as providing increased control and rigidity at lower speeds for starting and stopping. The integral gain is split into three values one for acceleration and constant speed (LC08), one for deceleration and leveling (LC09) and one for pre-torque (LC10).
Page 189 LC - Control Setting Parameters Integral speed control gain during acceleration and high speed. LC08 KI Speed Acceleration Integral speed control gain during deceleration and low speed. LC09 KI Speed Deceleration LC10 Integral speed control gain for pre-torque. KI Speed Pretorque The pre-torque gain setting controls the rate of the build up of torque and the stiffness of the motor as the brake releases.
Page 190 LC - Control Setting Parameters Integral Offset Gain The integral offset gain value is effective only at low speeds. This value is added to the integral term gain in LC08 for acceleration and LC09 for deceleration, to provide greater control and more stability. During acceleration the offset gain value is tapered off beginning at the defined Max.
Page 191 LC - Control Setting Parameters LC11 The integral offset gain for acceleration. KI Offset Acceleration This offset acceleration gain will assist the motor in catching the load during starting. It is especially important for high efficiency geared or gearless applications. Values of 2,000 to 5,000 are useful. Integral Offset Acceleration Correct Integral Offset Acceleration Too Low (500) - Speed lags command on take off Integral Offset Acceleration Too High (6000) - Vibration at take off...
Page 192 LC - Control Setting Parameters LC12 The integral offset gain for deceleration. KI Offset Deceleration The offset deceleration gain will allow the system track the command speed tightly at low speed. Often lower values are required for starting. Values of 500 to 2,000 are useful.
Page 193 LC - Control Setting Parameters Integral Offset Gain Corner Speeds Integral + Offset Offset Integral Speed for Speed for Max. Integral Min. Integral Offest Offset LC13 Corner speed at which the acceleration integral offset (LC11) is fully added to the acceleration integral term (LC08). At this speed, the total integral gain Speed for Max.
Page 194 LC - Control Setting Parameters LC20 Selection of gain profile for the proportional speed control gain. Gain Profile Mode Default Setting: Variable Setting: Description: Variable The KP speed gain is constant according to cor- responding acceleration and deceleration settings (Typical). Resonant For PM motors which may exhibit a torque ripple at a resonant frequency or for elevators which may have...
Page 195 LC - Control Setting Parameters Percentage increase or decrease of the proportional gain at high speed after the LC25 point of resonance has been passed. In some cases it is beneficial to reduce KP High Speed the gain at high speed to minimize system response to hoistway vibrations or disturbances.
Page 196 LC - Control Setting Parameters The maximum torque setting is used to limit the output current. For induction LC30 motors, the limit prevents the motor from exceeding its breakdown torque limit. Maximum Torque If the maximum torque setting is reached, the corresponding output current will be limited which may cause the acceleration process to take longer or stall with a full load or may also cause the car to overshoot the floor during deceleration.
Page 197 LC - Control Setting Parameters LC32 Adjusts the torque boost only during open loop operation (LC01 Control Mode = Open Loop V/Hz or Open Loop Vector). If the torque boost is too low Low Speed Torque the motor may not be able to lift the load or “error low motor current” may occur. Boost Default Setting: 0.5 % Too much or too little torque boost can lead to high current while running...
Page 198 LC - Control Setting Parameters LC35 This parameter is only utilized when the US04 control type is set to CiA417(7) See CAN Open Lift supplemental manual 00F5LUZ-KCAN for adjustment. No Load Torque This parameter is only utilized when the US04 control type is set to CiA417(7) LC36 See CAN Open Lift supplemental manual 00F5LUZ-KCAN for adjustment.
Page 199 LC - Control Setting Parameters This provides a low pass filter to the speed command. When the system inertia LC42 has been entered, this setting will be calibrated according to the control mode. Feed Forward Torque Command Filter In control modes where the speed profile is generated by the controller (serial, analog), decreasing the frequency (increasing sample time) may help reduce any unwanted affects from discontinuous inflection points in the speed profile generated by the controller.
Page 200: Timer Parameters
LT - Timer Parameters 6.9. LT - Timer Parameters LT01 This timer delays the release of the brake when one of the outputs is assigned as Brake Control or Drive On and that output is used to trigger the brake release. Brake Release Delay The LT01 Brake Release Delay timer begins after the Drive Enable and Direction commands have been given and the current check has completed.
Page 201 LT - Timer Parameters LT10 This timer delays the drop of the brake when one of the outputs is assigned as Brake Control or Drive On and that output is actually used to control the brake. Brake Drop Delay The LT10 Brake Drop Delay timer begins after the Direction input has been dropped and the speed command has reached zero speed.
Page 202 LT - Timer Parameters LT15 For use with Active Front End applications. AFE HV Idle Time LT30 When the drive is operating in UPS Mode utilizing the Open Loop Easy Direction function, this timer will adjust how long the drive samples the torque OLED Run Time current in each direction.
Page 203 LT - Timer Parameters Enable Direction + Speed Current Check Brake Release Delay LT01 Control Hold Oﬀ LT02 Speed Start Delay LT03 Brake Drop Delay LT10 Current Hold Time LT12 Current Ramp LT13 Down Time Pretorque LC05, LC10 Accel. LC03, LC08, LC11 Decel.
Page 204: Lp - Positioning Parameters
LP - Positioning Parameters 6.10. LP - Positioning Parameters These parameters are used to configure the position controller in the drive. In order to use this function, the elevator control must be designed to give the proper signal sequence ensuring correct operation. The general restrictions for using positioning control are as follows: - The US04 Control Type must be set for Binary or Digital Speed Selection.
Page 205 LP - Positioning Parameters LS02 LS01 LP03 LS02 LS01 LP03...
Page 206 LP - Positioning Parameters Learning the Slowdown Distance: The actual slow down distance can be learned by the drive or it can be entered manually. However, it is recommended that the drive actually learn the distance as this will also take into account the internal delays of the controller. These delays will actually result in a lower value for the slowdown distance than that actually measured with a tape measure.
Page 207 LP - Positioning Parameters overshooting the floor. If the car under or overshoots the floor, the position is not accessible. Increase the rate of deceleration and/or jerk and then re-learn the position. If this still does not resolve the problem, it may be necessary to move the slowdown point further away from the floor.
Page 208 LP - Positioning Parameters LP01 This parameter is used to turn on the One Floor Positioning Control functionality or to learn the high speed and short floor slowdown distances. Position Control When set to Learn Slowdown, the slowdown for the selected speed (high speed or short floor) will be measured on the next run.
