IQ-400 ELV - Elevator Control Module

Transcription

1 IQ-400 ELV - Elevator Control Module Installation Manual REV: A PCSC 3541 Challenger Street Torrance, CA Phone: (310) FAX: (310) Page 1 of 87

2 First Edition: March 2006 Information in this manual is subject to change without notice and does not represent a commitment on the part of PCSC. The software described in this manual is furnished under a license agreement or nondisclosure agreement. The software may be used or copied only in accordance with the terms of the agreement. No part of this document may be reproduced or transmitted in any form or by any means, electronic or mechanical, including photocopying, recording, or information storage and retrieval systems, for any purpose other than specified in the agreement, without the express written permission of PCSC PCSC. All Rights Reserved. Printed in the United States of America. PCSC 3541 Challenger Street Torrance, CA Phone (310) Fax (310) Web Site Publication Number: Page 2 of

3 0.1 Board Diagrams The IQ-400 Printed Circuit Board Wiring Diagram Page 3 of

4 0.1.2 OUT Expansion Board Page 4 of

5 0.2 Table of Contents Section 1 - Getting Started Unpacking the IQ-400 ELV... 7 Section 2 - Introduction Elevator Control Installation Preparation IQ-400 ELV Enclosure Installation Personal Computer and Printer Installation Routing the Cables PCSC Product Grounding Instructions Section 3 - Connecting the IQ-400 ELV to the Power Supply DC Power Harness Wiring of IQ- Elevator Controllers Section 4 - IQ-400 ELV Wiring Wiring for Conventional Mode Elevator Control Sense Inputs, Relays, and LED s Diagram - IQ-400 ELV1 and IQ-400 ELV Diagram - IQ-400 ELV 3 and IQ-400 ELV IQ-400 ELV Floor Relay to Floor Select Button Wiring (DC Signals) Output PCB Number Assignment LEDs Sense Input and Control Counter (Relay) Locations Output (Elevator) Control PCB # Output (Elevator) Control PCB # Output (Elevator) Control PCB# Fuse, Power Connector and Test Point Locations Output (Elevator) Control PCB # Output (Elevator) Control PCB # Output (Elevator) Control PCB # Output (Elevator) Control PCB # Sense Input / Control Counter Plug / Pin Assignments Output PCB # Output PCB # Output PCB # Output PCB # Relay/ Signal Status LED s Relay/Signal Status Indicator Lights Output PCB # Relay/Signal Status Indicator Lights Output PCB # Relay/Signal Status Indicator Lights Output PCB # Relay/Signal Status Indicator Lights Output PCB # Section 5 - Using IQ-400 ELV with LiNC-NET Configuring LiNC-NET using ConFigLN Adding a Panel through ConFigLN Configuring IQ-400 ELV within LiNC-NET Adding a Panel to the through LiNC-NET Configuring Card Definitions Understanding Real Time Transactions for Floor Groups (Conventional Mode) Understanding Real Time Transactions for Floor Groups (Max One Button Mode) Creating a History Report for Floor Groups Section 6 - Special Tools Reader Locking Tool: FlashRAM Remover: Page 5 of

6 Section 7 - Appendix Elevator Control Processor Specifications IQ-400 ELV Wiring Specifications Belden Olympic Alpha 2404 or End of Manual Page 6 of

7 Section 1 - Getting Started Welcome to the IQ-400 ELV, the Logical Processing Module from PCSC. Setting up the IQ-400 ELV is easy; just follow the steps described below. This manual explains IQ-400 ELV installation and connection to a Personal Computer (PC) and an optional local printer. Before turning on the IQ-400 ELV, PC, or the printer, please read these instructions. Damage may occur if this is disregarded. NOTE The IQ-400 ELV system is set up at the factory. Do NOT re-initialize the system unless other modules have been added. Please note that each IQ-400 ELV must be DIP switch-configured for: On-line Processing IQ-400 ELV Addressing The LiNC-NET Elevator Controller communicates on a multi-point RS485 communication cable (other types of communication are available). In order to communicate to each IQ-400 ELV panel, you must address each IQ-400 ELV with a unique ID number (1-200). Numbering the IQ-400 ELVs should be in ascending order, but it is not required for operation. Installation must meet all local, state, and federal regulations and codes for electrical installation. If these codes conflict with the installation methods described in this manual, please call your service representative. 1.1 Unpacking the IQ-400 ELV As you unpack the IQ-400 ELV, inspect it for missing items or damage. Contact the dealer for any irregularities. Keep ALL packing material for protection in return shipping. Page 7 of

