Transcript
ECI2000TM05.doc
ECI2000 Closed Loop Door Operator Technical manual (Revision 2.0, Sep. 01, 2004) (Revision 2.1, Oct. 17, 2004) (Revision 2.2, Nov. 16, 2004) (Revision 2.3, July 29, 2005)
The complete manual consists of the following computer files: ECI2000TM02.doc fig_8_3_1.pdf fig_8_3_2.pdf fig_8_3_3.pdf fig_8_3_4.pdf fig_8_3_5.pdf fig_8_4_1.xls fig_8_4_2.xls fig_8_4_3.xls fig_8_4_4.xls fig_8_5_1.pdf fig_8_5_2.pdf 1
ECI2000TM05.doc
Table of contents 1. Safety notice 2. ECI 2000 door operator 2.1 Introduction 2.2 Technical data 2.3 Functional description 3. Electrical installation and modes of operation 3.1 Electrical installation 3.2 Setup mode 3.3 Scan mode 3.4 Automatic mode 4. Recommendations and remarks 5. Using the hand-held unit 6. Laptop interface commands 7. Tables 7.1 Functions of the LEDs 7.2 Inputs 7.3 Outputs 7.4 Adjustable parameters and user interface commands 7.5 Error log and the list of reported errors 7.6 Laptop link and the list of the commands 7.7 RS 232 extension cable 8. Diagram list. 9. Spare part list. 10. Troubleshooting guide 11. Electrical installation and the quick setup procedure Appendix A Appendix B1, B2 Appendix C1 Appendix C2 Appendix C3
DIP switch settings Door operator parameter lists ECI-2000-1100 printed circuit board ECI-2000-1101 printed circuit board ECI-2000-1101 rev. 1.0 printed circuit board
2
ECI2000TM05.doc
1. Safety notice. Observe these precautions: 1. Do not touch any circuit board, power device, or electrical connections without ensuring that high voltage is not present. 2. This unit has to be grounded. Do not apply power before grounding the unit. 3. Motor circuits may have high voltage present even if the motor is not rotating. Do not disconnect the motor before power has been removed. 4. Do not connect or disconnect any wires and connectors while power is applied to the unit. 5. Do not attempt to remove any boards or relays when power is present. Remove power first at the main disconnect and wait at least 5 minutes until power capacitors fully discharge. 6. Handle boards with care. The boards are static sensitive. Apply proper electrostatic discharge (ESD) procedures. Before applying power: 1. Verify wires are properly connected. 2. Remove all debris from the enclosure. Check for loose wire clippings. 3. Verify that the unit is grounded. 4. Verify that the supply voltage is 120V AC (+/- 10%), 60 Hz. 5. Verify that jumpers X1 and X2 have been set on the microcontroller board for the 24V DC inputs.
3
ECI2000TM05.doc
2. ECI 2000 door operator 2.1 Introduction The ECI2000 is a closed loop microprocessor controlled door operator. An encoder feedback continuously monitors door position while digital controllers and the speed profile generator calculate optimal performance. 2.2 Technical data. - supply voltage: 120V, 60 Hz, 500VA. - opto-isolated input voltage: 120V AC/DC or 24V to 48V DC/AC - input voltage selection: jumper selectable - user inputs: 9 - close command - open command - door locking command - nudging command - stop command - photo-eye protection contact - heavy door # 1 - heavy door # 2 - PANA633 light barrier direct input - user outputs: 5 (1 SPDT relay contact) - door closed - door open - advanced door closed limit - operator ready (optional, relay socket not installed) - spare (ECI-2000_1101 board: optional relay, socket not installed) (ECI-2000-1101 rev. 1.0: optional PANA633 output relay, socket not installed) - relay contact data: resistive load: maximum current 3A at 250V AC 3A at 30V DC minimum current 10mA, 5V inductive load (P.F. 0.4, L/R = 7ms): maximum current 1.5 A at 250V 2A at 30V DC minimum current 10 mA, 5V -signal diodes (LEDs): 19 - user interface: RS-232 for a hand-held unit or a laptop serial port -option DIP switch: - position 1: door type (ON centre opening, OFF single slide or 2-speed) - position 2: single point scan, ON enabled, OFF disabled - position 3: direction reversal switch - position 4: (software version prior to 1.11 : ON photo-eye input selection, OFF PANA633 input selection) 4
ECI2000TM05.doc
- position 4: (software version 1.11 and higher: DOL relay logic reversal for T-IV and TAC50 controllers: ON: DOL relay drops out within the door open zone, OFF: DOL relay picks up within the door open zone) - motor data: - 1/4 HP, 170V DC, 1100 rpm. - door maximum speed: 1m/s
2.3 Functional description The ECI 2000 door operator consists of the driving unit and the door transmission elements. The isolation transformer, the power stage and the microcontroller boards are enclosed in a steel box, which can be mounted on the top of the elevator cabin. The power switch has been installed inside the box. The microcontroller board provides access to user inputs and the power board provides user output signals (contacts). Refer to figures 8.3.1 trough 8.3.5 for connection details. The user inputs are opto-isolated. The outputs are in a form of normally open, and normally closed relay contacts (SPDT). The hand-held unit allows for easy parameter check and tuning. It receives power from the microcontroller board and uses a cable for connection with the board. A digital incremental encoder is mounted on the motor rear shaft. The motor is left hand or right hand side mounted allowing for the adaptation to the left or right hand side doors. A DIP-switch is used to set the motor direction of rotation with respect to the mechanical configuration. Neither motor nor encoder wires have to be reconnected when the mechanical arrangement has been changed.
5
ECI2000TM05.doc
3. Electrical installation and modes of operation 3.1 Electrical installation The input power at 120 V AC (+/- 10%) has to be connected as follows: live wire - to the power main switch (use a provided push-on connector) neutral wire - to terminal 2 of the J8 connector on the bottom board. ground wire - to the ground lug (AWG #14 is recommended). The equipment has to be grounded. The control input signals have to be connected to terminal blocks J1 and J4 on the top board. The control output signals have to be connected to terminal block J4 and if provided to terminal block J5 on the bottom board. The motor and the transformer are factory pre-wired. An optional RS-232 extension cable (part number ECI-2000-1390) may be connected to terminal block J5 on the top board. It allows setting up the door operator without opening of the box front cover. The “door closed” inductive sensor has to be plugged into the 3-pin header (JH1) on the bottom board. An optional PANA633 light curtain input can be used (part number ECI-2000-1380) with both the ECI-2000-1101 and ECI-2000-1101 rev.1.0 power boards. Refer to schematics 8.5.1 and 8.5.2. In the former case the PANA633 cable is plugged into the 2-pin header (JH2) on the power board and connected at the other side as follows: -red wire: from JH2 pin 1 to TRG in the PANA633 box -black wire: from JH2 pin 2 to 0V in the PANA633 box - DIP1 switch 4 has to be set to ON position. In the latter case follow 8.5.2 schematic because the JH2 header is not used anymore as the PANA633 input. It has been assigned to an optional door open limit sensor. Refer to schematic 8.3.2. 3.2 Setup mode This mode of operation may be chosen by the user or is forced by the power-up software initialization routine, when it detects the discrepancy between the stored setup data and the configuration of the option switches. Every door operator has to be setup after mechanical and electrical installation. The setup data are stored in a non-volatile memory and are later used in the scan mode after each power-up. Follow the setup procedure to set up the operator. 3.2.1 Setup procedure using the toggle switches
6
ECI2000TM05.doc
This setup procedure has to be carried out after initial installation of the door operator. In this mode the commands are accepted only from the switches. The position of the INSP switch is disregarded. 3.2.1.1. Move the door manually from its closed position to the fully open position and then stop the door in the middle position before applying power. Make sure that the door moves smoothly. 3.2.1.2. Set the option switches according to the setup table. Refer to appendix A. Verify the position of the input voltage select jumpers. Jumpers have only to be placed on terminals X1 to X8 for 24V to 48V inputs. 3.2.1.3. Set the “door close” limit inductive sensor as shown in diagram 8.1.2. 3.2.1.4. Switch the inspection switch to the ON position, and the setup switch and the SW3 switch to the OFF position. 3.2.1.5. Apply power with the power switch. After a short delay, the door operator will become initialized. If the D17 red LED is flashing, the software passed the self-test and is running. If the D17 red LED is lit, but is not flashing, refer to chapter 7.1 for troubleshooting information. Two green LEDs (D8, “ready” and D6, “main relay”) and two orange LEDs (D36, D37) have to be on. The orange LEDs indicate that the power stage has been enabled and is operational. Switch the setup switch to the ON position. The orange LED (D16) will start flashing indicating that the door operator is in the setup mode. 3.2.1.6. Start the closing cycle (SW3 toggled to CL, “close”). If the door starts to move in the wrong direction, stop it, then switch the main power switch off and switch DIP1 switch 3 to its alternate position. Return to step 3.2.1.5. 3.2.1.7. Allow the door to stop and stall at its fully closed position. Wait until the “door close” limit LED is lit (D3) and then stop the door (SW3 to OFF). After completion of the closing cycle start the opening cycle. If no errors were encountered during the setup closing cycle, the program will permit the execution of the next setup step. 3.2.1.8. Start the opening cycle switching SW3 to OP (open). If the door does not move in response to SW3, an error was encountered during the closing cycle. If the hand-held unit is available, display the error log, then re-check the position of the door close limit. With power on, check if the sensor LED and D7 LED are on. With power off, re-check the mechanical setup of the sensor. If the door starts to move, wait until the door stops, and stalls at the fully open position, and D4 LED lights up. If the setup has been successful, the orange LED will stop flashing. Switch the setup switch and the SW3 switch to OFF. The orange LED will be switched off. If the setup has not been successful, the orange LED will continue to flash. During the setup, the software determines the width of the door and preloads parameters accordingly. These parameters are chosen based on the door type and width and usually do not have to be changed. Compare the mass of your doors to the mass displayed on the hand-held unit (parameter P5A) The displayed mass shows the maximum mass of the door for which, the door kinetic energy will not exceed 10 J (7.4 ft-lb.) at any position of the door if the door is moving at the closing speed (parameter P1A). If the mass of your doors is higher than the displayed mass, lower the door closing speed and check parameter P5A again. 7
ECI2000TM05.doc
3.2.1.9. With the inspection switch in the ON position, run the door through the scan close, and open cycles (refer to 3.3) and then through the automatic close and open cycles (refer to 3.4). 3.2.1.10. If changes to the standard setup parameters are required refer to section 5.2.6. 3.2.2 Setup procedure with the hand-held unit This setup procedure may be used as an alternate to the procedure described in the previous section. It is assumed that the power to the door operator is on. 3.2.2.1. Plug-in the hand-held unit cable. After a few seconds the display will show: ECI KEYPAD VERSION X.YZ followed by ECI-2000 VERSION A.BC X.YZ and A.BC represent software versions of the hand-held unit and the door operator. Press the “ENT” key once and the “RIGHT” key twice, then the “DOWN” key once to read the latest error for future reference. 3.2.2.2 . Press the “ESC” key once and the “RIGHT” key twice. The display will show: T0 TESTING 3.2.2.3. Press the “DOWN” key twice, and the “ENT” key once. The display will show: T2 SETUP < CLOSE OPEN > Use the “LEFT” and “RIGHT” keys to close and open the doors. Use the “DOWN” key to stop the doors. You may exit the setup, using the “ESC” key, at any time without changes to the previous setup. 3.2.2.4. The closing cycle is the only one initially allowed, so press the “LEFT” key. Allow the door to stop and stall at its fully closed position. After completion of the closing cycle begin the opening cycle. If no errors were encountered during the setup closing cycle, the program will permit the starting of the next setup step. If the door does not move in response to the “RIGHT” key, press the “ESC” key, and check the error log. Then check if the LED on the sensor and D7 LED on the board are on. With power off re-check the mechanical setup of the sensor. 3.2.2.5. To start the opening cycle press the “RIGHT” key. Wait until the door stops and stalls at the fully open position. 3.2.2.6. During the setup, the software determines the width of the door and preloads parameters accordingly. These parameters are chosen based on the door type and width and usually do not have to be changed. Compare the mass of your doors to the mass displayed on the hand-held unit (parameter P5A) The displayed mass shows the maximum mass of the door for which, the door kinetic energy will not exceed 10 J (7.4 8
ECI2000TM05.doc
ft-lb.) at any position of the door if the door is moving at the closing speed (parameter P1A). If the mass of your doors is higher than the displayed mass, lower the door closing speed and check parameter P5A again. 3.3 Scan mode If the software does not choose the setup mode after power up initialization, the door operator will be working in the scan mode. In this mode, the commands are accepted from any available source (the elevator controller, the switches, or the hand-held unit). The highest command priority is assigned to the switches, followed by the hand-held unit and the elevator controller outputs. In the scan mode the door will be moving at the scan speed until the position counter is synchronized. The door will have to complete one close and one open cycle if DIP1 switch 2 is in the OFF position. However, if this switch is in the ON position, the position counter may be synchronized at the door fully closed position only. This operation is called a single point scan. Set the DIP1 switch 2 to ON position only if necessary on jobs where the elevator controller would prevent the door from reaching a fully open position (when the door is running at the scan speed) because of too short door dwell times. We also recommend that the so called “door watchdog timer” be set at least to 20 seconds for all single slide and two speed doors and at least to 15 seconds for centre opening doors. If the scan cycles have been completed, the software will compare the setup data to the scanned data and switch over to the automatic mode if the parameters are within tolerance. If the parameters are not within tolerance, the door operator will be shut down for 10 seconds and enabled again if the number of the shutdowns within an hour does not exceed 11. If the data do not match, even after a few trials, the door operator has to be setup again by a maintenance mechanic. The mismatch between parameters is very likely to happen after the board has been exchanged. It is highly recommended that the door operator be set up again when the microcontroller boards have been replaced. Refer to chapter 4 of this manual for further recommendations and remarks. 3.4 Automatic mode This is the basic operating mode for the door operator. The door is moved at the predetermined speed and all the control features of the software are active. The door operator responds to commands, which may come from any source, however, the command priority is taken into account. The highest priority is assigned to the command switches, followed by the hand-held unit, and the controller. The stop command, from the controller input or the hand-held unit overrides any direction commands. The lock command overrides the open command, but only in the automatic mode. The nudging command overrides all other door close speed references, switching over the closing speed to a level lower than: “heavy door 2/intermediate speed”, “heavy door 1”, and “close speed”. If the photo-eye input is connected or PANA633 light curtain input is wired to the ECI-20001101 power board and enabled (switch DIP1 position 3 ON), a door moving in the close direction will slow down immediately if the mentioned inputs have been activated. The door will continue to move in the closing direction at a reduced torque level equal to the nudging torque. Under these conditions an elevator controller would reverse the door if the door is not running in the nudging mode. The above feature eliminates any need for an additional control input during the “fire recall” mode. 9
ECI2000TM05.doc
4. Recommendations and remarks A complex electronic system such as a door operator has to be maintained properly to ensure long and reliable operation. We recommend that the following rules be observed when servicing, installing, and replacing the door operator equipment. 4.1 Only qualified personal shall be allowed to service the door operator. 4.2 High voltage is present in this system. When replacing the boards disconnect power to the door operator at the main disconnect, and wait at least 5 minutes to allow for the capacitors to be discharged. 4.3 Mechanical adjustment on the belt gear should be carried out after the power has been switched off. Use the main disconnect to switch off the power. 4.4 No wires should be disconnected or unplugged when power is present. 4.5 Fasten all the incoming cables to prevent the plugs from being pulled out by gravity or vibration. 4.6 When using the hand-held unit, make sure, its cable will not be caught by any moving parts. 4.7 When replacement of the boards is required, it is recommend that the whole board assembly is removed and sent back to ECI. The assembly consist of the microcontroller board and the power board. 4.8 The “door closed” inductive sensor is used as a hardware backup for the “door closed” relay. The relay will pick up if both the software and the hardware confirm that the door is closed. 4.9 The hand-held unit is a recommended tool for the door operator setup. 4.10 Avoid touching any elements on the boards when the power is applied to the operator. 4.11 Some parts are static electricity sensitive. Handle the boards with proper care. 4.12. When adjusting or testing the operator, a barricade in front of the hall door is recommended as a safety provision.