Page 209 LP - Positioning Parameters LP05 The corrective distance can be used to reset the position error as the car comes to the floor. When the drive sees the leveling zone marker, the posi- Correction Distance tion counter is reset to reflect the actual distance entered in this parameter. The controller passes the leveling zone sensor signal to the drive via an input programmed as ‘Position Deviation Reset’...
Page 210 LP - Positioning Parameters LP07 - 08: Position Count Scaling Parameters LP06, LP07, LP08 provide a means independent from param- eters US06, LN21, LN22, LN23 to adjust the scaling of inches into counts on the motor encoder. The scaling is defined by the following relationship: counts/inch = (LP06 x 10000 + LP07)/LP08 Initially these values are calculated from the values entered into parameters LN21, LN22, LN23, LE02, and LE05.
Page 211: Lx - Special Functions Parameters
LX - Special Functions Parameters 6.11. LX - Special Functions Parameters LX01 With LX01 Auto Reset, all drive faults, except ‘Error Encoder Interface’ faults, can be automatically reset. Auto Reset The number adjusted in this parameter determines how many times per hour the elevator drive will automatically reset faults.
Page 212 LX - Special Functions Parameters LX07 This function is designed to protect the inverter from dangerous currents when operating at very low output frequencies. Depending on the motor design, the Carrier Frequency Handling drive may be forced to provide high currents at output frequencies below 3 Hz. This causes considerable thermal loading on the power transistors.
Page 213 LX - Special Functions Parameters LX09 This parameter adjusts the serial watchdog timer between the keypad and control card. Watchdog Time  A setting of 0 or Off turns off the watchdog timer. This mode of operation is recommended for trouble shooting purposes only. LX10 This parameter can be used to activate the temperature sensor input (T1 and T2) on the drive.
Page 214 LX - Special Functions Parameters This parameter can be used to trigger a drive warning/error if the actual motor LX13 speed deviates from the contract speed or command speed by more than the Speed Following Error window defined in parameter LX14. This function only works in closed loop speed control mode (i.e.
Page 215 LX - Special Functions Parameters When a digital output is set to Speed for Pre-opening, this parameter sets the LX15 LX15 speed threshold at which the output will activate to allow for door pre-opening Speed for Pre-Opening Speed for Pre-Opening in the leveled zone.
Page 216 LX - Special Functions Parameters This parameter sets the amount that the rotor learn value can differ from the LX22 average value. If the difference between the learned position and the average Encoder Deviation is greater than this setting a Rotor Learn Deviation Error will be triggered. This function is only active when Encoder Deviation Enable LX23 = On With Error and Rotor Detection Mode LE07 = NOP.
Page 217: Configuration Handling Parameters
CH - Configuration Handling Parameters 6.12. CH - Configuration Handling Parameters The Configuration Handling parameter group has the same functions as US05 Load Configuration, which is only accessible with the OEM level password or higher. The drive can be reverted back to default settings. The default settings are CH01 customizable and may vary from those from KEB.
Page 218 CH - Configuration Handling Parameters CH05 - 09: Configuration Wizard A pre-determined parameter list can be selected based on the parameters CH05 Motor Type, CH06 Rope Ratio, CH07 Contract Speed and CH08 Car Capacity, then loaded with parameter CH09 Program the Selection = Program. Configuration Wizard Currently NOT Implemented.
Page 219 CH - Configuration Handling Parameters Name: IE 478-LS IE 522 IE 522LS IE 525 IE 525LS IE 805 IE 808 IE 808-HD Torin Drive TD TGL1-3550 TD TGL1-3570 TD TGL1-3580 TD TGL2-3535-LV TD TGL2-3535-HV TD TGL2-3550-LV TD TGL2-3550-HV TD TGL2-3570-LV TD TGL2-3570-HV TD TGL2-5050 TD TGL2-5070...
Page 220 CH - Configuration Handling Parameters CH06 Setting: Rope Ratio Default = 1:1 (0) CH07 Contract Speed Setting: ft/min m/sec 0.38 0.75 1.27 1.77 1000 Default = 75 ft/min (0)
Page 221 CH - Configuration Handling Parameters CH08 Car Capacity Setting: 1000 1388 1500 2000 2200 1000 2500 1150 3000 1360 3500 1600 4000 1814 4400 2000 4500 2041 5000 2268 Default = 1000 lbs (0) CH09 Program the selection Setting: Program Default = Off (0)
Page 222 CH - Configuration Handling Parameters CH10 - 15: LED Diagnostics The LEDs on the serial operator are used to indicate operational status. In addition they can be used for troubleshooting or diagnostics. For each LED, a parameter will select whether the LED has its normal function or is mapped to a special function.
Page 223 CH - Configuration Handling Parameters Defines the function of the left LCD keypad operator LED. CH10 Left LED Function The hexadecimal address of the corresponding function being mapped to the CH11 left LED. This parameter auto populates once CH.10 and CH.13 have been Left LED Address defined and will not need further adjustment.
Page 224 CH - Configuration Handling Parameters LED Customization Examples: Input Status - This example provides parameter settings to map the Left LED to various programmable inputs LI04-LI11 using the DG01 Input Status. Parameter Setting CH.10 Input Status(DG02) CH.11 (Auto popu- 00009758h lated) LI04 00000010h...
Page 225: La - Analog I/O Parameters
LA - Analog I/O Parameters 6.13. LA - Analog I/O Parameters Analog Input 1 Settings LA01-07 for Analog Input 1 (AnIn1) correspond to terminal inputs AN1+ and AN1-. The noise filter suppresses disturbances and ripples of the analog input LA01 signals.
Page 226 LA - Analog I/O Parameters Analog Input 1 Scaling With parameters LA05-07 or LA15-17, the corresponding analog input signals can be adapted in X and Y direction as well as in the gain. The input value corresponds to the applied analog voltage. The output value is what is processed by the drive, calculated according to following formula: Out = Amplification x (In - X Offset) + Y Offset LA05...
Page 227 LA - Analog I/O Parameters LA06 This parameter shifts the input characteristic on the X-axis. Analog Input 1 X Offset +100% -10V LA06 +50% +10V -100% Example of 50% X-Offset LA07 This parameter shifts the input characteristic on the Y-axis. Analog Input 1 Y Offset +100% +50%...
Page 228 LA - Analog I/O Parameters Analog Input 2 Settings LA14-17 for Analog Input 2 (AnIn2) correspond to terminal inputs AN2+ and AN2-. LA.15 and LA.17 also include additional functionality when LC.01 = Closed Loop Digital Pretorque (4). LA.15 and LA.17 can be applied to the pretorque value when using LC.34 Digital Pretorque or FB.03 Field Bus Pretorque.