8 Section 2 - Introduction 2.1 Elevator Control Typical operation of an IQ-400 ELV system is as follows: 1. The cardholder swipes/presents a card to the system via Cardreader (and/or PIN Pad). 2. The system determines which floors the cardholder can access. 3. If the cardholder is authorized, the ELV allows the signals from the elevator buttons to be processed. 4. The cardholder then selects the floor. 5. The elevator controller receives the message, controlling the cab to the desired (and authorized) floor. NOTE The cardholder is responsible for selecting only one floor, when the IQ-400 ELV is operating in the Conventional Mode. An IQ-400 ELV system will activate all associated Relays on command from the Host Computer. Relays are automatically deactivated after the Access Time has elapsed. The IQ-400 ELV operates in a fail-safe mode. The secure state of the relay is energized. If the IQ-400 ELV malfunctions or loses power, the relays de-energize and control is reverted to the pushbutton panel. 2.2 Installation Preparation IQ-400 ELV Enclosure Installation These instructions should be used in conjunction with a IQ-series Installation Manual (P/N ). A IQ-400 ELV unit should be installed in a secure dry environment, preferably temperature controlled. Mount the enclosure away from any heat sources. Access to AC power and proximity to the Reader Stations should be taken into account before mounting the unit. PCSC Readers should be installed within 2,000 feet of the IQ-400 ELV. PCSC Wiegand Interface Readers can be installed up to 500 feet away (refer to Appendix). An Enclosure Tamper Alarm is installed as a security measure. The Enclosure is assembled in 3 parts: 1) Enclosure 2) Back Panel 3) DC Power Supply Assembly The electronics that comprise the IQ-400 ELV as well as the AC Power Supply Assembly are mounted on the back panel. The procedure below applies to IQ-400 ELV1 and IQ-400 ELV2, IQ-400 ELV3 and IQ-400 ELV4 which are housed in the enclosure shown below Page 8 of

9 IQ-400 ELV Enclosure Installation - Procedure: 1. Remove the back panel from the enclosure before installation. Place panel back into the shipping box until required. The rear panel is removed before installation to avoid metal shavings or any dust or dirt contaminating the circuit boards or power supply. 2. Remove the conduit plugs as required. 3. Mark four mounting hole dimensions on the wall. 4. Place the IQ-400 ELV enclosure over the mounting screw holes and tighten all screws (#10 screws, nuts, and/or anchors are recommended). 5. Attach a ground to the enclosure. 6. Mount the back panel in the enclosure. 7. Install the conduits to the enclosure. 8. Using an Amp crimp tool and flat blade screwdriver, make the appropriate final connections for the reader, door strike, door sense, outputs, etc. Page 9 of

10 2.2.2 Personal Computer and Printer Installation The PC should be installed in an office environment. Temperatures must not exceed factory recommended values of the PC or printer. Recommended temperatures are Fahrenheit (13-35 Celsius), with 90% humidity, non-condensing. Refer to the section on IQ-400 ELV Wiring Specifications for wiring considerations Routing the Cables Do not route data and power cables in the same conduit. Crosstalk and transmission of electrical noise may result. The IQ-400 ELV Printed Circuit Boards will become damaged if the power cable grounds to the data cable PCSC Product Grounding Instructions PCSC has designed its products to withstand most inductive voltage spikes without effect. However, some noise found in power supplies and door strikes, in addition to static discharge, may cause the control unit to momentarily shut down, lockup, or, in extreme cases, become damaged. Unexplained lockups and intermittent system behavior are common symptoms of static or noise problems. If cycling power will remedy your problem, carefully follow these instructions. 1. Install MOVs (Metal Oxide Varistors [Siemens S10K30, or equivalent]) or diodes (1N4004-1N4007) at each door strike. When installed, they will suppress most problem door strikes. 2. Readers should be properly earthen grounded for uninterrupted reads. Please be aware that installation is affected by the amount of static present during certain times of the year. 3. Properly grounding all readers and hardware, in addition to suppressing noise in the peripheral equipment, should allow for many problem free years of use with PCSC products. 4. In addition, PCSC recommends using a separate filtered, electronically regulated output, switching power supply for door strikes, when installing readers. 5. The next section describes how the reader should be electrically grounded. Before installing the reader, please read the following instructions. Damage may occur if this is disregarded. 6. Installation must meet all local, state, and federal regulations and codes for electrical installation. If these codes conflict with the installation methods described in this manual, please call your service representative. Page 10 of