10
ECI2000TM05.doc
5. Using the hand-held unit Unit characteristics: - hand-held, tactile push button keypad - two-line, 16 character, LCD display - a standard RS-232 straight-through cable - available functions: - tuning of regulators - parameter adjustment - monitoring various signals - error log reading - close and open cycle testing and simulation. The hand-held unit is a recommended tool for adjustment of the door operator. Its RS-232 cable may be plugged into the DB-9 connector placed on the board. The hand-held unit uses only 6 keys to navigate the command menu. Four keys are the direction keys (“UP”, “DOWN”, “LEFT”, “RIGHT”) and two keys are the execution keys (“ESC” - escape, “ENT” - enter). The “ESC” key will move the display back to the previous selection in the menu. The “ENT” key moves the display down into a submenu or forces execution of a command. If any key is not active at the current level, it is ignored by the software. The menu resembles an upside down tree. The staring point for the menu is M0 (MONITORING). After applying power to the hand-held unit, the unit starts to communicate with the microcontroller board. Initially a message is displayed showing the hand-held unit software version number. After a few seconds, if the link has been established, the second message is displayed. This message displays the microcontroller software version. In the next step, the user may enter into the menu by pressing the “ENT” key. It is recommended that the users always terminate the operation by pressing the “ESC” key a few times until the message reads “LINK TERMINATED”. The menu windows are described subsequently. Refer to diagrams 8.4.1 through 8.4.4 showing the layout of the menu tree. At the top level, the menu tree has five windows. Use the “RIGHT” or “LEFT” keys to scroll from one window to the other. To enter a window above or below the main window use the “UP” or “DOWN” keys. The names of the windows have been listed below. The first letter displayed in the upper row always corresponds to the first letter of the branch name. M0 MONITORING - entry into the monitoring branch P0 PROGRAMMING - entry into the programming branch E0 ERROR LOG -entry into the error log U0 UTILITIES - entry into the utilities branch T0 TESTING - entry into the testing branch While at the top level (level 0) pressing “ESC” brings the display to M0 window or terminates the link from the M0 window. 5.1 M0-MONITORING This branch displays some of the system parameters, which are updated at a rate from 0.2 to 2 seconds (depending on their rate of change). Most of them are self-explanatory: 11
ECI2000TM05.doc
M1 DOOR SPEED M2 MOTOR CURRENT M3 CLOSE TIME M4 OPEN TIME M5 CLOSE CYCLES - the number of the close cycles performed by the door operator M6 OPEN CYCLES - the number of the open cycles performed by the door operator M7 POSITION - door position; number of the encoder pulses. There are 85758 pulses for 1 m of the door traveling distance M8 DOOR WIDTH - door width as measured during the setup. This value corresponds to the door traveling distance. M9 SYSTEM TIME - indicates for how long power was applied to the door operator. It is not a real time clock. M10 BUS VOLTAGE - displays the DC bus voltage. This voltage is “chopped" by the PWM circuit. M11 LEM VOLTS - current sensor voltage; 2.5V +/- 0.050V represents zero current M12 SOFTWARE - displays microcontroller software version M13 INPUTS - displays the status of the input signals connected to the J1 and J4 connectors (the input byte). A “1” represents an active input. bit 0 - DO7, door close command bit 1 - DO10, door open command bit 2 - DO18, door lock command bit 3 - DO4, door nudging command bit 4 -STOP, stop command bit 5 - PHDT, photo detector contact bit 6 - HD1, heavy door 1 contact bit 7 - HD2, heavy door 2 contact M14 INPUT PORT - displays the status of the input signals from the switches placed on the board. bit 0 - DIP switch 1, door type bit 1 - DIP switch 2, single point scan bit 2 - DIP switch 3, direction reversal switch bit 3 - DIP switch 4, refer to Appendix A. ( bits 0 -3 are active low and the display shows a “0” if the corresponding bit is active, and a “1” if it is not.) bit 4 - setup switch bit 5 - inspection switch bit 6 - close command switch bit 7 - open command switch (bits 4 -7 are active high) M15 LED PORT -this byte displays the status of the output port (the status of LEDs D10 - D17). Refer to table 7.1.1 and 7.1.3 for more information M16 OUTPUTS - this byte represents the output signals bit 0 - “spare” relay energized (valid for ECI-2000-1101 rev.0 boards) bit 1 - “door operator ready” relay energized bit 2 - “main” relay energized bit 3 - “advanced door closed” relay energized bit 4 - “door open” relay energized bit 5 - “door closed” relay energized bit 6 - “door closed” sensor active bit 7 - H-bridge driver supply enabled 12
ECI2000TM05.doc
5.2 P0-PROGRAMMING The programming branch has six submenus. To scroll through the submenus use the “UP” and “DOWN” keys. To enter one of the submenus use the “ENT” key. When the submenu is entered, the orange signal diode lights up (SUB MENU). To scroll in the submenu, use the “UP” and “DOWN” arrows. To change a parameter, press the “ENT” key. If access to programming has been enabled, the cursor will start to blink. Move the cursor around with the “LEFT” and “RIGHT” keys, change a value at the current location using the “UP” and “DOWN” keys. To enter a newly selected value press the “ENT’ key, to escape without changes, press the “ESC” key. If an entry exceeds the allowable range, a parameter will be overwritten after exiting from the data entry level. Some of the entries may also be slightly rounded by the software even if they are in the correct range. The changes are negligible (less than 1%). Pressing the “ESC” key allows returning to the previous level. All the parameters are always readable, but they may be changed only if access to programming has been enabled (refer to U3-PASSWORD). Programmable parameters are listed in sections 7.4 and 7.7. Speed reference profiles are shown in diagrams 8.1.1, 8.1.2 and 8.1.3. 5.2.1 P1-SPEEDS Eight speed parameters are included in the P1 sub-menu. The parameters are displayed in mm/s or ft/s. P1A CLOSE SPEED - maximum door closing speed during the closing cycle P1B HD1 SPEED - maximum door closing speed if the H_D1 input is active. This speed will be always lower than the P1A speed. P1C HD2 SPEED Software version prior to 1.11: maximum door closing speed if the H_D2 input is active. This speed will be always lower than the P1B speed. Software version 1.11 and later: maximum door closing speed if the H_D2 input is active equal to the intermediate speed (refer to diagram 8.1.2) P1D NUDGE SPEED - door nudging speed P1E CLOSE SLOW - slow closing speed during final approach to the terminal position P1F SCAN SPEED - closing and opening speed in the scan mode P1G OPEN SPEED - maximum door opening speed during the opening cycle P1H OPEN SLOW - slow opening speed during final approach to the terminal position P1J PL SPEED - slow pre-opening at the beginning of the open cycle 5.2.2 P2-PROFILE The units used are mm/s2, mm/s3 or ft/s2, ft/s3. P2A ACC. RATE - door acceleration rate; prior to ver. 1.14 P2A ACC. CLOSE – close cycle acceleration rate; ver. 1.14 and later P2B DEC. RATE - door deceleration rate; prior to ver. 1.14 P2B DEC. CLOSE – close cycle deceleration rate; ver. 1.14 and later P2C FAST RATE - fast deceleration rate during reversal or stop P2D JERK RATE - door jerk rate; prior to ver.1.11 P2D INT. RATE - intermediate deceleration rate; ver. 1.11 and later P2E ACC. OPEN - open cycle acceleration rate; ver. 1.14 and later P2F DEC. OPEN – open cycle deceleration rate; ver. 1.14 and later 13
ECI2000TM05.doc
5.2.3 P3-CURRENTS Eight current (torque) levels can be programmed in this submenu. Door closing, opening and dynamic forces are proportional to the respective motor currents. P3A OVERCURRENT - motor overcurrent level. If this level is exceeded the motor will be shut down. P3B ACC. CRNT - motor acceleration current. Applied current limit during acceleration. P3C DEC. CRNT - motor deceleration current. Applied current limit during deceleration. P3D OPEN CRNT - steady state current during the opening cycle. P3E CLOSE CRNT - steady state current during the closing cycle. This current determines the door closing force. P3F NUDGE CRNT - steady state current during the nudging cycle. This current determines the door closing force level in the nudging mode. P3G HLD OP CRNT - the level of this current determines the door holding force when the door is in its fully open position (hold open current). P3H STALL CRNT - this current determines the level above which the door is considered to be stalled, if its speed is equal to zero. The suggested setting is between 0.5A and 0.7A. 5.2.4 P4-DISTANCES Four parameters may be set in this submenu. Units used are mm or inches. P4A CL. SLOW - the final distance from the fully closed position when the door will be moving at the slow close speed (P1E). P4B OP. SLOW - the final distance from the fully open position when the door will be moving at the slow open speed (P1H). P4C ADV. DCL - the distance from the fully closed position when the “advanced door closed” limit signal is activated P4D PREOPEN - initial distance when the door is moving at the pre-open speed at the beginning of the opening cycle 5.2.5 DOOR DATA Units used are kg or lb. These parameters are readable parameters only. They are calculated based on the kinetic energy limit of 10J [Joules] and the door closing speed, heavy door 1 closing speed, and heavy door 2 closing speed. P5A DOOR MASS - the mass calculated from the kinetic energy equation Mass[kg] = (2 * 10 [Joules]) / (close speed [m/s]* close speed [m/s])
14
ECI2000TM05.doc
P5B HD1 MASS P5C HD2 MASS
- as above, but (hd1 speed) is used to calculate the mass - as above, but (hd2/intermediate speed) is used to calculate the mass
5.2.6 P6-CONTROL All the parameters in this submenu allow setting of the dynamics of the digital controllers. The system uses three controllers to control motor current (torque), motor speed, and door position. Follow the recommendations below when adjusting the controller gains. The current controller is of PI type. Its gains have been determined at the factory and (generally) changes to the settings are not required. The IKP and IKI are the proportional and the integral gains of this controller. Typical values for IKP are from 500 to 1000. Typical values for IKI are from 30 to 80. It is recommended that these gains not be changed if they are within the recommended ranges. The speed controller is of PID type. The VKP, VKI and VKD are its proportional, integral, and derivative gains respectively. The values of these three parameters mainly determine the responsiveness of the door operator. The speed proportional gain parameter (VKP) may be increased or decreased to suit application. Increasing the parameter, results in faster response. Too high a gain may cause overshoot and ringing (oscillations). Decreasing the parameter results in slower response. The speed integral gain parameter (VKI) controls the stiffness of the controller. Increasing this parameter increases the low frequency stiffness but may cause overshooting and oscillations. The speed derivative gain parameter (VKD) controls the high frequency response of the controller providing dampening to eliminate oscillations and minimize overshoots and ringing. Dampening is given as a force, proportional to the rate of change of speed error. Increasing the parameter reduces overshoots and stabilizes response. Too high a setting may lead to oscillations. P6A IKP P6B IKI P6C VKP P6D VKI P6E VKD P6F PKP P6G SCL P6H FER
- current controller proportional gain - current controller integral gain -speed controller proportional gain -speed controller integral gain -speed controller derivative gain -position controller proportional gain -position error scaler (the lower the scaler the higher the overall system gain, however too low a scaler may cause system oscillations) -position following error (the difference between the required and the current door position). If this difference has been exceeded the door control will reduce the door speed and closing force.