Page 229 LA - Analog I/O Parameters Analog Output 1 Settings LA31-35 for Analog Output 1 correspond with terminal ANOUT1. LA31 The following options in the table below can be assigned to the analog output. Speeds are scaled such that 10V = contract speed. Analog Output 1 Function Setting:...
Page 230 LA - Analog I/O Parameters Analog Output 2 Settings LA36-40 for Analog Output 2 correspond with terminal ANOUT2. Refer to parameter LA31 for description. LA36 Analog Output 2 Function Refer to parameter LA33 for description. LA38 Analog Output 2 Gain LA39 Refer to parameter LA34 for description.
Page 231: Lo - Outputs Parameters
LO - Outputs Parameters 6.14. LO - Outputs Parameters Allows the logic of the digital and relay outputs to be inverted. LO01 Output Inversion Setting Option: None /O1 + /O2 /RLY1 /RLY1 + /O1 /RLY1 + /O2 /RLY1 + /O1 + /O2 /RLY2 /RLY2 + /O1 /RLY2 + /O2...
Page 232 LO - Outputs Parameters The outputs are available to be programmed with one of the following output functions listed in table below. Setting: Description: Output is disabled. Fault* Output is set when there is a drive fault. Drive Ready* Output is set when there are no drive faults and the drive is ready for operation.
Page 233 LO - Outputs Parameters Setting: Description: Brake Control Output is set when the motor is in control and the brake should be released. The output is set when the motor phase current check (LX08; initiated by the drive enable and a direction input) has passed and the motor is magnetized, the LT01 Brake Release Delay has expired, and output voltage modulation has...
Page 234 LO - Outputs Parameters Setting: Description: Motor Overheat Output is set when terminals T1 & T2 are open. Tells the controller to stop at the next floor Cabinet Fan On Output is set when the drive heatsink reaches 40 degrees Celsius Condition 1 Output is linked to LO30-32.
Page 235 LO - Outputs Parameters LO30 When one of the output functions in LO05-20 is assigned as Condition 1, LO30 Data Value 1 is the value which will be evaluated against the LO32 Comparison Data Value 1 Level 1 according to the operand LO31 Condition 1. The setting for LO30 corresponds to the associated Dg parameter.
Page 236 LO - Outputs Parameters The diagram below is an abbreviated timing diagram of select output functions. Enable Direction + Speed Current Check Brake Release Delay LT01 Control Hold Oﬀ LT02 Speed Start Delay LT03 Brake Drop Delay LT10 Current Hold Time LT12 Current Ramp LT13...
Page 237: Fb - Field Bus Parameters
FB - Field Bus Parameters 6.15. FB - Field Bus Parameters DIN66019II Serial Protocol The DIN66019II serial protocol consists of various services, which are defined telegram structures for serial communication between controller and keypad operator. DIN66019II services 48, 49, and 50 will be supported. There will be an independent watchdog timer for the serial interface, the node ID will be adjustable from 1 to 128, and the available baud rates will be 9,600, 19,200, 38,400, 55,500, and 115,200.
Page 238 FB - Field Bus Parameters Process Data Overview The basic serial interface on the keypad operator consists of four 32-bit containers for incoming data (PDI - Process Data In) and four 32-bit containers for outgoing data (PDO - Process Data Out). Depending on the DIN66019II service used, the string of PDI data from the telegram will be deposited into two or more of the containers.
Page 239 FB - Field Bus Parameters Control Word (16-bit) The control word consists of serial inputs. The raw inputs may be masked with parameter FB05 Control Word Mask. Bit: Function: Enable Reset Down Binary Speed Input 1 or Binary Position 1 Binary Speed Input 2 or Binary Position 2 Binary Speed Input 3...
Page 240 FB - Field Bus Parameters Speed Word (16-bit, signed) Speed values are assigned FPM, with resolution 1 Raw = 0.1 FPM. There is no dependence on the gear type (geared or gearless, US03 Motor Type). The scaling from FPM to RPM is done internally according to the machine data parameters: LN01 Traction Sheave Diameter, LN02 Gear Reduction Ratio, and LN03 Roping Ratio.
Page 241 FB - Field Bus Parameters FB01-04: Processed PDI Data After the raw PDI Data (FB34-37) has been received from the controller, it may be masked or scaled (FB05-09), depending on which function (FB01-04: Control Word, Speed, Pretorque, Target Position) the data is mapped to via the PDI Map Assignments (FB17-20).
Page 242 FB - Field Bus Parameters Read-only display of processed field bus target position, where 1 = 1 count or 1 = 1/10th inch. PDI Data (Target Position) x FB08 Position Scale Multiplier _________________________________________ FB04 = 2^FB09 Position Scale Shift Right PDI Data (Target Position) is the FB34-37 parameter corresponding to target position, depending on the telegram structure.
Page 243 FB - Field Bus Parameters FB10-12: Serial Communication Setup Node ID must be set to agree with Node ID used in serial communication FB10 service structure (default = 1). DIN66019 Field Bus Node ID FB11 The serial communication baud rate corresponding to port X6C. DIN66019 Field Bus As a note, the LX12 Baud Rate corresponds to the (Combivis) diagnostics Baud Rate...
Page 244 FB - Field Bus Parameters FB13 - 16: Process Data Output Addresses These are the mappings of diagnostic parameter hex addresses for Process Data Out. For example, FB13 PDO1 = 1182h = DG02 Inverter Status. These parameters have the same structure as FB17-20; refer to these parameters for further description.
Page 245 FB - Field Bus Parameters FB14 Hexadecimal address of diagnostics parameter mapped as Process Data Output 2. PDO2 Map Assignment FB15 Hexadecimal address of diagnostics parameter mapped as Process Data Output 3. PDO3 Map Assignment FB16 Hexadecimal address of diagnostics parameter mapped as Process Data Output 4.
Page 246 FB - Field Bus Parameters Fb17 - 20: Process Data Input Addresses The function associated with PDI1, 2, 3, 4 must be assigned according to the information contained in the controller telegram structure. Parameter Structure (12345678): Field Bus Parameter Hex Address (1 - 4) + Set (5 - 6) + Size, Bytes (7 - 8) •...
Page 247 FB - Field Bus Parameters FB21 - 27: Process Data Input Function Selection Function selection via control word serial inputs. The available functions are the same as those for discrete digital inputs, described under parameter LI04. If both discrete digital input and serial input are assigned as the same function, then function will be OR-activated.
Page 248 FB - Field Bus Parameters The PDO Data are the actual value of the process data out, linked to the diagnostics parameters from the FB13-16 map assignments. FB30 Actual value of Process Data Output 1. PDO1 Data Actual value of Process Data Output 2. FB31 PDO2 Data FB32...