11 Grounding the Power and Data Lines The following cables should be grounded at the IQ-400 ELV. Each cable has a set of drain lines that can be attached on the Host or controller end of the cable to the ESD (Electro-static Discharge) screws mounted in the optional enclosures for IQ-400 ELVs. If other non-metallic enclosures are used for controller housing, ensure that an alternative source for grounding is available. Procedure: 1. At the reader site, it is important to be aware of both the static generated from the user end as well as electrical grounding from the data and power cabling. If at all possible, the reader mounting plate should be connected to a grounded junction box or to another source, if the junction box is non-metallic. This alleviates the possible damage caused by static electricity. 2. Connect drain wires to provided ESD hardware at the controller site (enclosure) or to earth ground of conduit. As each reader port is progressively farther away from the ESD hardware location (left rear side of the cabinet for IQ-400 ELVs), allow for enough drain line to reach the ESD hardware on the controller end of the cable. There are 12 screwdown places in the IQ-400 ELV cabinet for drain line securing. Allow enough strain relief to avoid touching other circuitry or creating excessive tension. Page 11 of

12 Section 3 - Connecting the IQ-400 ELV to the Power Supply It may be operated with a +12 volt Power Supply with battery backup for standby power. All cabling should be conduit enclosed. IQ-400 ELVs can have an enclosed DC power supply sub-assembly. NOTE The IQ-400 ELV can not be powered from an A/C power source. The power supply must be an approved 12VDC 6.0A device. Page 12 of

13 3.1 DC Power Harness Wiring of IQ- Elevator Controllers Power is supplied to MTIP and ALL present Output PCB s Page 13 of

14 Section 4 - IQ-400 ELV Wiring 4.1 Wiring for Conventional Mode Each elevator cab has a bundle of wire (trail or traveling cable) from the floor select panel to the elevator control system. This bundle is interrupted when the IQ-400 ELV system is introduced. Each push-button that is controlled will require interruption. The IQ-400 ELV system provides 16 relays per printed circuit board. One relay is to be used for each floor. The Elevator Control Processor consists of a IQ-LPM Processor board equipped with one to four output control printed circuit boards. The IQ-400 ELV configurations are broken down as follows: IQ-400 ELV: 1 Printed Circuit Board with 16 total relays IQ-400 ELV2: 2 Printed Circuit Boards with 32 total relays IQ-400 ELV3: 3 Printed Circuit Boards with 48 total relays IQ-400 ELV4: 4 Printed Circuit Boards with 64 total relays The relays of the ELV are to be placed in series between the floor select button and the elevator controller. Refer to the following wiring chart and Diagram A. Control Counter number to plug/pin correspondence IQ-ELV Output PCB#1 IQ-ELV Output PCB#2 IQ-ELV 4-3 Output PCB#3 IQ-ELV 4 Output PCB#4 From Push-Button Floor Relay Normally Closed Contact Connection Point A To Elevator Controller Floor Relay Common Contact Contact Connection Point B #25 #41 #57 #73 P5 Pin 7 N.C. P5 Pin 8 COM. #26 #42 #58 #74 P5 Pin 5 N.C. P5 Pin 6 COM. #27 #43 #59 #75 P5 Pin 3 N.C. P5 Pin 4 COM. #28 #44 #60 #76 P5 Pin 1 N.C. P5 Pin 2 COM. #29 #45 #61 #77 P6 Pin 7 N.C. P6 Pin 8 COM. #30 #46 #62 #78 P6 Pin 5 N.C. P6 Pin 6 COM. #31 #47 #63 #79 P6 Pin 3 N.C. P6 Pin 4 COM. #32 #48 #64 #80 P6 Pin 1 N.C. P6 Pin 2 COM. #33 #49 #65 #81 P7 Pin 7 N.C. P7 Pin 8 COM. #34 #50 #66 #82 P7 Pin 5 N.C. P7 Pin 6 COM. #35 #51 #67 #83 P7 Pin 3 N.C. P7 Pin 4 COM. #36 #52 #68 #84 P7 Pin 1 N.C. P7 Pin 2 COM. #37 #53 #69 #85 P8 Pin 7 N.C. P8 Pin 8 COM. #38 #54 #70 #86 P8 Pin 5 N.C. P8 Pin 6 COM. #39 #55 #71 #87 P8 Pin 3 N.C. P8 Pin 4 COM. #40 #56 #72 #88 P8 Pin 1 N.C. P8 Pin 2 COM. Page 14 of