15
ECI2000TM05.doc
5.3 E0-ERROR LOG Windows E1 to E30 display the error name and time. If the error buffer is filled up, a new error will overwrite the oldest one. The error log can be cleared from any error window (E1 - E30). Press the “ENT” key and then either the “ESC” key to cancel the operation or the “ENT” key to clear the log. If the drive is not running, the “LOG CLEARED” message will be displayed. Otherwise, the “STOP DRIVE” message will show up in the window. One can stop the drive or wait until it stops automatically. The command has been latched and the error log will be cleared as soon as the drive stops. Use the “ESC” key to exit. 5.4
U0-UTILITIES U1-DISPLAY UNITS The hand-held unit may display either metric or imperial system units. To change the unit system press the “ENT” key. An asterisk shows up in the window and the red signal diode lights up (DATA). Using the “UP” or “DOWN” key select the unit system and press the “ENT” key if you accept the change or the “ESC” key to cancel your election. Press the “ESC” key again to exit. U2-D/A CHANNEL The digital to analog channels may be used for adjustment or troubleshooting. A digital oscilloscope with a roll mode feature is the most suitable for this purpose. This window allows selecting an analog output from test channel 1 (TP3). Test channel 2 (TP4) displays the motor speed only, and is not selectable. After power-up, channel 1 displays the speed reference and channel 2 the motor speed. To select a different output on channel 1, press the “ENT” key. The asterisk shows up in the window and the red signal diode (DATA) lights up. Using the “UP” or “DOWN” keys, select a required channel and press the “ENT” key to accept the selection or the “ESC” key to exit. Press the “ESC” key again, to return to the U0-UTILITIES window. U3-PASSWORD After power-up, access to programming is denied. All the parameters under the P0PROGRAMMING branch are readable, but they cannot be changed. The default password is 0. If one wants to enable access to programming and the default password has never been changed, one has to press the “ENT” key followed by the “ESC” key. If the default password has been changed, one has to press the “ENT” key and then enter the right password using the direction keys, and complete the operation by pressing the “ENT” key. If the correct password has been entered, access will be enabled. The range of the password entries is from 1 to 9998. U4-NEW PASSWORD If the window displays “ACCESS DENIED”, to change the password one has to enter the password correctly in the U3 window, or enable the access if the default password is used. If the window displays “ACCESS ENABLED” press the “ENT” key and enter a new password. Then press the “ENT” key again. Press the “ESC” key to return to the U0 level. 16
ECI2000TM05.doc
U5-CONTRAST If your hand-held unit has a small hole at the left bottom side of the box then the display contrast may be adjusted by a potentiometer located there. Use a narrow flat tip screwdriver to adjust the display contrast. If your hand-held unit does not have the hole, use the U5-CONTRAST utility to adjust the contrast. Press the “ENT” key and using the “UP” key, reduce the display contrast or using the “DOWN” key, increase the display contrast. To accept the changes, exit by pressing the "ENT" key. 5.5
T0-TESTING
This branch allows control of the door close, open, and stop signals from the hand-held. This feature allows the hand-held unit to override the inputs at the J1 terminal block. However, the hand-held unit will itself be overridden by setting the INSP switch on the microcontroller board to the ON position. There are two options under the T1 branch: T1-AUTOMATIC and T2-SETUP. T1 allows selecting one of four submenus (T1A - T1D). T2 may be used to perform the setup. It is recommended that the initial setup after the first installation, be done with the switches located on the microcontroller board. 5.5.1 T1-AUTOMATIC To enter one of the submenus, press the “ENT” key and using the “UP” or “DOWN” keys, select the required closing speed reference level. Consecutive pressing of the “ENT” key brings the control into a submenu (DATA signal diode is lit) and enables four direction keys. The functions of the direction keys are as follows: “LEFT” - close command “RIGHT” - open command “DOWN - stop command “UP” - cancel the stop command (start command) The submenus allow choosing one of the closing speed reference inputs to test operation of the door operator in various modes. The submenu functions are self-explanatory. T1A NORMAL T1B NUDGE T1C H_DOOR1 T1D H_DOOR2 5.5.2 T2-SETUP One can use the T2 SETUP window to perform the setup of the door operator with the hand-held unit. The setup mode overrides all other modes, however it may be exited before its completion. To enter the setup mode press the “ENT” key and use the “LEFT” and “RIGHT” keys to close and open the door. The setup has to be started when the door is partially open. The close command has to be executed first. To quit the setup before it is fully completed press the “ESC” key. Uncompleted setup will not make any changes to the previous setup. 17
ECI2000TM05.doc
6. Laptop interface commands A laptop computer with any communications software may also be used to set up the door operator. For successful interface your computer must use an RS-232 serial link set to 4800 baud rate, 8 bits, no parity, one stop bit. The serial cable has to be plugged into the JPH1 DB-9 socket. A straight-through cable with a DB-9 plug at one end and a DB-9 socket at the other end must be used. Commands have to be typed as lower case letters. Each command consists of a “three character word” sometimes followed by an “ = “ sign and a number. If the number has an invalid format the door operator will respond with a FORMAT ERROR message. If an entered value is out range, the operator will respond with an OUT OF RANGE message. Proper format of the commands is shown in section 7.7 of this manual. Typing entered from the keyboard is echoed to the screen. If typed characters are echoed twice, disable the echoing option in your communications software. Initialization of the link starts with the “pcc” command. The door operator will answer with: PC_LINK, OK * MONITOR *. Each session has to be terminated with the “end” command.
18
ECI2000TM05.doc
7. Tables 7.1. Functions of the LEDs 7.1.1 Diodes D10 - D17 If D17 (red) is continuously lit or it is off, it indicates that the power-up self-test failed. The door operator has been disabled and the software will try to display the latest encountered error (when D16 is off) or the major failure source (when D16 is on). See table 7.1.1 and 7.1.2 for the failure lists. Table 7.1.1
(D17 ON, D16 ON, D15 OFF)
D17, D16, D15 D14 (if ON) D13 (if ON) D12 (if ON) D11 (if ON) D10 (if ON) Table 7.1.2
ON, ON, OFF Data stored in Eeprom not in range Eeprom failure, lower block Eeprom failure, upper block SRAM failure Register failure
(D17 ON, D16 OFF)
Diodes D10 to D15 display a binary error code. If the self-test reports an error, write down the code of the error and repeat the power on reset. If the error persists, report it to Elevator Components Inc. and exchange the boards. Errors from 3 (000011) to 33 (100001), and from 40 (101000) to 48 (110000) are related to microcontroller hardware failures. Errors from 34 (1000010) to 38 (100110) are related to SRAM failures. Error 49 (110001) is related to eprom checksum failures. The error code displayed on the output port is linked to a hardware failure as listed in table 7.1.2. An "H" in the table on the next page denotes a lit LED.
19
ECI2000TM05.doc
Table 7.1.2 D15
D14
D13
D12 H H H H
H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H H
D11 H
D10 H H
H H
H H
H H H H H H
H H
H H
H H
H H H H H H H H H H H H H H
H H
H H
H H
H H H H H H
H H
H H
H H
H H H H H H H H H H H H H H H H H H H H
H H
H H
H H
H H H H H H
H H
H H
H H
H H H H
H H
Error #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 #30 #31 #32 #33 #34 #35 #6 #37 #38 #39 #40 #41 #42 #43 #44 #45 #46 #47 #48 #49 #50 #51 #52 #53
20
Error p3_register not used p2_dir p2_reg p2_mode not used p5_dir p5_reg p5_mode wg_out wg_con wg_reload wg_comp1 wg_comp2 wg_comp3 wg_protect portABdir portABdata ad_time ad_test t1control comp2_con p1_dir p1_reg p1_mode baud_rate ptscount_ad ptscount_comp2 ptscount_epa0 time_tick_50, time_tick_500, timer1_aux1-4 pwm_period cl_cycles, op_cycles error_buffer (SRAM) hand-held unit buffer (SRAM) timers structure (SRAM) rdb, rdw, rdl command initialization comm0 port ring buffer a/d channel 3 a/d channel 4 a/d channel 2 a/d channel 1 a/d channel 0 (higher than 2.5V + 0.050V) a/d channel 0 (lower than 2.5V - 0.050V) microcontroller ALU unit microcontroller ALU unit microcontroller ALU unit eprom checksum not used not used not used not used
ECI2000TM05.doc
Table 7.1.3
(D17 flashing)
D17 (flashing) D16 D15 D14 D13 D12 D11 D10
( if ON) (if ON) (if ON) (if ON) (if ON) (if ON)
Software is executing (system heartbeat) If ON - setup required or setup completed If flashing - setup in progress Forced slowdown (emergency slowdown) Stop executed (stop command input activated) Reduced speed input(s) activated Stop requested (internal system command) Open command active Close command active
7.1.2 Diodes D3 - D9 These diodes are related to the output relays and the door close sensor Table 7.1.4 D7 D3 D4 D5 D6 D8 D9 7.1.3
“door closed” sensor activated (the door is within 1” of its fully closed position) door closed” relay picked up “door open” relay activated “advanced door closed” relay picked up “main” relay picked up (applies output voltage to the motor) “door operator ready” relay picked up “spare” relay output activated (only ECI-2000-1101 “no revision” board) Diodes D36 - D39
These diodes signal the operation of the power bridge gating signals. Table 7.1.5 D36, D37 D38 D39
If flashing very quickly - power bridge controlled by the system If OFF -power bridge not working (shutdown) Always off Dynamic braking activated (DC bus discharge circuit activated)
7.2 User inputs User inputs are accessed through the 5-pin connectors J1 and J4 on the microcontroller board. Pin 5 of J1 (COM1) is a common wire for inputs: DO7, DO10, DO18 and DO4. Pin 5 of J4 (COM2) is a common wire for inputs: STOP, PHDT, H_D1 and H_D2. All the inputs are 120V AC/DC or 24V to 48V AC/DC (jumper selectable). All inputs are active HIGH. Refer to schematic 8.3.3 and 8.3.4.