Page 249 FB - Field Bus Parameters FB50 - 53: DIN66019 Serial Communication Error Logs Used for troubleshooting. FB50 Temporary DIN Communication Error Counter FB51 Used for troubleshooting. Temporary DIN Communication Error Service FB52 Used for troubleshooting. Temporary DIN Communication Error Acknowledgement FB53 Used for troubleshooting.
Page 250 FB - Field Bus Parameters FB55 By using FB55, the fieldbus input speed can be filtered. This allows for the keypad operator to have an interpolation between the values that are being Software Filter given over the fieldbus. This allows for a less jagged response inside of the inverter due to the update rate being 5 ms between keypad operator and inverter, whereas the update rate between the controller and keypad operator can be much longer.
Page 251: Dg - Diagnostics Parameters (Combivis Only)
DG - Diagnostics Parameters (Combivis only) 6.16. DG - Diagnostics Parameters (Combivis only) The DG diagnostics parameter group is only viewable from the computer software program Combivis and not from the keypad operator. Most diagnostics can be found in the Diagnostics Menu from the Home screen. Refer to section 7.1 for additional information.
Page 252 DG - Diagnostics Parameters (Combivis only) Unit - Unit - Para: Name: Hex: English: Metric: DG39 Carrier Frequency 11A7h DG40 Electric Power 11A8h DG41 Motor Power 11A9h DG42 Braking Energy 11AAh DG43 Power On Counter 11ABh DG44 Run Time Counter 11ACh DG45 Overload Counter...
Page 253 DG - Diagnostics Parameters (Combivis only) Unit - Unit - Para: Name: Hex: English: Metric: Suggested UPS Direction DG79 11CFh DG93 Fault Log (Count) 11DDh DG94 Fault Log (Timestamp) 11DEh DG99 Last Fault 11E3h *Denotes additional information regarding parameter listed in parameter description.
Page 254 DG - Diagnostics Parameters (Combivis only) DG02 The following table describes the various inverter statuses and the value corresponding to each. Inverter Status Value: Description: No Operation EOP - Error Over Voltage EUP - Error Under Voltage EUPh - Error Input Phase Failure EOC - Error Over Current EIPh - Error Output Phase Failure EOHI - Error Overheat Internal...
Page 255 DG - Diagnostics Parameters (Combivis only) Value: Description: EiEd - Input Error Detection Eco1 - Error Counter Overrun 1 Eco2 - Error Counter Overrun 2 Ebr - Error Low Motor Current Eini - Error Initialization MFC EOS - Error Overspeed EHybC - Error Encoder Card Changed ECdd - Error Calculating Motor Data Up Acceleration...
Page 256 DG - Diagnostics Parameters (Combivis only) Value: Description: Abnormal Stop Drive Overheat Abnormal Stop Motor Protection No Abnormal Stop Overload Abnormal Stop Overload Abnormal Stop Overload 2 No Abnormal Stop Overload 2 Abnormal Stop Set Abnormal Stop Bus Synchronization Abnormal Stop Software Limit Forward Abnormal Stop Software Limit Reverse Abnormal Stop Maximum Acceleration Abnormal Stop Speed Control Limit...
Page 257 DG - Diagnostics Parameters (Combivis only) Value: Description: Emergency Profile Emergency Generator Speed Earthquake Speed Emergency Slowdown Dropped Serial EN No Communication to Encoder Card Encoder Communication OK Encoder Not Defined No Communication to Encoder Incremental Count Deviation Encoder PPR does not match LE01 Interface ID is wrong Encoder Overtemperature Encoder Overspeed...
Page 258 DG - Diagnostics Parameters (Combivis only) DG11 The displayed numerical value is the sum of the individual output weight- ings. For example, DG11 = 12 = Relay 1 (4) + Relay 2 (8). Output Status Value: Description: None Output 1 Output 2 Relay 1 Relay 2...
Page 259 DG - Diagnostics Parameters (Combivis only) DG51 The Mode indicates the operating state of the keypad operator. Mode Value: Description: Idle - Program Idle Fault Reset Fault Check Special Function Activate Special Function Tune Motor Pre Tune SPI Pre Tune Pole Pre Tune Encoder Pre Tune Inertia Pre Tune Overspeed Pre...
Page 260 DG - Diagnostics Parameters (Combivis only) DG52 The Active Profile displays which speed profile is active. Active Profile Value: Description: None Inspection High Speed One Floor Emergency Correction Emergency Slowdown DG53 The Active Speed displays which selected speed is active. Active Speed Value: Description: None...
Page 261 DG - Diagnostics Parameters (Combivis only) DG63 - 68 Displays the motor speed at which the corresponding NTSD input was last dropped in the corresponding direction. NTSD Speed Displays the total number of runs. DG69 Total Runs DG70 Displays the Calculated Motor Poles based on the following equation: # of Motor Poles = Rated Frequency (Hz) x 120 / Rated Speed (rpm) Calculated Motor Pole DG71...
Page 262 DG - Diagnostics Parameters (Combivis only) DG93 Displays the type and number of drive faults logged. Fault Log (Count) DG94 Displays the date and time of the drive faults logged in DG93. Fault Log (Timestamp) DG99 Displays the last fault generated by the drive. Last Fault...
Page 263: Ts - Terminal Slowdown Parameters
TS - Terminal Slowdown Parameters 6.17. TS - Terminal Slowdown Parameters Overview The terminal slowdown parameters configure the settings for inputs assigned as Normal Terminal Slowdown (NTS) inputs. (LI04-11). The purpose of the NTS inputs is to provide an expedited and/or an alternate slowdown means when the elevator speed approaching a terminal landing is greater than a defined level.
Page 264 TS - Terminal Slowdown Parameters Function The NTS input is an active low input controlled by the controller. When the NTS input is dropped (pulse or constant), the drive will begin to compare the encoder speed against the corresponding NTSD threshold and direction (TS03-08).
Page 265 TS - Terminal Slowdown Parameters NTSD Timing Diagram and Example Speed LS02 High Speed NTSD 1, 2, or 3 Speed threshold NTSD Slowdown Normal Profile TS02 NTSD Target Speed The diagram above and corresponding sequence (1-5) descriptions below show an example of a normal run (A) and a run in which the NTS is initiated (B). 1.
Page 266 TS - Terminal Slowdown Parameters The NTSD Mode defines the assignment of the NTS inputs to the NTSD TS01 speed thresholds. NTSD Mode The NTSD inputs can be assigned in parameters LI04 - LI11 to the corresponding hardware inputs X2A.10 - 18 or by FB21 - 27 to the corresponding serial Control Word special function bits 9 - 15.