15 4.1.1 Elevator Control Sense Inputs, Relays, and LED s Page 15 of

16 4.1.2 Diagram - IQ-400 ELV1 and IQ-400 ELV2 Floor Relay hook up for Conventional mode Page 16 of

17 4.1.3 Diagram - IQ-400 ELV 3 and IQ-400 ELV 4 Floor Relay Hook up for Conventional Mode Page 17 of

18 4.1.4 IQ-400 ELV Floor Relay to Floor Select Button Wiring (DC Signals) Hook up for Conventional Mode Page 18 of

19 4.1.5 Output PCB Number Assignment The output board selection is determined by switches 1 and 2 of SW LEDs Located at U1 and U2 on each Output (ELV) board, are two banks of LEDs. U1 indicates the state of the relays for Relay 1 to Relay 8 and the watchdog timer for the board. U2 indicates the state of Relays 9 to 16 and power for +12 and +5 volts. When the quiescent state of the relays is energized and the LEDs will be on. When access is granted, the relay(s) will de-energize and the LED associated with the relay will turn OFF. NOTE: Presently ALL IQ-400 Elevator Output Boards should be set for the HI PCB Address Range. Page 19 of

20 4.2 Sense Input and Control Counter (Relay) Locations Output (Elevator) Control PCB #1 NOTE: A jumper must be connected between pins #5 and 6 of Plug P13 for proper operation of the Output PCB (if applicable). Page 20 of

21 4.2.2 Output (Elevator) Control PCB #2 Sense Input and Control Counter plug/pin assignments NOTE: A jumper must be connected between pins #5 and 6 of Plug P13 for proper operation of the Output PCB (if applicable). Page 21 of

22 4.2.3 Output (Elevator) Control PCB #3 Sense Input and Control Counter plug/pin assignments Page 22 of

23 4.2.4 Output (Elevator) Control PCB#4 Sense Input and Control Counter plug/pin assignments Page 23 of

24 4.3 Fuse, Power Connector and Test Point Locations Output (Elevator) Control PCB #1 Page 24 of 87

25 OUT Expansion Board Output PCB is jumped for HI address range when with IQ-400 ELV. All Switches OFF (PCB #1) Page 25 of

26 4.3.2 Output (Elevator) Control PCB #2 Fuse, Power Connector and Test Point Locations Page 26 of

27 OUT Expansion Board Output PCB is jumped for HI Address Range when with IQ-400 ELV. Switch #2 ON (PCB #2) Page 27 of

28 4.3.3 Output (Elevator) Control PCB #3 Fuse, Power Connector and Test Point Locations Page 28 of 87

29 OUT Expansion Board Output PCB is jumped for HI Address Range when with IQ-400 ELV. Switch #1 ON (PCB3) Page 29 of

30 4.3.4 Output (Elevator) Control PCB #4 Fuse, Power Connector and Test Locations Page 30 of 87

31 OUT Expansion Board Output PCB is jumped for HI Address Range when with IQ-400 ELV. Switches 1 and 2 ON (PCB #4) Page 31 of

32 4.4 Sense Input / Control Counter Plug / Pin Assignments Output PCB #1 Page 32 of 87

33 4.4.2 Output PCB #2 Sense Input/Control Counter Plug/Pin Assignments Page 33 of