21
ECI2000TM05.doc
There is only one user input on the power board. This is an input exclusively used as an interface to the PANA633 light barrier. On the ECI-2000-1101 power boards the JH2 header is used as an input. On the ECI-2000-1101 rev. 1.0 power boards the J5 pin 7 is used as an input. Refer to schematics 8.5.1 and 8.5.2. 7.2.1
Functions of the inputs
Table 7.2.1 Connection Pin 1 Pin 2 Pin3 Pin4 Pin5
Table 7.2.2 Connection Pin 1 Pin 2 Pin3 Pin4 Pin5
(terminal block J1 on the microcontroller board) Name DO7 DO10 DO18 DO4 COM
Function of the input door close command door open command door locking command door nudging command Common for pins 1 to 4
(terminal block J4 on the microcontroller board) Name STOP PHDT H_D1 H_D2 COM
Function of the input door stop command photo-detector input (future use) heavy door 1 heavy door 2 Common for pins 1 to 4
7.3 User outputs All the user outputs are in a form of a single pole double throw (SPDT) relay contact. The relays have been placed on the power board. The relay coils are opto-isolated from the microcontroller circuits. The contact ratings are listed below: Resistive load: maximum current minimum current
3A at 250V AC 3A at 30V DC 10ma, 5V
Inductive load (P.F. 0.4, L/R = 7ms): maximum current
1.5 A at 250V 2A at 30V DC
minimum current
10 mA, 5V
These contacts can reliably operate with the opto-coupled controller inputs. 22
ECI2000TM05.doc
Remarks: 1. Before replacing any relays, the power has to be switched off for at least 5 minutes to allow capacitors to discharge. 2. Relay coils are energized when the microcontroller signals are active high and the driver opto-coupler outputs are active low. 7.3.1 Functions of the outputs Table 7.3.1 Pin 1 2 3 4 5 6 7 8 9
Relay K1 " " K2 " " K3 " "
Table 7.3.2 Pin 1 2 3 4 5 6 7
Relay K5 " " K6** " "
(terminal block J4 on the power stage board) Name DCL " " DOL " " ADVCL " "
Diode D3
D4
D5
Contact NO3 DO17 COM3 NO4 DO3 COM4 NO5 NC5 COM5
Function door closed limit, normally open contact door closed limit, normally closed contact common for the contacts door open limit, normally open contact door open limit, normally closed contact common for the contacts door closed advanced limit door closed advanced limit common for the contacts
(terminal block J5 on the power stage board) * Name READY " " AUX " " PANA
Diode D8
9
Contact NO6 DC6 COM6 NO7 NC7 COM7 input
*
Function door operator ready, normally open contact door operator ready, normally closed contact common for the contacts aux. relay, normally open contact aux. relay, normally closed contact common for the contacts input for PANA633, ***
terminal J5 and the relay sockets are not installed on the board during production. They may be optionally installed later. ** ECI-2000-1101 board: the auxiliary relay is energized when either the PANA633 or PHDT input has been activated. This function is controlled by the software. ECI-2000-1101 rev. 1.0: the auxiliary relay is controlled directly by the PANA633 input. It is not controlled by the door operator software or hardware.
23
ECI2000TM05.doc
7.4 Adjustable parameters and user interface command table 7.4.1 Hand-held unit and serial link commands * software version prior to version 1.11 ** software version 1.11 and later *** software version 1.14 and later PC Range ( * ) Range ( ** ) command (versions prior to 1.11) (versions. 1.11 & later) Menu Window text M0 MONITORING M1 DOOR SPEED dsp 0 - 1000 mm/s 0 - 1000 mm/s M2 MOTOR CURRENT mcu 0 - 4A 0 - 4A M3 CLOSE TIME clt 0 - 3276 seconds 0 - 3276 seconds M4 OPEN TIME opt 0 - 3276 sec 0 - 3276 sec M5 CLOSE CYCLES ccy 0 - (2^32 -1) 0 - (2^32 -1) M6 OPEN CYCLES ocy 0 - (2^32 -1) 0 - (2^32 -1) M7 POSITION pos (-4194304) - 4194303 (-4194304) - 4194303 M8 DOOR WIDTH wth 0 - 5000mm 0 - 5000mm M9 SYSTEM TIME ctm format h..hh:mm:ss format h..hh:mm:ss M10 BUS VOLTAGE bvl 0 - 300V 0 - 300V M11 LEM VOLTS cvl 0 - 5V 0 - 5V M12 SOFTWARE VERSION ver M13 INPUTS binary coded byte binary coded byte M14 INPUT PORT " " M15 LED PORT " " M16 OUTPUTS " " P0 PROGRAMMING P1 SPEEDS P1A CLOSE SPEED cls, cls= 0.2 - 0.8 m/s 0.2 - 0.8 m/s P1B HD1 SPEED hd1, hd1= 0.2 - 0.7 m/s 0.2 - 0.7 m/s P1C HD2 SPEED ( * ) hd2, hd2= 0.2 - 0.7 m/s 0.2 - 0.7 m/s P1C INT. SPEED ( ** ) hd2, hd2= P1D NUDGE SPEED ndg, ndg= 0.15 - 0.5 m/s 0.15 - 0.5 m/s P1E CLOSE SLOW css, css= 0.01 - 0.1 m/s 0.01 - 0.1 m/s P1F SCAN SPEED rsp, rsp= 0.01 - 0.14 m/s 0.01 - 0.14 m/s P1G OPEN SPEED ops, ops= 0.2 - 1.0 m/s 0.2 - 1.0 m/s P1H OPEN SLOW oss, oss= 0.01 - 0.1 m/s 0.01 - 0.1 m/s P1J PL SPEED pls, pls= 0.01 - 0.1 m/s 0.01 - 0.1 m/s P2 PROFILE P2A ACC. RATE acc, acc= 0.5 - 1.2 m/s2 0.5 - 1.2 m/s2 P2A ACC. CL. (***) acc, acc= P2B DEC. RATE dec, dec= 0.5 - 1.2 m/s2 0.5 - 1.2 m/s2 P2B DEC. CL. (***) dec, dec= 24
ECI2000TM05.doc
P2C P2D P2D P2E P2F
FAST RATE JERK ( * ) INT. RATE ( ** ) ACC. OP. (***) DEC. OP. (***)
fdc, fdc= jrk, jrk= dei, dei= aco, aco= deo, deo=
0.5 - 2.5 m/s2 1.0 - 8.0 m/s3
0.5 - 2.5 m/s2 1.0 - 8.0 m/s3
P3 P3A P3B P3C P3D P3E P3F P3G P3H
CURRENTS OVERCURRENT ACC. CRNT DEC. CRNT OPEN CRNT CLOSE CRNT NUDGE CRNT HLD OP CRNT STALL CRNT
ovc, ovc= acr, acr= dcr, dcr= ocr, ocr= ccr, ccr= ncr, ncr= hcr, hcr= scr, scr=
2.5 - 4.0 A 1.5 - 3.3 A 1.5 - 3.3 A 0.7 - 1.8 A 0.7 - 1.8 A 0.5 - 1.3 A 0.5 - 1.0 A 0.5 - 1.0 A
2.5 - 4.0 A 1.5 - 3.3 A 1.5 - 3.3 A 0.7 - 1.8 A 0.7 - 1.8 A 0.5 - 1.3 A 0.5 - 1.0 A 0.5 - 1.0 A
P4 P4A P4B P4C P4D P5 P5A
DISTANCES CL. SLOW OP. SLOW ADV. DCL PREOPEN DOOR DATA DOOR MASS
csc, csc= cso, cso= acl, acl= pld, pld=
0 - 100 mm 0 - 100 mm 25 - 254 mm 0 - 100 mm
0 - 100 mm 0 - 100 mm 25 - 254 mm 0 - 100 mm
mas
P5B
HD1 MASS
h1m
P5C
HD2 MASS
h2m
30 - 520 kg 66 - 1155 lb 40 - 520 kg 88 - 1155 lb 40 - 520 kg 88 - 1155 lb
30 - 520 kg 66 - 1155 lb 40 - 520 kg 88 - 1155 lb 40 - 520 kg 88 - 1155 lb
P6 P6A P6B P6C P6D P6E P6F P6G P6H
CONTROL IKP IKI VKP VKI VKD PKP SCL FER
ikp, ikp= iki, iki= vkp, vkp= vki, vki= vkd, vkd= pkp, pkp= psc,psc= fer, fer=
300 - 1000 10 - 100 10 - 100
300 - 1000 10 - 100 10 - 100
5 - 30
5 - 30
0 - 100 0 - 100 32 - 320 5 % - 30%
0 - 100 0 - 100 32 - 320 5 % - 30%
dpe dpp
read error E1 read next error
read error E1 read next error
E0 ERROR LOG E1 - E30
25
ECI2000TM05.doc
cll U0 U1 U2 U3 U4 U5
UTILITIES UNIT SYSTEM D/A CHANNEL PASSWORD NEW PASSWORD CONTRAST
T0 T1 T1A T1B T1C T1D T2
TESTING AUTOMATIC NORMAL NUDGE H_DOOR1 H_DOOR2 SETUP
7.4.2
clear log
clear log
met, imp dta= pas= pas=
Serial link commands (laptop serial link)
The PC commands listed below do not have equivalence in the hand-held unit. They are used to manage the serial link. Each command has to be followed by the “ENT” key on the laptop keyboard. pcc end wrt
start communications link with a laptop serial port end communications link with a laptop serial port permanently store all changed parameters (when some parameters have been changed with commands of a format xxx=data, they have not been stored permanently and the changes will be lost if the power is switched off. To store the changed data permanently always execute “wrt” command after you accept the changes).
7.5 Error log: list of reported errors and messages 7.5.1 Errors reported by all software versions. NO FAULTS EXT. SOURCE SHUTDOWN FORMAT ERROR TIMER2 ERR. EEPROM ERROR PROG. FAIL. A/D CH. ERR. TIMER1 ERROR POLARITY PARAM. ERR.