Page 267 TS - Terminal Slowdown Parameters Threshold 1, NUM = 1 NTSD NTSD Function Input 2 Input 1 Normal operation Evaluate NTSD 1 Speed Threshold 2, Binary Encoded, NUM = 2 NTSD NTSD Function Input 2 Input 1 Normal operation Evaluate NTSD 2 Speed Evaluate NTSD 1 Speed Evaluate NTSD 1 Speed Threshold 3, Binary Encoded, NUM = 3...
Page 268 TS - Terminal Slowdown Parameters TS02 The speed, when NTSD is active, to which the drive will decelerate and maintain as the maximum speed until the end of the run (enable dropped). With analog NTSD Target Speed and serial speed control, a speed command below the NTSD target speed is allowed.
Page 269: Db - Debug Parameter Group (Combivis Only)
6.18. DB - Debug Parameter Group (Combivis only) These parameters display the execution time of the timer interrupts that are used to execute the software’s primary functions. This group is only visible with Combivis. DB00 Input Status DB01 DIN/Switch/ServSLV Time DB02 Lift Com Time...
Page 270: Diagnostics And Troubleshooting
Diagnostics and Troubleshooting 7. Diagnostics and Troubleshooting 7.1. Diagnostics Screens Home Screen Inverter Status Mode Motor Speed Command Speed Elevator Speed Motor Current Diagnostic Screen # 1 Inverter Status Motor Current DC Bus Voltage Peak Current Peak DC Volts Magnetizing Current Diagnostic Screen # 2 Inverter Status Command Speed...
Page 271 Diagnostics and Troubleshooting Diagnostic Screen # 9 Operator Software Date (ddmm.y) Operator Software Version Drive Software Version Drive Config ID Drive Software Date (ddmm.y) Enc. Interface Software Date Diagnostic Screen # 10 Inverter Status Active Profile Elevator Speed Active Speed Elevator Position Leveling Distance Diagnostic Screen # 11...
Page 272: Drive Faults
Drive Faults 7.2. Drive Faults Faults and errors, listed alphabetically. Additional troubleshooting of operational problems is listed in Section 7.3 and diagnostics solutions in Section 7.4. Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Abnormal Stop EBus Indicates Parameters FB50 - 53 show the error count, service, no serial and value of both serial ports X6C and X6D.
Page 273 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Data When LE12 = Encoder memory has not been formatted. To fix, enter Unspecified Data Unspecified, 2503 into Password to access drive parameters. Next, the encoder from the Program menu, hit F4 for File. Select Inverter memory is not parameter and then scroll down to user definition formatted.
Page 274 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error Charge ELSF Load shunt fault Load-shunt relay has not picked up, occurs for a short Relay Fault (15) time during the switch-on phase, but would automatically be reset immediately. If the error message remains the following causes may be applicable: Load-shunt defective - Replace inverter Input voltage incorrect or too low...
Page 275 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error Encoder1 EEnC1 Loss of For an incremental encoder interface, the recognition (32) incremental of encoder channel breakage or defective track triggers encoder channel a fault if the voltage between two signal pairs (A+/A-, or differential B+/B-, N+/N-) is smaller than 2V.
Page 276 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error Encoder EHyb Invalid encoder Check for correct encoder connections/pinout. Incorrect Card (52) interface identifier pinout may drag the encoder board power supply down. Check encoder card connection to control board for bent or missing pins and proper connection.
Page 277 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error EInI Control card Replace control card. Initialization (57) processor unable to boot. Error Low Error current Possible causes for low motor current error during Motor Current (56) check. current check: Prior to every run Motor contactor contacts are burnt or damaged.
Page 278 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error Low EOL2 Occurs if the The cause of the Low Speed Overload would be due Speed (19) low frequency, to excessive current at low speed (typically below 3Hz). Overload standstill constant The following may be causes of excessive current: current is exceeded (see Incorrect motor data.
Page 279 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error Motor EOH2 Electronic Excessive RMS motor current according to the LM08 Protection (30) Motor Overload Electric Motor Protection overload curve or if the LM11 protection was Peak Motor Current Factor is exceeded for more than 3 activated.
Page 280 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error Over Occurs when the The current and peak current may be viewed in Current specified peak Diagnostic Screen #1 or DG06 and DG31. To reset the output current is logged peak value, press the F4 Reset key from the exceeded or if Diagnostic Screen.
Page 281 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error Over Meg tests to check motor winding insulation can Current only be performed with the motor disconnected from (continued) the inverter. Failure to do so will result in damage to the output section of the inverter due to high voltage from the meg tester.
Page 282 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error Overheat The heat sink The heatsink temperature can be viewed in Diagnostics Power Module temperature Screen #7 or DG37. The overheat limit is 90 degrees rises above the Celsius for most drives (See Technical Data for units permissible limit.
Page 283 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error Overload Time dependent Cause of excessive motor overload may include: (16) overload (See overload curves Excessive current. under Technical Data, Section Verify correct motor data. 2.9). Verify correct encoder settings including: Error cannot be reset until display LE02 Encoder Pulse Number shows E.nOL!
Page 284 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error The internal The inverter internal overspeed is dictated as 110% of Overspeed (58) overspeed limit is the US06 Contract Speed. This level is fixed and cannot exceeded. be adjusted, except for when performing the Overspeed Test function (refer to parameters LL15, LL16 for further information).
Page 285 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error Excessive current Overspeed (58) (continued) Incorrect motor data, specifically the motor rated speed and frequency relationship for PM Synchronous Motors (see Section 5.5.2, LM02 or LM04 for details). Incorrect Encoder Pole Position for PM Synchronous Motors.
Page 286 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error Over The DC bus The DC bus voltage DG08 and the peak DC bus voltage Voltage voltage rises can be monitored in the Diagnostic screen #1 or DG08 above the and DG30. To reset the logged peak value, press the F4 permissible Reset key from the Diagnostic Screen.
Page 287 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error Over Measure DC bus directly and verify against DC bus Voltage voltage read from the Diagnostics screen. The DC (continued) bus should be approximately 1.41xAC Input phase-to- phase. If a braking resistor is used and there is an issue with the braking transistor: Test the braking transistor.
Page 288 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Error Rotor (169) When Error Rotor Learn Deviation occurs 10 times. Refer Learn COM to Error Rotor Learn Deviation Causes for additional information. Error Under The DC bus Causes for under voltage include: Voltage voltage drops below the...
Page 289 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) no Error nEOL2 No more Low speed overload has cleared and can be reset. Low Speed (20) overload. Overload no Error Motor nEdOH Over temperature Motor overheat sensor reset and Error Motor Overheat Overheat (11) reset possible...