- the log is empty, no faults present - external shutdown by the power module protection - shutdown by the software protection routine (*) - data format error - timer2 error, hardware failure - eeprom memory write or read error - programme failure - a/d channel error (*) - timer1 error (*) -encoder or motor polarity incorrect -parameter entry error; the entry error has been corrected 26
ECI2000TM05.doc
COMP2 INTRPT RX ERROR TX ERROR INV. BRANCH INV. ENTRY WG_CNTR ERR. OUT OF RANGE SETUP ERR. WG INTERRUPT NO ACCESS WRITE FAIL. STOP DRIVE SELF RESET LOGIC ERROR RUN TIMEOUT STOP TIMEOUT CALCUL. ERR. DCL MISSING DCL ERROR CLOSE T-OUT OPEN TIMEOUT STOP MISSING DCL ZONE ERR OVERCURRENT DIST. ERROR SCAN ERROR NO_ACKN. SENS. ERROR HYST. ERROR UNDERVOLTAGE OVERVOLTAGE OVERSPEED COUNT > DCL. COUNT < DOL. COUNT < DCL PRG. ERR. 01 ENCODER LOSS AD INTERRUPT
- compare2 channel error (*) - receive channel error (*) - transmit channel error (*) - invalid software branch - invalid data entry, format error - waveform generator counter error - invalid data, out of range - setup mode error - waveform generator interrupt error - access to certain locations denied - eeprom memory write failure - request to stop the drive; message only - self reset occurred just before the last power up - logic error found in logic equations - motor run time exceeded - motor stop time-out - calculation error - door close sensor missing (scan mode) - door close sensor not found where expected (auto mode) - close cycle time-out - open cycle time-out - motor was moving when stalled conditions were expected - door close limit zone error - motor overcurrent - distance error in the scan mode - scan mode error - no acknowledge received while writing to eeprom (*) - erroneous door close sensor operation (reset mode) - door close limit hysteresis error; message - DC bus undervoltage - DC bus overvoltage - motor overspeed - position counter greater than the door fully closed position count (automatic mode) - position counter less than the door fully open position count (automatic mode) - position counter less than the position of the door closed sensor count when the sensor has been activated (automatic mode) - error while executing the scan mode routine - encoder failure or connection lost or abrupt door stop - a/d channel interrupt error
7.5.2 Errors reported only by software versions prior to 1.11
7.5.3 Errors reported only by software version 1.11 and later 27
ECI2000TM05.doc
7.5.4 Errors reported only by software version 1.14 and later
7.6 Laptop link: list of the commands These commands are used to set the door parameters from the laptop. 7.6.1 Door speeds: Command Range: cls cls= - 200 - 800 mm/s - 0.65 - 2.63 ft/s css css= - 10 - 100 mm/s - 0.03 - 0.33 ft/s hd1 hd1= - 200 - 700 mm/s - 0.65 - 2.30 ft/s hd2 hd2= - 200 - 700 mm/s - 0.65 - 2.30 ft/s ndg ndg= - 150 - 500 mm/s - 0.49 - 1.64 ft/s ops ops= - 200 - 1000 mm/s - 0.65 - 3.28 ft/s oss oss= - 10 - 100 mm/s - 0.03 - 0.30 ft/s pls pls= - 10 - 100 mm/s - 0.03 - 0.30 ft/s rsp rsp= - 10 - 140 mm/s - 0.03 - 0.46 ft/s 7.6.2 Profile shape:
Description: - read the closing speed - change the closing speed - read the slow closing speed - change the slow closing speed - read the heavy door 1 closing speed - change the heavy door 1 closing speed - read the heavy door 2 closing speed - change the heavy door 2 closing speed - change the intermediate speed - read the nudging speed - change the nudging speed - read the opening speed - change the opening speed - read the slow opening speed - change the slow opening speed - read the pre-opening slow speed - change the pre-opening slow speed - read the scan speed - change the scan speed
Command Range: Description acc - read the acceleration rate (or close cycle acc. rate) acc= - 500 – 1200 mm/s2 – change the acceleration rate (or close cycle acc. rate) - 1.64 - 3.94 ft/s2 dec - read the deceleration rate dec= - 500 - 1200 mm/s2 - change the deceleration rate 28
ECI2000TM05.doc
fdc fdc= jrk jrk= dei dei=
- 1.64 - 3.94 ft/s2 - read the fast deceleration rate - 500 - 2500 mm/s2 - change the fast deceleration rate - 1.64 - 8.20 ft/s2 - read the jerk rate 1000 - 8000 mm/s3 - change the jerk rate 3.28 - 26.25 ft/s3 - read the intermediate deceleration rate - change the intermediate deceleration rate
aco aco= -
- read the open cycle acceleration rate - change the open cycle acceleration rate
dco dco= -
- read the open cycle deceleration rate - change the open cycle deceleration rate
7.6.3 Motor currents: Command Range: acr acr= - 1.5 - 3.3 A ccr ccr= - 0.7 - 1.3 A dcr dcr= - 1.5 - 3.3 A hcr hcr= - 0.5 - 1.0 A ncr ncr= - 0.5 - 1.3 A ocr ocr= - 0.7 - 2.5 A ovc ovc= - 2.5 - 4.0 A scr scr= - 0.5 - 1.0 A
Description - read the acceleration current limit - change the acceleration current limit - read the closing current limit, door closing torque - change the closing current limit - read the deceleration current limit - change the deceleration current limit - read the hold open current limit - change the hold open current limit - read the nudging current limit, nudging torque - change the nudging current limit - read the opening current limit - change the opening current limit - read the overcurrent tripping point - change the overcurrent tripping point - read the stall current triggering point - change the stall current triggering point
7.6.4 Distances: Command Range: acl acl= - 0 - 254 mm - 0 - 10.0 inch csc csc= - 0 - 100 mm - 0 - 3.94 inch cso cso= - 0 - 100 mm - 0 - 3.94 inch pld -
Description - read the advanced door closed limit setting - change the advanced door closed limit setting - read the slow closing distance - change the slow closing distance - read the slow opening distance - change the slow opening distance - read the pre-opening distance 29
ECI2000TM05.doc
pld=
-
0 - 100 mm 0 - 3.94 inch
- change the pre-opening distance
7.6.5 Door mass (weight): Command h1m h2m
-
mas
-
Range: 40 - 520 kg 88 - 1155 lb 40 - 520 kg 88 - 1155 lb 30 - 520 kg 66 - 1155 lb
Description - read the heavy door 1 mass - read the heavy door 2 mass - read the normal door mass
7.6.6 Digital controllers: Command fer fer= -
5 - 30 %
Description - read the “following error” - change the “following error”
10 - 100
- read the current controller integral gain - change the current controller intergral gain
300 - 1000
- read the current controller proportional gain - change the current controller proportional gain
0 - 100
- read the position controller proportional gain - change the position controller proportional gain
32 - 320
- read the position controller scaler - change the position controller scaler
vkd vkd= -
0 - 100
- read the speed controller derivative gain - change the speed controller derivative gain
vki vki=
5 - 100
- read the speed controller integral gain - change the speed controller integral gain
10 - 100
- read the speed controller proportional gain - change the speed controller proportional gain
iki iki=
-
ikp ikp=
-
pkp pkp= psc psc=
-
-
vkp vkp= -
Range:
7.6.7 Monitoring (read only commands): Command bvl ccy clt cvl -
Range: 0 - 300V 0 - (2^32 -1 ) 0 - 3276 s 0 - 5V
Description - read the DC bus voltage - read the number of closing cycles - read the latest door closing time - read the LEM sensor voltage 30
ECI2000TM05.doc
ctm dsp mcu ocy opt pos ver wth
-
0 - (2^32 -1) s - read the system time 0 - 1000mm/s - read the door speed 0 - 3.28 ft/s 0 - 5A - read the motor current 0 - (2^32 -1) - read the number of opening cycles 0 - 3276 s - read the latest door opening time (-4194304) - 4194303 - read the door position (encoder pulses) - report software version 0 - 5000 mm - read the door width
7.6.8 Error log: Command cll dpe dpp -
Range:
Description - clear error log - read the latest error log entry - read the next error log entry
7.6.9 Miscellaneous commands: Command Range: dta= - 0 - 9
Description - select D/A channel for TP3 analog output
end imp met pas= pcc wrt
0 - motor speed 1 - speed reference 2 - speed error 3 - motor current 4 - current reference 5 - current error 6 - position error 7 - speed correction by the position controller 8 - LEM sensor output voltage 9 - DC bus voltage - end communications link with a laptop serial port - select the Imperial unit system - select the metric unit system - enter or change the password - start communications link with a laptop serial port - permanently store all changed parameters
- 0 - 9998 -
Remark: When some parameters have been changed with commands of the format “xxx=data“, they have not been stored permanently and the changes will be lost if the power is switched off. To store the changed data permanently execute “wrt” command after each command, which changes parameters. 7.6
RS232 extension cable.
An optional extension cable may be used to allow adjustment of the door within elevator cab. The cable is terminated at the terminal block J5 on the microcontroller board. Place the DB-9 31
ECI2000TM05.doc
connector inside the car station and run the cable as far from any power cables as possible. Order part ECI-2000-1390 from Elevator Components Inc. Refer to diagrams 8.3.3, 8.3.4, 8.3.5.
8.0 Diagram list All the diagrams listed below have been placed in the Appendix C section. Fig. 8.1.1 Fig. 8.1.2 Fig. 8.1.3. Fig. 8.2 Fig. 8.3.1 Fig. 8.3.2 Fig. 8.3.3 Fig. 8.3.4 Fig. 8.3.5 Fig. 8.4.1 Fig. 8.4.2 Fig. 8.4.3 Fig. 8.4.4 Fig. 8.5.1 Fig. 8.5.2
Speed reference profiles (software versions prior to 1.11) Speed reference profiles (software version 1.11 and later) Speed reference profiles (software version 1.14 and later) Setting the door close limit inductive sensor ECI-2000-1100 and ECI-2000-1101. Internal wiring ECI-2000-1100 and ECI-2000-1101 rev. 1.0. Internal wiring User interface. Relay controller. Operating voltage 120 V AC ECI-2000-1100 and ECI-2000-1101 PCBs. External wiring ECI-2000-1100 and ECI-2000-1101 rev. 1.0 PCBs. External wiring Hand-held unit “menu level 0” tree Hand-held unit “menu level 1” tree Hand-held unit “menu level 1 (cont.)” tree Hand-held unit “menu level 2” tree PANA633 connections for the ECI-2000-1101 power board PANA633 connections for the ECI-2000-1101 rev. 1.0 power board
32
ECI2000TM05.doc
Speed [mm/s]
P1A P1B P1C P1D P1E P1F P2A P2B P2C P4A P4C
P1A P1B
Close speed HD1 speed HD2 speed Nudge speed Close slow speed Scan speed Acc. rate Dec. rate Fast rate Final close Adv. close
P1C P4C P2A
P2B P4A P1D
P1F P1E P2C
Time [s] Closing cycle Speed [mm/s] P1F P1G P1H P2A P2B P2C P4B P4D
P1G
P2A
Scan speed Open speed Open slow speed Acc. rate Dec. rate Fast rate Final open Pre-open
P2B
P4D
P4B P1F
P1J P1H P2A P2C
Time [s] Opening cycle Fig. 8.1.1 Speed reference profiles Software versions prior to 1.11 33
ECI2000TM05.doc
Speed [mm/s]
P1A P1B P2A
P2B
P1A P1B P1C P1D P1E P1F P2A P2B P2C P2D P4A P4C
Close speed HD1 speed Intermediate speed Nudge speed Close slow speed Scan speed Acc. rate Dec. rate Fast rate Intermediate rate Final close Adv. close P4C
P1C P4A P1D P2D P1F P1E P2C
Time [s] Closing cycle Speed [mm/s] P1F P1G P1H P2A P2B P2C P4B P4D
P1G
P2A
Scan speed Open speed Open slow speed Acc. rate Dec. rate Fast rate Final open Pre-open
P2B
P4D
P4B P1F
P1J P1H P2A P2C
Time [s] Opening cycle Fig. 8.1.2 Speed reference profiles Software version 1.11 and later 34
ECI2000TM05.doc
Speed [mm/s]
P1A P1B P1C P1D P1E P1F P2A P2B P2C P2D P4A P4C
P1A P1B P2A
P2B
Close speed HD1 speed Intermediate speed Nudge speed Close slow speed Scan speed Close cycle acc. rate Close cycle dec. rate Fast rate Intermediate rate Final close Adv. close P4C
P1C P4A P1D P2D P1F P1E P2C
Time [s] Closing cycle Speed [mm/s] P1F P1G P1H P2E P2B P2C P4B P4D
P1G
P2E
Scan speed Open speed Open slow speed Open cycle acc. rate Open cycle dec. rate Fast rate Final open Pre-open
P2F
P4D
P4B P1F
P1J P1H P2A P2C
Time [s] Opening cycle Fig. 8.1.3 Speed reference profiles Software version 1.14 and later 35
Fig. 8.2 Setting the door close limit inductive sensor
Legend: 1. fastening screw 2. inductive sensor 3. sensor casing 5. fixing strut 6. sensor vane 7. cross-hair
Procedure: 1. Loosen the fastening screw (1) slightly to allow for movement of the sensor casing (3) in the fixing strut (5). 2. Mark the cross-hair center line (7) on the top of the sensor casing (3). 3. Close the door manually and verify that the gap between the sensor (2) and the sensor casing vane (6) is 4mm +/- 1mm (5/32”). 4. Open the door leaving a gap of ½” to ¾” between the door edge and the close side door jamb. 5. Slide the sensor casing (3) in the fixing strut (5) as indicated by the arrow to align the cross-hair center line with the edge of the vane (6). 6. Tighten and fastening screw (1).
36
ENCODER
1 2 3 4 5
MOTOR
GREEN
Gnd Index Ch.A +5V Ch.B
Fig. 8.3.1 TRANSFORMER
37
ECI-2000-1100 and ECI-2000-1101 Internal wiring. GREEN
GREEN
EMI FILTER
BLACK
BLACK
(BLK) (not connected) (WHT) (RED) (GRN)
J6 1 2 3 4 5
PURPLE BLUE YELLOW BLUE PURPLE
1 2 3 4
RED BROWN BROWN RED
5 4 3 2 1
BLACK BLACK
(120V AC) (120V AC)
(170V AC) (20V AC) (20V AC) (170V AC)
J7
DO10
(top board)
DO7
(bottom board)
J2
J3
JH1
DO18
. . . . . . . . . .
. . . . .
. . .
ECI-2000-1100
. . . . . . . . . .
. . . . .
JH2
. .
BROWN BLACK BLUE
ECI-2000-1101
STOP
PHDT
H_D1
H_D2
COM2
10V
0V
SHLD
RX
TX
1 2 3
POWER BOARD
(7V) (32V CT) (CT) (32V CT) (7V)
(BLK) (SHLD) (WHT) (RED) (GRN)
COM1
J2
20-wire ribbon
0V SHLD CH.A 5V CH.B
DO4
. . . . . . . . . .
. . . . . . . . . .
J3
10-wire ribbon
1 2 3 4 5
MICROCONTROLLER BOARD
. . . . .
. . . . .