Page 290 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Speed The encoder speed deviates from the command speed Following Error (152) by more than the amount set in LX14 Speed Difference for more than 1 second (fixed). The Speed Following Error can be ignored as a drive fault by setting LX13 Speed Following Error = Warning - Digital Output (if any of the outputs LO05, 10, 15, or 20 are set for At Speed, the controller may still generate a fault).
Page 291 Drive Faults Error/Message Alt. Description Cause/Solution/Troubleshoot (NUM) Speed Speed gains set too low. Following Error (152) (continued) If the speed following error occurs during acceleration or deceleration, the speed tracking may lag if the speed control gains are too low. Increase corresponding proportional speed gain for acceleration or deceleration.
Page 292: Additional Information
Additional Information 7.2.1. Additional Information Analog Signal Failure The Analog Signal Failure event will occur when no speed command is given within a certain time period at the beginning of a run with external profile pattern generation US04 Control Type = Analog (2,3) modes, and Serial (4,5) modes The timer is defined as: t = 2.5 x (LT01 + LT03)
Page 293 Additional Information Direction Selection Failure The Direction Selection Failure will occur if both direction inputs are signaled when the Drive Enable is initially signaled at the beginning of a run. Drive Enable Dropped Whenever the drive enable is dropped, output current will instantly be shut off. If the drive enable is dropped any time during the course of a normal run a Drive Enable Dropped event is logged.
Page 294 Additional Information Speed Selection Error The Speed Selection Error event will occur when no speed command input is given within a certain time period at the beginning of a run with US04 Control Type = Binary Speed (1), Digital Speed (0), or Serial Binary Speed (6).
Page 295 Additional Information Unintended Movement The Unintended Movement event occurs when the difference between the motor position during idle after a normal run, changes by more than the value set in parameter LX25 Unintended Motion Distance. The event is logged and requires a forced reset. A normal run is considered any run profile that is not inspection.
Page 296: Operation Problems
Operation Problems 7.3. Operation Problems Troubleshooting Operation Problems and potential solutions. Refer to Section 5.4 for additional Diagnostics Solutions. Additional troubleshooting of learn procedures are listed as well at the end of this section. Problem Cause/Solution/Troubleshoot Motor Does Not Move Check the Motor Current.
Page 297 Operation Problems Problem Cause/Solution/Troubleshoot Motor Draws High Current Verify correct motor data. For PM motors, verify the correct relationship between the Motor Rated Speed, Motor Rated Frequency and the number of motor poles (Diagnostic Screen #12). Refer to the text for further description. Perform a Motor Learn if this has not already been completed.
Page 298 Operation Problems Problem Cause/Solution/Troubleshoot Encoder slippage/mounting The position of the rotor must be known for synchronous (PM) motors for the (PM motors) drive to properly commutate the stator magnetic field and generate torque. Performing a encoder/rotor position learn (LL05 SPI or LL06 Encoder Pole Position Learn) determines a corresponding encoder position offset value for a given rotor position.
Page 299 Operation Problems Problem Cause/Solution/Troubleshoot Motor does not go the correct Check whether the Command Speed and Encoder Speed match (Home speed or cannot reach high Screen or Diagnostics Screen #1). . speed. Verify whether the Motor (Encoder) Speed is tracking the Command Speed. Check which Active Speed and/or Active Profile is selected.
Page 300 Operation Problems Problem Cause/Solution/Troubleshoot Motor only moves one direc- Check the motor current. Refer to Motor Draws High Current for additional tion; direction of weighting troubleshooting. (e.g. counterweights pulling up for empty car) Check the Command Speed for dictated speed direction and whether it changes between directions.
Page 301 Operation Problems Problem Cause/Solution/Troubleshoot Motor noise (Vibration) Increase the Sample Rate for Encoder (LE04) from 4ms (default) to 8ms. Verify correct motor data and whether motor learn has been performed. Reduce speed control gains (KP Proportional, KI Integral, KI Offset). Note, the default settings for an unroped PM motor may be too high.
Page 302 Operation Problems Problem Cause/Solution/Troubleshoot (Voltage) Modulation Grade Verify correct wiring of the motor, in particular with motors which have limit Reached multiple voltage winding arrangements (eg. dual rated 230/460V motors, wye-star/delta) For IM motor, reduce the Field-Weakening Corner LM24 to 60% of synchronous speed (720-480 rpm for 6-pole/60 Hz motor).
Page 303: Diagnostic Solutions
Diagnostic Solutions 7.4. Diagnostic Solutions Typical solutions in reference to operational problems in section 7.3. Item # Check/Solution Monitor the Input Status to For the given combination of inputs selected, verify which speed command Determine Active Speed and/ is selected according to the Control Type (US04) and Special Input or Active Profile (digital input Functions (LI03).
Page 304 Diagnostic Solutions Item # Check/Solution Monitor the Command Speed If the Command Speed and Motor (Encoder) Speed match, but the elevator and Motor (Encoder) Speed does not travel at the correct speed: Check Active Speed and Active Profile from Diagnostics and check whether the corresponding speed setting in the LS parameters is correct.
Page 305 Diagnostic Solutions Item # Check/Solution Verify correct Machine Data The Machine Data parameters are used as a scalar to translate the (LN) parameter settings. command speeds programmed in FPM to an rpm value used by the drive. Incorrect setting of the machine data parameters may cause the command speed in rpm to be too high or too low.
Page 306 Diagnostic Solutions Item # Check/Solution Check whether Maximum The LC30 Maximum Torque is used to limit the output current to the motor. Torque setting is reached It is primarily to protect the motor from extreme or prolonged high currents, and high enough for normal which may occur during initial setup or troubleshooting.
Page 307 Diagnostic Solutions Item # Check/Solution Check whether Inverter The drive will limit the maximum current to the inverter’s peak current Maximum Current Limit is rating. Refer to Section 2.4 and 2.5 for ratings. being reached. If the peak current limit is being reached, this may be due to: Incorrect Motor Data.
Page 308: Learn Procedure Troubleshooting
Learn Procedure Troubleshooting 7.5. Learn Procedure Troubleshooting Problem: Troubleshoot: Unable to start learn procedure. Check input signals: The Motor Tune, SPI, and the Encoder Pole Position Learn only require the Drive Enable (I7) to begin (for serial speed control modes, this includes the enable of the Control Word). The Encoder Synchronization and Inertia Learn require a run command (Drive Enable, Direction, and speed command).
Page 309 Learn Procedure Troubleshooting Problem: Troubleshoot: Unable to complete SPI Ensure correct motor data and that a Motor Tune has been procedure successfully completed. During the procedure, if a ‘Values are not consistent’ is displayed, then a learned value falls out of range of the average of previous values and the process will not complete successfully, but can be done again as necessary.
Page 310 Learn Procedure Troubleshooting Problem: Troubleshoot: Unable to complete Encoder Pole Ensure brake picks and the sheave is free to move relatively easily; Position Learn successfully should be able to rotate by hand. If the displayed position does not appear to change and the sheave does not move back and forth by a few inches, then the sheave is unable to move freely and the procedure cannot be complete.
Page 311: Parameter Reference
Parameter Reference 8. Parameter Reference 8.1. v3.34 Parameter List Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. m/sec US02 System Units 0282 ft/min m/sec ft/min ft/min Induction Geared Induction Gearless Induction US03 Motor Type 0283...
Page 312 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. No Function* UPS Operation* Reduced Torque* Emergency Profile* Emergency Generator Speed* Fault Reset External Fault Brake Release Confirm. Main Contactor Check Earthquake Speed Emergency Slowdown (ESD) Position Selection Position Deviation Reset...
Page 313 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. 479.7 lb-ft Calculated 655.0 Calculated 4797.0 lb-ft Calculated 6550 Calculated LM07 Motor Torque 0687 LF17 Basic 479.7 lb-ft 655.0 4797 lb-ft 65000 LM08 Electric Motor Protection 0688...
Page 314 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. 0.5 ms (2kHz) 1 ms (1kHz) 2 ms (500Hz) LE04 Sample Rate for Encoder 1 0584 LF29 4 ms (250Hz) ms (Hz) 4 (250) Basic 8 ms (125Hz)
Page 315 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. Source Channel 1 Channel 2 Actual Value Reserved Actual Value 1024 Channel 1 LE35 Encoder 2 Output PPR 05A3 US83 2048 Direct Division Direct LE36...
Page 316 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. Profile Setting Custom Medium (0); Custom Soft LS15 High Speed Profile 088F + External Basic Hard Profile Profile Source External Profile Internal Profile Custom Medium LS16...
Page 317 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. Intermediate Speed 3 LS47 08AF Adjuster Correction 15.2 0.30 12.00 ft/sec 4.00 LS48 ESD/ETS Deceleration 08B0 Adjuster 0.091 3.659 1.220 0.30 32.00 ft/sec 4.00 LS49...
Page 318 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. ft/min LC13 Speed for max KI Accel 0B8D US20 Adjuster 0.00 0.25 0.02 ft/min LC14 Speed for min KI Decel 0B8E US21 Adjuster 0.00 1.00...
Page 319 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. LT12 Current Hold Time 0E8C LF78 0.00 2.00 0.50 Adjuster LT13 Current Ramp Down Time 0E8D LF79 0.10 2.55 0.30 Adjuster LT15 AFE HV Idle Time 0E8F 0.00...
Page 320 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. LX01 Auto Reset 0D81 Basic 8 kHz 12 kHz LX02 Switching Frequency 0D82 LF38 Basic 16 kHz 4 kHz LX06 Function Test 0D86 US37 Basic...
Page 321 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. Default Normal Function Input Status (Dg01) Output Status (Dg11) Output Condition Status (Dg16) Default CH10 Left LED Function 0F8A Lift App. Control Word Normal Adjuster Inverter Control Word (Sy.50)
Page 322 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. None /O1 + /O2 /RLY1 /RLY1 + /O1 /RLY1 + /O2 /RLY1 + /O1 + /O2 LO01 Output Inversion 1081 do42 None /RLY2 /RLY2 + /O1 /RLY2 + /O2...
Page 323 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. DG10 Modulation Grade 118Ah ru42 None ru25 DG11 Output Status 118Bh LF83 RLY1 RLY2 None Condition 0 Condition 1 Condition 2 DG16 Output Condition State 1190h ru23...
Page 324 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. None Inspection Speed Leveling Speed Correction Speed High Speed DG53 Active Speed 11B5h Intermediate Speed 1 65535 Earthquake Speed Intermediate Speed 2 Emergency Generator Speed Intermediate Speed 3 UPS Speed...
Page 325 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. FB10 DIN66019 Fb Node ID 128A 9600 bps 19200 bps FB11 DIN66019 Fb Baud Rate 128B 38400 bps 38400 55500 bps 115200 bps FB12 DIN66019 Fb Watchdog 128C...
Page 326 Parameter Reference Setting Pass Para. Name v1.72 Motor/Gear Type Range Units Default Options Level Min. Max. Imp. Met. External Threshold 1 TS01 NTSD Mode 1381h Threshold 2, Binary Encoded External Threshold 3, Binary Encoded One switch per threshold 1600 ft/min TS02 NTSD Target Speed 1382h...
Page 327: V1.71 Crossover Reference
v1.71 Crossover Reference 8.2. v1.71 Crossover Reference v1.71 Description v3.34 v3.34 Description Parameter Parameter LF.2 Signal/Operating Mode US04 Control Type LF.3 Drive Configuration LL01-10 Tuning Parameters config Stop (Econfig) S Lrn LL01 Motor Tuning I Lrn LL10 Inertia Learn P Lrn LL06 Encoder Pole Position Learn LL05...
Page 328 v1.71 Crossover Reference v1.71 Description v3.34 v3.34 Description Parameter Parameter d.LF.31 KP Speed (Decel) LC04 KP Speed Deceleration P.LF.31 KP Speed (Pre-torque) LC05 KP Speed Pretorque A.LF.32 KI Speed (Accel) LC08 KI Speed Acceleration d.LF.32 KI Speed (Decel) LC09 KI Speed Deceleration P.LF.32 KI Speed (Pre-torque) LC10...
Page 329 v1.71 Crossover Reference v1.71 Description v3.34 v3.34 Description Parameter Parameter 1.LF.54 Deceleration LS53 Deceleration Inspection (Inspection, High Level) 2.LF.54 Deceleration (Emergency) LS43 Deceleration Emergency 0.LF.55 Flare Jerk LS25 Stop Jerk High Speed (High, Int.1-3 Speeds) LS35 Stop Jerk One Floor 1.LF.55 Flare Jerk LS55...
Page 330 v1.71 Crossover Reference v1.71 Description v3.34 v3.34 Description Parameter Parameter LF.99 Inverter State Diag #1-6,10 Inverter Status Ld.18 Field Weakening Corner LM25 Field Weakening Speed Ld.19 Field Weakening Curve Ld.20 Stator Resistance LM21 Motor Rs Ld.21 Sigma Inductance LM20 Motor Ls Ld.22 Rotor Resistance LM22...
Page 331 v1.71 Crossover Reference v1.71 Description v3.34 v3.34 Description Parameter Parameter US.34 Analog Pattern Gain LA05 AnIn 1 Gain US.35 Reference Splitting LX11 Reference Splitting US.37 Test Function LX06 Function Test US.83 Encoder 2 Output PPR LE35 Encoder Output PPR US.84 Analog Out 2 Signed LA36 AnOut2 Function...