JH1
1 2 3 4 5
GROUND SCREW
1 2 3 4 5 1 2 3
J6
NC7
COM7
2 1
4 3 2 1
NO7
J5
J8
J1
J4
BURGESS DCAX/5608KS
L2AA
L1A
E
E
L2B
L1A
24VR
0VR
A1
A2
NO3
DO17
COM3
NO4
DO3
COM4
NO5
NC5
COM5
INDUCTIVE SENSOR
NO6
NC6
COM6
RED
BLACK
BLACK
Power switch
1 2 3 4 5
MOTOR
Fig. 8.3.2
38
0V
1 2 3 4 5
PURPLE BLUE YELLOW BLUE PURPLE
5 4 3 2 1
ECI-2000-1100 and ECI-2000 -1101 rev.1.0 Internal wiring. DO7
BLACK BLACK
(7V) (32V CT) (CT) (32V CT) (7V)
J1
1 2 3 4
RED BROWN BROWN RED (120V AC) (120V AC)
(170V AC) (20V AC) (20V AC) (170V AC)
J6
J7
DO10
(top board) J6
(bottom board)
DO18
J2
ECI-2000-1100
. . . . . . . . . .
ECI-2000-1101 rev. 1.0
. . . . . . . . . .
J3
JH1
POWER BOARD
STOP
PHDT
H_D1
H_D2
COM2
10V
. . . . .
JH2
COM1
J4
J5
. . . . .
. . .
. . .
BROWN BLACK BLUE
COM7
DO4
J2
20-wire ribbon
SHLD
RX
TX
(optional)
1 2 3
J5
J8
J1
J4
BURGESS DCAX/5608KS
L2AA
L1A
E
E
L2B
L1A
24VR
0VR
A1
A2
NO3
DO17
COM3
NO4
DO3
COM4
NO5
NC5
COM5
Door closed limit INDUCTIVE SENSOR
NC6
COM6
BURGESS DCAX/5608KS
NO6
NO7
Door open limit INDUCTIVE SENSOR
NC7
MICROCONTROLLER BOARD
. . . . . . . . . .
. . . . . . . . . .
J3
10-wire ribbon
(BLK) (SHLD) (WHT) (RED) (GRN) PANA633
4 3 2 1
GROUND SCREW
GREEN
GREEN
EMI FILTER
TRANSFORMER
. . . . .
. . . . .
1 2 3 4 5
BLACK
BLACK
(BLK) (not connected) (WHT) (RED) (GRN) JH1
GREEN
Gnd Index Ch.A +5V Ch.B
0V SHLD CH.A 5V CH.B 1 2 3
ENCODER
1 2 3 4 5
1 2 3 4 5 1 2 3 2 1
RED
BLACK
BLACK
Power switch
Relay controller. Operating voltage 120 V AC.
Fig. 8.3.3
User interface.
39 1
J1
5
1
J4
5
1
J5
5
GROUND SCREW
travelling cable
ECI-2000 DOOR OPERATOR
L2AA
DO7
GND
L1A
DO10
#14
E
1
E
L2A
L1A
24VR
0VR
A1
A2
NO3
DO17
COM3
NO4
DO3
COM4
NO5
J8 L2B
8
1
J1
1
COM5 NC5
DO18
J4
9
POWER STAGE BOARD ECI-2000-1101 or ECI-2000-1101 rev. 1.0 (bottom board)
optional RS 232 cable extension part # ECI-2000-3058
DO4
COM1
STOP
PHDT
H_D1
H_D2
COM2
10V
0V
SHLD
RX
TX
MICROCONTROLLER BOARD ECI-2000-1100 (top board)
Power switch
L2B
DO7
DO10
DO18
DO4
STOP
PHDT
H_D1
H_D2
DO17
DO3
NO5
car station
120V AC 60 HZ 500 VA
GND
door closed
door open
door closed advanced limit
L1A (GROUNDED to GND)
L2A
GND
ELEVATOR CONTROLLER
door close command
door open command
door lock command
door nudging command
door stop command
photo-eye triggered
heavy door 1
heavy door 2
DB 9 socket
. . . . . . . . . .
. . . . . . . . . .
8
FIG. 8.3.4.
40
. . . . .
7
9
560R
0.01 uF
10
J6
J2
J3
12K 1.6 W
24-48V AC or DC
ECI-2000-1100 and ECI_2000-1101 printed circuit boar ds. External connections. Power switch #14
L2A
J6 . .
J5
J1
J4
COM5
NO3
DO17
COM3
NO4
DO3
COM4
NO5
NC5
J8
Control circuit operating voltage is 24V DC.
The supply voltage is 120V AC, 60 Hz.
All the commands outputs are placed in the elevator controller. These outputs could also be placed in the cat top controller.
The door operator relays provide contacts which are conected to 24V DC opto-coupled inputs.
2.
3.
4.
5.
In this example relay contacts or transistor outputs are used to send commands to the operator.
GROUND SCREW
GND
L2AA
. . . .
L1A
E
E
DO10 J7
(bottom board)
ECI-2000-1101
L2B
L1A
24VR
0VR
DO7
DO18
DO4
COM1
J1
STOP
PHDT
POWER BOARD
COM6
A1
J2
J3
JH1 NO7
H_D1
. . . . . . . . . .
. . . . .
. . .
NC6
A2
. . . . . . . . . .
. . . . .
. .
JH2 NO6
H_D2
COM2
J4
10V
0V
SHLD
RX
TX
J5
1.
Remarks:
ECI 2000 DOOR OPERATOR
jumper 1-2:
jumper
3
120V AC or DC
4 channels
3 channels
3K 1.6 W
PC844 optocoupler
(top board)
2
jumper 2-3 or removed:
. . . . .
. . . . .
JH1
. . . . .
part # ECI-2000-3058 COM7
optional RS 232 cable extension
NC7
MICROCONTROLLER BOARD ECI-2000-1100
1
travelling cable
optocoupled inputs 24V DC (I > 5 mA)
relay contacts or transistor outputs
door close command
door open command
door lock command
door nudging command
door stop command
photo-eye triggered
heavy door 1
heavy door 2
door closed
door open
advanced door closed limit
operator ready (optional)
120V AC, 500VA L1A 60 HZ (GROUNDED)
L2A
(machine room or top of the car location)
ELEVATOR CONTROLLER
0VR
DO7
DO10
DO18
DO4
STOP
PHDT
H_D1
H_D2
DO17
DO3
NO5
NO6
GND
DB 9 socket car station
FIG. 8.3.5.
. . . . . . . . . .
. . . . . . . . . .
7
9
8
41
. . . . .
10
560R
0.01 uF
NO5
12K 1.6 W
24-48V AC or DC
ECI-2000-1100 and ECI-2000-1101 rev.1.0 printed circuit boards. External connections. Power switch #14
L2A
Control circuit operating voltage is 24V DC.
The supply voltage is 120V AC, 60 Hz.
All the commands outputs are placed in the elevator controller. These outputs could also be placed in the cat top controller.
The door operator relays provide contacts which are conected to 24V DC opto-coupled inputs.
3.
4.
5.
GND
2.
In this example relay contacts or transistor outputs are used to send commands to the operator.
GROUND SCREW
DO7
DO10
DO18
DO4
COM1
J1
STOP
PHDT
J7 . . . .
(bottom board)
J6 . .
ECI-2000-1101 rev. 1.0
POWER BOARD
(J5 connector is optional)
COM6
J5
J1
J4
COM5
NO3
DO17
COM3
NO4
DO3
COM4
NO5
NC5
L1A J8 L2AA
E
E
L2B
L1A
24VR
0VR
A1
J2
J3
JH1 NO7
H_D1
. . . . . . . . . .
. . . . .
JH2 NC6
A2
. . . . . . . . . .
. . . . .
. . .
. . .
NO6
H_D2
COM2
J4
10V
0V
SHLD
RX
TX
J5
1.
Remarks:
ECI 2000 DOOR OPERATOR
jumper 1-2:
jumper
120V AC or DC
4 channels
3 channels
3K 1.6 W
PC844 optocoupler
3
J6
J2
J3
(top board)
2
jumper 2-3 or removed:
. . . . .
. . . . .
JH1
. . . . .
COM7
part # ECI-2000-3058 PANA633
optional RS 232 cable extension
NC7
MICROCONTROLLER BOARD ECI-2000-1100
1
travelling cable
optocoupled inputs 24V DC (I > 5 mA)
relay contacts or transistor outputs
door close command
door open command
door lock command
door nudging command
door stop command
photo-eye triggered
heavy door 1
heavy door 2
door closed
door open
advanced door closed limit
operator ready (optional)
120V AC, 500VA L1A 60 HZ (GROUNDED)
L2A
(machine room or top of the car location)
ELEVATOR CONTROLLER
0VR
DO7
DO10
DO18
DO4
STOP
PHDT
H_D1
H_D2
DO17
DO3
NO5
NO6
GND
DB 9 socket car station
LINK TERMINATED
ECI-2000 VERSION 1.11
Legend: "UP" / "DOWN"
"LEFT"
M0 MONITORING
P0 PROGRAMMING
E0 ERROR LOG
U0 UTILITIES
T0 TESTING
M1 DOOR SPEED 430 mm/s
P1 SPEEDS
E1 ENCODER LOSS 1220:58:06
U1 UNIT SYSTEM METRIC
T1 AUTOMATIC
M2 MOTOR CURRENT 0.54 A
P2 PROFILE
E2 OVERCURRENT 1020:34:12
U2 D/A CHANNEL SPEED REF.
T2 SETUP
M3 CLOSE TIME 2.5 s
P3 CURRENTS
E3 OVERFLOW 567:18:45
U3 PASSWORD ACCESS DENIED
M4 OPEN TIME 1.9 s
P4 DISTANCES
E4 NO FAULTS
U4 NEW PASSWORD ACCESS DENIED
M5 CLOSE CYCLES 3450
P5 DOOR DATA
M6 OPEN CYCLES 3456
P6 CONTROL
key
/ "RIGHT" key
"ENT" key
"ESC" key
wrap around (LEFT / RIGHT key) wrap around (UP / DOWN key)
U5 CONTRAST ADJUST->ENT
M7 POSITION 45678 M8 DOOR WIDTH 1234 mm
E30 NO FAULTS
M9 SYSTEM TIME 1321:45:23
Hand-held unit.
Menu level 0.
M10 BUS VOLTAGE 240 V
Navigation through the windows. M11 LEM VOLTS 2.5 2 V M12 SOFTWARE VERSION 1.00 M13 INPUTS 00000010 M14 INPUT PORT 00000111 M15 LED PORT 10000100
Fig. 8.4.1 Hand-held unit "menu level 0" tree. OUTPUTS 10100100
fig_8_4_1.xls
Page 42 of 61
Hand-held unit. Menu level 1. Navigation through the windows. Clearing the log
Changing unit system
Selecting A/D channel
Contrast adjustment
Testing nudging speed
Setup
(window too dark)
E0 ERROR LOG
U0 UTILITIES
U0 UTILITIES
U0 UTILITIES
T0 TESTING
T0 TESTING
E1 OVERCURRENT 1217:34:05
U1 UNIT SYSTEM METRIC
U1 UNIT SYSTEM METRIC
U5 CONTRAST ADJUST->ENT
T1 AUTOMATIC
T1 AUTOMATIC
CLEAR LOG? ESC=NO ENT=YES
U1 UNIT SYSTEM METRIC *
U2 D/A CHANNEL SPEED REF.
U5 CONTRAST UP OR DOWN
T1A NORMAL ENTRY->ENT
T2 SETUP
LOG CLEARED
U1 UNIT SYSTEM IMPERIAL *
U2 D/A CHANNEL SPEED REF. *
U5 CONTRAST UP OR DOWN
T1B NUDGE ENTRY->ENT
T2 SETUP < CLOSE
OPEN >
U1 UNIT SYSTEM IMPERIAL
U2 D/A CHANNEL MOTOR SPEED *
U5 CONTRAST UP OR DOWN
T1B NUDGE < CLOSE OPEN >
U2 D/A CHANNEL SPEED ERR. *
U5 CONTRAST UP OR DOWN
T2 SETUP < CLOSE
OPEN >
U2 D/A CHANNEL SPEED ERR.
U0 UTILITIES
E1 NO FAULTS
Entering correct password U0 UTILITIES
T1B NUDGE < CLOSE OPEN >
Entering incorrect password Changing password
T1B NUDGE ENTRY->ENT
U1 UNIT SYSTEM METRIC
U0 UTILITIES
U0 UTILITIES
T1 AUTOMATIC
U2 D/A CHANNEL MOTOR SPEED
U1 UNIT SYSTEM METRIC
U5 CONTRAST ADJUST->ENT
Legend:
U3 PASSWORD ACCESS DENIED
U2 D/A CHANNEL SPEED REF.