Page 332 v1.71 Crossover Reference v1.71 Description v3.34 v3.34 Description Parameter Parameter ru.29 Analog Pre-torque Raw DG33/Diag.#5 Raw Pretorque ru.30 Analog Pre-torque Processed DG34/Diag.#5 Processed Pretorque ru.31 Analog Option Raw ru.32 Analog Option Processed ru.33 ANOUT1 Preamp ru.34 ANOUT1 Post Amplified Display DG35/Diag.#6 Analog Output 1 ru.35...
Page 333: Errata
Errata 9. Errata (v3.33) Rev1B Corrections Section 2.1.2: Specified to use manufacturer recommended tightening torque on bolts when mounting drive. Section 2.2.12: Added description of dielectric testing performed on all elevator drives and provided recommended settings for testing with the integrated system. Section 2.2.13: Added insulation measurement requirements.
Page 334 Errata (v3.32) Rev1B Corrections Section 2.6: Added 230V R housing peak unit dimensions and weight. Section 2.7: Corrected drive / motor wiring diagrams - removed line contactor. Section 2.8: Corrected part# on page 31. Section 4.2: Corrected the X6C / X6D pin out - A-/B+ for RxD and TxD were backwards.
Page 335 Errata Time and LT31 OLED Constant Speed Delay to timer parameters. Section 6.15: Corrected the PDI / PDO flow chart - the PDO section was reading as PDI. Section 6.16: Added DG78 Direction Change Counter. Corrected DG19 parameter set table to include 0=Idle and change Pretorque to =1. Fault Tables: Corrected the E.OP section describing the GTR7 turn on voltage;...
Page 336 Errata is more than 4000 off; this was changed to 2000 as this value is referenced elsewhere in the manual. Section 7.2: Modulation Grade Limit Reached description corrected; in reference to LM22, the lower limit of the parameter should be around 45%. Analog Signal Failure description corrected - Serial Serv.
Page 337 Errata Section 6.15: Service 50 Serial Binary (6) PDI default values updated. Section 6.16: DG75 Motor Speed (Calculated), DG76 Elevator Speed (Calculated), and DG77 Signed Elevator Speed (Calculated) added to support open-loop applications. Section 6.16: Inverter Status, DG02, (162) Drive Enable Switched Off and (180) Serial EN Dropped, added.
Page 338 Errata Section 6.1: NTS/ETS functions updated to accept speed command less than leveling speed (external speed control). Section 6.2: LI03 = B(Level - Inspection - Correction), NUM = 3, changed to Decode with LI16. Section 6.2: Main Contactor Check output function signaling and connection correct;...
Page 339: Combivis
Combivis 10. Combivis Combivis is a computer program that can be used to connect with the drive. The program can be used to set parameters in the drive, upload parameter settings from the drive, download parameters to the drive, and take scope traces of parameters for evaluation and diagnostics.
Page 340: Connection Cables
Combivis 10.1.3. Connection A PC computer can be connected to Combivis 6 using a KEB USB Serial Cables Converter or a Combivis Cable and USB to serial adapter. KEB USB Serial Converter Part Number: 0058060-0040 (USB cable part# 00F50C4-1030 included) USB to Serial Adapter* Part Number: 0000000-7938 *Requires FTDI chipset to work with Combivis 6 which can be downloaded at...
Page 341: Replacement Parts
Replacement Parts 11. Replacement Parts Part Number Description 00F5060-KL10 v3.34 LCD Serial Elevator Keypad Operator 1MF5K81-DZ19 TTL Encoder Card Kit (SubD; <= E housing) 2MF5K81-DZ19 TTL Encoder Card Kit (SubD; >= G housing) 1MF5K81-BZ05 TTL Encoder Card Kit (Screw-in Terminals; <= E housing) 2MF5K81-BY05 TTL Encoder Card Kit (Screw-in Terminals;...
Page 342: Transistor Tests
Transistor Tests 11.1. Transistor Tests The input and output circuits of the inverter can be checked externally with the inverter power off and the motor leads disconnected by use of a multi-meter set to diode check. Note: Different drive housings will have different readings. Measured values per housing are given in tables below.
Page 343 Transistor Tests Testing the IGBTs, output circuit measurement Positive Side Negative lead of meter to positive DC terminal. E, G, and H Housings Positive lead of meter to U/V/W terminals. Measurement Value Measurement Value + Terminal 0.3 - 0.4 - Terminal 0.3 - 0.4 + Terminal 0.3 - 0.4...
Page 344: Unintended Movement Test
Unintended Movement Test 11.2. Unintended Movement Test Refer to parameters LX21 Unintended Motion and LX25 Unintended Motion Distance. Checking the Unintended Movement Func on Complete a normal run Make sure the inverter status is “No Opera on” and mode is “Idle” Release the brake so the car dri s more than the unintended movement...
Page 345: Brake Release Confirmation Tests
Brake Release Confirmation Tests 11.3. Brake Release Confirmation Tests Refer to the corresponding LI Digital Input parameter that is programmed for Brake Release Con- firmation and LI20 Brake Switch Function. Checking the Brake Switch Func on in idle Remove 24V from the input used as Brake 1 or 2 Release Conﬁrma on Drive trips...
Page 346 Brake Release Confirmation Tests Checking the Brake Switch Func on at start Give a run command Keep 24V on the Brake [1 or 2] Release Conﬁrma on input Drive trips Brake [1 or 2] Switch Failure? Release the run command Func on is not properly working.
Page 347 Brake Release Confirmation Tests Checking the Brake Switch Func on at stop Give a run command Remove 24V on the Brake [1 or 2] Release Conﬁrma on input Release the run command Keep the 24V oﬀ the input Drive trips Brake [1 or 2] Switch Failure? Func on is not properly...
Page 348: Appendix
Appendix 1. Appendix Certification CE Marking CE marked frequency inverter and servo drives were developed and manufactured to comply with the regulations of the Low-Voltage Directive 2006/95/EC. The inverter or servo drive must not be started until it is determined that the installation complies with the Machine directive (2006/42/EC) as well as the EMC-directive (2004/108/EC)(note EN 60204).
Page 349: Appendix
Appendix 12. Appendix Certification CE Marking CE marked frequency inverter and servo drives were developed and manufactured to comply with the regulations of the Low-Voltage Directive 2006/95/EC. The inverter or servo drive must not be started until it is determined that the installation complies with the Machine directive (2006/42/EC) as well as the EMC-directive (2004/108/EC)(note EN 60204).
Page 350 Notes:...

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