U4 NEW PASSWORD ACCESS ENABLED
U3 PASSWORD 9999 *
U3 PASSWORD ACCESS DENIED
U4 NEW PASSWORD 9999 *
T2 SETUP
"UP" key
"DOWN" key
"ENT" key U3 PASSWORD 9999 * "ESC" key U3 PASSWORD 4321 *
U4 NEW PASSWORD 1234 * "UP" or "DOWN" or "LEFT" or "RIGHT"
U3 PASSWORD ACCESS ENABLED
U3 PASSWORD 7543 *
U4 NEW PASSWORD ACCESS ENABLED
Fig. 8.4.2 Hand-held unit "menu level 1" tree U3 PASSWORD ACCESS DENIED
fig_8_4_2.xls
Page 43 of 61
P1 SPEEDS
P2 PROFILE
P3 CURRENTS
P4 DISTANCES
P5 DOOR DATA
P6 CONTROL
P1A CLOSE SPEED 380 mm/s
P2A ACC. RATE 780 mm/s2
P3A OVERCURRENT 3.5 A
P4A FINAL CLOSE 35 mm
P5A DOOR MASS 220 kg
P6A IKP 800
P1B HD1 SPEED 280 mm/s
P2B DEC. RATE 800 mm/s2
P3B ACC. CRNT 3.20 A
P4B FINAL OPEN 18 mm
P5B HD1 MASS 240 kg
PKB IKI 40
P1C HD2 SPEED 220 mm/s
P2C FAST RATE 1200 mm/s2
P3C DEC. CRNT 3.20 A
P4C ADV. DCL 100 mm
P5C HD2 MASS 260 kg
P6C VKP 30
P1D NUDGE SPEED 150 mm/s
P2D JERK RATE 2000 mm/s3
P3D OPEN CRNT 1.40 A
P4D PREOPEN 25 mm
P6D VKI 10
P1E CLOSE SLOW 50 mm/s
P3E CLOSE CRNT 1.30 A
P6E VKD 20
P1F SCAN SPEED 70 mm/s
P3F NUDGE CRNT 0.85 A
P6F PKP 50
P1G OPEN SPEED 550 mm/s
P3G HLD OP CRNT 2.50 A
P6G SCL 64
P1H OPEN SLOW 50 mm/s
P3H STALL CRNT 0.70 A
P6H FER 20
Hand-held unit. Menu level 1. P1J PL SPEED 60 mm/s
Navigating the windows. Legend: "UP" / "DOWN" key
"ESC" key
"ENT" key
wrap around (UP / DOWN key)
Fig. 8.4.3 Hand-held unit "menu level 1 (cont.)" tree
fig_8_4_3.xls
Page 44 of 61
Hand-held unit. Menu level 2. Navigating through the windows.
(P0 PROGRAMMING)
Changing the nudging speed
Changing the deceleration rate
Changing the close current
Changing the final open distance
Checking door weights (masses)
Changing the speed controlle proportional gain
P1 SPEEDS
P2 PROFILE
P3 CURRENTS
P4 DISTANCES
P5 DOOR DATA
P6 CONTROL
P1A CLOSE SPEED 380 mm/s
P2A ACC. RATE 780 mm/s2
P3A OVERCURRENT 3.5 A
P4A FINAL CLOSE 35 mm
P5A DOOR MASS 195 kg
P6A IKP 800
P1B HD1 SPEED 280 mm/s
P2A DEC. RATE 780 mm/s2
P3B ACC. CRNT 3.20 A
P4B FINAL OPEN 15 mm
P5B HD1 MASS 220 kg
P6B IKI 45
P1C HD2 SPEED 200 mm/s
P2A DEC. RATE 78 mm/s2
P3C DEC. CRNT 3.20 A
P4B FINAL OPEN 1 mm
P5C HD2 MASS 255 kg
P6C VKP 22
P1D NUDGE SPEED 20 mm/s
P3D OPEN CRNT 1.45 A
P6C VKP 2
P2A DEC. RATE 85 mm/s2
P3E CLOSE CRNT 1.32 A
P4B FINAL OPEN 2 mm
P1D NUDGE SPEED 15 mm/s
P2A DEC. RATE 850 mm/s2
P3E CLOSE CRNT 1.3 mm/s2
P4B FINAL OPEN 25 mm
P6C VKP 3
P1D NUDGE SPEED 150 mm/s
P2A DEC. RATE 850 mm/s2
P4B FINAL OPEN 25 mm
P6C VKP 35
P1D NUDGE SPEED 150 mm/s
P3E CLOSE CRNT 1.1 mm/s2
Legend: "UP" key
P6C VKP 35
P3E CLOSE CRNT 1.12 mm/s2 "DOWN" key P3E CLOSE CRNT 1.12 mm/s2 "ENT" key
"ESC" key
"UP" or "DOWN" or "LEFT" or "RIGHT"
Fig. 8.4.4 Hand-held unit "menu level 2" tree
fig_8_4_4.xls
Page 45 of 61
MOLEX header header: 22-23-2021 plug: 22-01-3027
R11 1K2
U9
R13 360R
CD9
1
4
2
3
D8 1N4007
PC817
to connector J2 pin 18 DET
JH2
0V to connector J2 pin 20
TRG
1 2
0.1uF
"SPARE" G2R-2-S-DC24 24V DC KC6 socket P2R-08P
1
D7 1N4007
8
24 VDC
SPR
SPR to connector J2 pin 2
J5 4
1 2 3 4 5 6
2
to elevator controller
3
PTC RXE030
t
RAYCHEM 24VR
PCD socket: ELFH06210
RT1
plug: ELFP06210 AC8
AC8
R5
BR1
10R
DF01M FAIRCHILD
D9 1N4007
17 V AC
AC9
to other circuits
J8 L2A
1 2 3 4 5 6 7 8
L1A AC9
R6 10R
CD5 0.1uF
E +
E
C3
L2B
2200MF,35V
L1A 24VR 0VR
TE 24V 0V 0V
PCD socket: ELFH08210
LINK
plug: ELFP08210
ECI-2000-1101 power stage board
from PANA633 TX cable
PANA633 connections: TX cable:
RX cable:
Fig. 8.5.1
TRG
-
"Trigger Output"
24V
-
"DC Supply"
0V
-
"0V"
LINK
-
"LINK"
TE
-
"Timeout Enable"
0V
-
"0V"
LINK
-
"LINK"
-
BLUE
RED
ORANGE -
-
WHITE
ORANGE -
PANA633 connections for the ECI-2000-1101 power board. 46
-
-
WHITE
-
YELLOW
from PANA633 RX cable
PCD socket: ELFH07210
4
plug: ELFP07210
J5
3
2
PANA
to elevator controller
TRG
"PANA633" G2R-2-S-DC24 24V DC KC6 socket P2R-08P
8
D7 1N4007
1 2 3 4 5 6 7
PTC RXE030
t
1
RAYCHEM
RT1 AC8
AC8
R5 10R
BR1 DF01M FAIRCHILD
to other D9 circuits 1N4007
17 V AC
AC9
AC9
R6 10R
CD5 0.1uF
+
C3
J8 L2A
2200MF,35V
1 2 3 4 5 6 7 8
L1A E E L2B L1A 24VR 0VR
TE 24V 0V 0V
PCD socket: ELFH08210
LINK
plug: ELFP08210
ECI-2000-1101 rev. 1.0 power stage board
from PANA633 TX cable
from PANA633 RX cable
PANA633 connections: TX cable:
RX cable:
Fig. 8.5.2
TRG
-
"Trigger Output"
24V
-
"DC Supply"
0V
-
"0V"
LINK
-
"LINK"
TE
-
"Timeout Enable"
0V
-
"0V"
LINK
-
"LINK"
-
47
BLUE
RED
ORANGE -
WHITE
-
PANA633 connections for the ECI-2000-1101 rev. 1.0 power board.
-
-
ORANGE -
WHITE
-
YELLOW
ECI2000TM05.doc
9. Spare part list. Contact Elevator Components Inc. to order parts or for technical help. 1237 Kamato Road Mississauga, Ontario, Canada L4W 2M2 Phone: 905-624-6565 Fax: 905-624-4262 9.1 Hand-held unit 9.2 Door closed inductive sensor 9.3 Microcontroller unit 9.4 Power stage board 9.5 PM DC motor 9.6 EMI filter 9.7 Transformer 9.8 Encoder unit
- ECI-2000-3050 (RS 232 cable included) - ECI-2000-3056 - ECI-2000-3052 (ribbon cables included) - ECI-2000-3051 - ECI-2000-2058 - ECI-2000-3055 - ECI-2000-3053 - ECI-2000-3054 (cable included)
48
ECI2000TM05.doc
10. Troubleshooting guide List of failure symptoms If no LEDs are lit on any of the boards, go to section 10.1. If only the LED on the power board is lit, go to section 10.2. If the LED on the power board is not lit, but some LEDs on the microcontroller board are lit, go to section 10.3. If the power board LED is lit and some LEDs on the microcontroller board are also lit, go to section 10.4. Static Electricity Warning! Before beginning work on the board assembly, discharge any static charge you may be carrying by touching any grounded object. 10.1. No LEDs are lit Problem: 120 V AC supply is not present. Solution: 10.1.1 Measure the supply voltage at its source (in the system control box). Check the position of the main switch. On the power board, measure voltage at the points indicated below: L1A (J8:2) and L2AA (J8:1). Expected voltage is 120V +/- 12V. If the voltage is not present, check the main switch and wiring of the supply section. L1A (J8:2) and both sides of the F1 fuse. Replace the fuse if required. Expected voltage is 120V +/- 12V. Pins 1 and 2 of the Molex connector J6. If no voltage is present, check wiring for loose connections. Expected voltage is 120V +/- 12V. 10.1.2 If voltage is present, continue and measure voltage at the points indicated below Pins 1 and 4 of the Molex connector J7. Expected voltage is 170V +/- 12V. Pins 2 and 3 of the Molex connector J7. Expected voltage is 20V
AC +/- 2V.
If no voltage is present, the EMI filter or the transformer may have an open connection. Carefully measure the voltage in front of and behind the EMI filter. In order to check wiring, disconnect power at the main disconnect and wait at least 5 minutes to allow the capacitors to discharge. 49
ECI2000TM05.doc
If all the voltages measured as above are present then the board has an internal failure and the whole board assembly has to be replaced. 10.2. Only the LED on the power board is lit Problem: 120V AC or the power for the microcontroller is not present. Solution: Wait for 5 minutes and if the green LED on the power board starts to fade follow the procedure described in item 10.1, otherwise follow the procedure described in item 10.2. 10.2.1 Measure DC voltage between the ground stud and the F3 fuse. Expected voltage is 250 V DC +/-25V if the supply AC voltage is 120 V +/-12V. If the voltage is in this range, go to section 10.2.2. If the voltage is not in the required range, it may be helpful to follow the procedure described in section 10.1. 10.2.2 Measure the AC voltages on the microcontroller board between D18 anode and the points listed below: J6 : 2 16V +/-1.6V J6 : 3 0V J6 : 4 16V +/-1.6V Measure the AC voltage between pins 1 and 5 of J6. Expected value is 7.8V +/-0.8V. If the voltage is below the indicated values, switch the power off at the source and at the door operator and check the J6 connector and its wiring. If the wiring is correct and none of the LEDs is lit, the board has to be replaced. If the voltages are within the recommended ranges, proceed to the next step. 10.2.3 Measure the DC voltage at the points listed in the table. Connect the reference lead of your voltmeter to D18 anode (0V reference point). Measuring point D19 anode D19 cathode D21 anode D21 cathode D20 anode D18 cathode J5 pin 1
Voltage 15V +/-1V 19.6V +/-2V 19.6V +/-2V -15V +/-1V 9.2V +/-1V 5V +0.2V, -0.1V 9.2V +/-1V
If the voltages are out of the recommended ranges, replace the board. If the voltages are within their ranges, switch the power off, wait 5 minutes, and carefully examine the square sockets and of the integrated circuits. Re-socket the chips if necessary. Switch the power on and if the symptoms persist, replace the board assembly.
50
ECI2000TM05.doc
10.3. The LED on the power board is not lit but some LEDs on the microcontroller board are lit Refer to the tests described in item 10.1. If the board passes the tests, follow the procedure described below. Warning! High voltage is present on the power board. Do not attempt to remove the board with the power on. Wait at least 5 minutes after power shut down before removing the board from the assembly. Problems: a. faulty rectifier bridge in the U12 module b. faulty D14 LED, open R23 or R21, short-circuited D11 c. open TH1 inrush current limiter Solution: 10.3.1.Connect the reference lead of your voltmeter to the ground stud. Measure DC voltage at both sides of the F2 fuse. If the voltage is within 250V +/-25V on both sides, check D14, D11, R23, R21. If the voltage is present only at one side of the fuse, replace the F2 fuse. If the voltage is not present on either side of the F2 fuse check the TH1 thermistor. 10.4 The power board LED is lit and some LEDs on the microcontroller board are also lit Warning! Do not try to perform the setup after power-on reset, unless D16 orange LED is lit and D17 red LED is flashing or unless you are want to reset all the parameters in the eeprom memory. Troubleshoot the boards first and write down all parameters displayed under the PROGRAMMING menu, before you perform the setup. In such a case, you will always be able to set the parameters to their previous values. Some failures are mechanical in nature and therefore examine the belts, pulleys and all related equipment before running the door operator. Remark: It is sometimes difficult to determine initially, if the failure is related to a malfunction of the door operator or to a malfunctioning elevator controller. In such a case, to isolate the door operator from the controller, toggle the "INSP" switch to ON and unplug the J1 connector. Problem: a. the boards have not passed the power-on self-test (D17 not flashing) b. the door operator has been shut down by its own error routine c. the input optocoupler section does not work properly d. the elevator controller does not send commands to the operator. Solution: 10.4.1 Check to see if the red LED (D17) is flashing at the rate of one second on and one second off. If it is flashing, go to item 10.4.2. If the LED is not flashing, the board did not pass the power-on self-test or the watchdog timer reset the board. In this case, refer to 51
ECI2000TM05.doc
chapter 7.1.1 of this manual. Find out which table is applicable in your case by checking the D16 orange LED. If D16 is on, use table 7.1.1 otherwise use table 7.1.2. In one particular case if D17, D16 and D14 are on, the self-test determined that some locations of the eeprom memory have been corrupted. You can reprogram these locations in the following way: a. switch the power off and slide switch 1 of the DIP1 switch to its opposite position. b. switch the power on. If the D17 LED starts flashing, switch the power off and move switch 1 of the DIP1 switch to its original position. Switch the power on again. If the eeprom memory has been reprogrammed correctly, the D17 LED will be flashing and the board will most likely be operational. After this action, you will have to perform the setup because the D16 orange LED is will be lit. Refer to chapter 3.2 or chapter 11 if you are not familiar with the setup procedure. 10.4.2. If the D17 LED is flashing, the board passed its power-on self-test. The communications channel is also operational. You may use the hand-held unit to troubleshoot the operator. We recommend the following general troubleshooting procedure, which has to be adapted to the conditions in the field when required. 10.4.2.1 Make sure that a barricade has been placed in front of the unpaid and paid side doors. 10.4.2.2 We recommend using the hand-held unit both for troubleshooting and adjustment. Door operator parameters may be easily changed with the handheld unit. 10.4.2.3 The LEDs on the microcontroller board allow a troubleshooter to determine which input and output signals are active. Please refer to chapters 7.2 and 7.3 to become familiar with the door operator input and output signals. The table below describes the signals associated with the LEDs. The data in the table for the row of LEDs found along the micro board edge is valid only if the D17 red LED is flashing. (The row along the micro board edge) LED designation Colour Function D17 D16
red orange
system software is running if ON, setup required if flashing, setup in progress if ON at the end of the setup end, setup complete
D15 D14 D13 D12 D11 D10
green green green green green green
forced slowdown (emergency slowdown) external stop command executed reduced speed command active internal stop command executed open command stop command
52
ECI2000TM05.doc
(The row along the opto-coupler sockets) LED designation Colour Function D7 D3 D4 D5 D6 D8 D9
green green green green green green green
door closed sensor activated door closed relay activated door open relay activated advanced door closed relay activated main relay activated door operator ready photo eye input activated
(The row along the ribbon cable header) LED designation Colour Function D36 D37 D38 D39
orange orange orange orange
power bridge active and powered up as above always off dynamic braking power device ON (one IGBT of the U12 power module)
10.4.2.4 Use the table shown below to determine fault condition and then refer to the proper subsection of the troubleshooting guide. Conditions D36, D37 ON D16 OFF
Subsection number 10.4.3
D36, D37 OFF D16 OFF
10.4.4
10.4.3 Set the INSP switch to ON. Unplug the J1 connector on the microcontroller board. Using the SW3 switch start the close or the open cycle and observe the operation of the motor and LEDs. The door operator may be running in the scan or automatic mode. If the motor is running, allow the door to reach the fully closed or the fully open position and check to see if the door closed limit or the door open limit relay has been energized. Complete both the close and the open cycles. 10.4.4 Use the hand-held unit to read the error log. Troubleshoot to page 26.
53
ECI2000TM05.doc
11.Electrical installation and quick setup Having finished mechanical installation, follow the procedure described in this chapter. Each door operator has to be set up in the field. The setup data are stored in a non-volatile memory and are later used in the scan mode after each power-up. During all the tests described in this chapter, the commands will be accepted from the switches located on the top board. 11.1. Check to see that the door operator enclosure is free of debris, dirt and wire clippings. Before trying to run the door, make sure that barricades are in front of the unpaid and paid doors to prevent patrons from entering the cubicle. 11.2. Verify that the power switch inside the door operator box is off. 11.3. Setup the inductive sensor first. Refer to drawing 8.1.2. 11.4. Connect all the wires. Refer to a job schematic. 11.5. Set the SW2 switches to ON and the SW1 and SW3 switches to OFF. 11.6. Manually move the door to its middle open position. 11.7. Set up the option switches. Refer to Appendix A. 11.8. Verify the position of the input voltage select jumpers. Use jumpers only for the 24V to 48V inputs . 11.9. Apply power with the power switch. After a short delay, the door operator will be initialized. The software has passed the self-test and is running, when the D17 red LED is flashing. If the D17 red LED is lit but is not flashing, refer chapters 7.1 and 10.4. Two green LEDs (D8, “ready” and D6, “main relay”) and two orange LEDs (D36, D37) have to be on. The orange LEDs indicate that the power stage has been enabled and is operational. Switch the SW1 switch to ON position. The orange LED (D16) will start flashing, indicating that the door operator is in the setup mode. 11.10. Start the closing cycle toggling SW3 to "close” (CL). If the door starts to move in the wrong direction, stop it, then switch the main power switch off and move DIP1 switch 3 to ON. Return to step 11.9. 11.11. Allow the door to stop and stall at its fully closed position. Wait until the “door close” limit LED is lit (D3), and then stop the door (SW3 to OFF). After completion of the closing cycle start the opening cycle. If no errors were encountered during the closing cycle, the program will permit the execution of the next setup step. 11.12. Start the opening cycle switching SW3 to OP (open). If the door does not move in response to SW3, an error was encountered during the closing cycle. If a hand-held unit is available, display the error log and then re-check the position of the door close limit. 54
ECI2000TM05.doc
With power on, check if the sensor LED and D7 LED are on. With power off, re-check the mechanical setup of the sensor. If the door starts to move in the open direction, wait until the door stops and stalls at the fully open position and D4 LED lights up. 11.13. If the setup is successful, the orange LED stops flashing. Switch both SW1 and SW3 switches to OFF. The orange LED will be switched off. If the setup has not been successful, the orange LED will continue to flash. In the latter case, the setup will have to be repeated. During the setup, the software determines the width of the door and pre-loads parameters accordingly. 11.14. When the setup has been finished, run one full scan cycle. With the inspection switch in the ON position, run the door through close and open cycles using the SW3 switch. Watch for smooth, unobstructed operation at low speed (scan speed). 11.15. When the full scan cycle has been completed, run the full automatic cycle. The door will move at full speed chosen accordingly to the door width during the setup procedure. Observe the door close and open limit relays and their LEDs (D3, D4). 11.16. If changes to the standard setup parameters are required, refer to section 5.2.6.
55
ECI2000TM05.doc
Appendix A. DIP switch settings. 3
4
DIP1
1
N
O RN8
Switch 1: Door type. ON- centre opening OFF- single slide or 2-speed Switch 2: ON - single point counter synchronization OFF- two point counter synchronization Switch 3: Door direction. Switch to match the direction of the door movement to the direction command. Switch 4: Software prior to ver. 1.11 PANA633 input enable OFF - PANA633 input inactive (PANA633 detector not used) ON - PANA633 input active (operates as PHD input) Switch 4: Software ver. 1.11 and later DOL relay logic reversal (for T-IV and TAC 50 controllers) OFF - DOL relay picks up within the door open zone (drops out otherwise) ON - DOL relay drops out within the door open zone (picks up otherwise)
56
ECI2000TM05.doc
Appendix B1. ECI 2000 door operator parameter list. (software version prior to version 1.11) Job number: Elevator number: Operator serial number: Door width: Door type: SS, CO, 2S ** Parameter name P1 SPEEDS: P1A CLOSE SPEED P1B HD1 SPEED P1C HD2 SPEED P1D NUDGE SPEED P1E CLOSE SLOW P1F SCAN SPEED P1G OPEN SPEED P1H OPEN SLOW P1J PL SPEED P2 PROFILE: P2A ACC. RATE P2B DEC. RATE P2C FAST RATE P2D JERK RATE P3 CURRENTS: P3A OVERCURRENT P3B ACC. CRNT P3C DEC. CRNT P3D OPEN CRNT P3E CLOSE CRNT P3F NUDGE CRNT P3G HLD OP CRNT P3H STALL CRNT P4 DISTANCES: P4A CL. SLOW P4B OP. SLOW P4C ADV. DCL P4D PREOPEN P5 DOOR DATA: P5A DOOR MASS P5B HD1 MASS P5C HD2 MASS P6 CONTROL: P6A IKP P6B IKI P6C VKP P6D VKI P6E VKD P6F PKP P6G SCL
P6H FER
Setup defaults
Date:
***
* * * * 51 mm/s * * 51 mm/s 51 mm/s 680 680 1017 3001
mm/s2 mm/s2 mm/s2 mm/s2
3.50 2.00 2.80 1.40 1.40 0.90 0.50 0.73
A A A A A A A A
35 mm 23 mm 46 mm 23 mm
* * * 700 40 22 10 20 50 64
25
* fill out these lines after the setup ** choose one (SS single slide, CO centre opening, 2S two-speed) *** fill out after final adjustment 57
Date:
***
ECI2000TM05.doc
Appendix B2. ECI 2000 door operator parameter list. (software version 1.11 and later) Job number: Elevator number: Operator serial number: Door width: Door type: SS, CO, 2S ** Parameter name P1 SPEEDS: P1A CLOSE SPEED P1B HD1 SPEED P1C HD2 SPEED P1D NUDGE SPEED P1E CLOSE SLOW P1F SCAN SPEED P1G OPEN SPEED P1H OPEN SLOW P1J PL SPEED P2 PROFILE: P2A ACC. RATE P2B DEC. RATE P2C FAST RATE P2D JERK RATE P3 CURRENTS: P3A OVERCURRENT P3B ACC. CRNT P3C DEC. CRNT P3D OPEN CRNT P3E CLOSE CRNT P3F NUDGE CRNT P3G HLD OP CRNT P3H STALL CRNT P4 DISTANCES: P4A CL. SLOW P4B OP. SLOW P4C ADV. DCL P4D PREOPEN P5 DOOR DATA: P5A DOOR MASS P5B HD1 MASS P5C HD2 MASS P6 CONTROL: P6A IKP P6B IKI P6C VKP P6D VKI P6E VKD P6F PKP P6G SCL
P6H FER
Setup defaults
Date:
***
* * * * 51 mm/s * * 51 mm/s 51 mm/s 680 680 1017 3001
mm/s2 mm/s2 mm/s2 mm/s2
3.50 2.00 2.80 1.40 1.40 0.90 0.50 0.73
A A A A A A A A
35 mm 23 mm 46 mm 23 mm
* * * 700 40 22 10 20 50 64
25
* fill out these lines after the setup ** choose one (SS single slide, CO centre opening, 2S two-speed) *** fill out after final adjustment 58
Date:
***
ECI2000TM05.doc
Appendix C1. ECI-2000-1100 printed circuit board.
59
ECI2000TM05.doc
Appendix C2. ECI-2000-1101 printed circuit board.
60
ECI2000TM05.doc
Appendix C3. ECI-2000-1101 rev. 1.0 printed circuit board.
61