34 4.4.3 Output PCB #3 Sense Input/Control Counter Plug/Pin Assignments Page 34 of

35 4.4.4 Output PCB #4 Sense Input/Control Counter Plug/Pin Assignments Page 35 of

36 4.5 Relay/ Signal Status LED s Relay/Signal Status Indicator Lights Output PCB #1 Page 36 of

37 Output PCB #1 - Control Counter Number to Plug/Pin Correspondence Control Counter # From Push-Button To Elevator Controller IQ-400 ELV IQ-400 ELV IQ-400 ELV IQ-400 ELV Floor Relay Normally Floor Relay Normally Closed Contact Closed Contact Output PCB#1 Output PCB#2 Output PCB#3 Output PCB#4 Connection Point A Connection Point B #25 #41 #57 #73 P5 Pin 7 N.C. P5 Pin 8 COM. #26 #42 #58 #74 P5 Pin 5 N.C. P5 Pin 6 COM. #27 #43 #59 #75 P5 Pin 3 N.C. P5 Pin 4 COM. #28 #44 #60 #76 P5 Pin 1 N.C. P5 Pin 2 COM. #29 #45 #61 #77 P6 Pin 7 N.C. P6 Pin 8 COM. #30 #46 #62 #78 P6 Pin 5 N.C. P6 Pin 6 COM. #31 #47 #63 #79 P6 Pin 3 N.C. P6 Pin 4 COM. #32 #48 #64 #80 P6 Pin 1 N.C. P6 Pin 2 COM. #33 #49 #65 #81 P7 Pin 7 N.C. P7 Pin 8 COM. #34 #50 #66 #82 P7 Pin 5 N.C. P7 Pin 6 COM. #35 #51 #67 #83 P7 Pin 3 N.C. P7 Pin 4 COM. #36 #52 #68 #84 P7 Pin 1 N.C. P7 Pin 2 COM. #37 #53 #69 #85 P8 Pin 7 N.C. P8 Pin 8 COM. #38 #54 #70 #86 P8 Pin 5 N.C. P8 Pin 6 COM. #39 #55 #71 #87 P8 Pin 3 N.C. P8 Pin 4 COM. #40 #56 #72 #88 P8 Pin 1 N.C. P8 Pin 2 COM. Relay Contact Nomenclature N.C.= Normally Closed Contact COM.= Common Contact Page 37 of 87

38 4.5.2 Relay/Signal Status Indicator Lights Output PCB #2 Page 38 of Page 38 of 87

39 Output PCB #1 - Control Counter Number to Plug/Pin Correspondence Control Counter # From Push-Button To Elevator Controller IQ-ELV IQ-ELV IQ-ELV IQ-ELV 4 Floor Relay Normally Floor Relay Normally Closed Contact Closed Contact Output PCB#1 Output PCB#2 Output PCB#3 Output PCB#4 Connection Point A Connection Point B #25 #41 #57 #73 P5 Pin 7 N.C. P5 Pin 8 COM. #26 #42 #58 #74 P5 Pin 5 N.C. P5 Pin 6 COM. #27 #43 #59 #75 P5 Pin 3 N.C. P5 Pin 4 COM. #28 #44 #60 #76 P5 Pin 1 N.C. P5 Pin 2 COM. #29 #45 #61 #77 P6 Pin 7 N.C. P6 Pin 8 COM. #30 #46 #62 #78 P6 Pin 5 N.C. P6 Pin 6 COM. #31 #47 #63 #79 P6 Pin 3 N.C. P6 Pin 4 COM. #32 #48 #64 #80 P6 Pin 1 N.C. P6 Pin 2 COM. #33 #49 #65 #81 P7 Pin 7 N.C. P7 Pin 8 COM. #34 #50 #66 #82 P7 Pin 5 N.C. P7 Pin 6 COM. #35 #51 #67 #83 P7 Pin 3 N.C. P7 Pin 4 COM. #36 #52 #68 #84 P7 Pin 1 N.C. P7 Pin 2 COM. #37 #53 #69 #85 P8 Pin 7 N.C. P8 Pin 8 COM. #38 #54 #70 #86 P8 Pin 5 N.C. P8 Pin 6 COM. #39 #55 #71 #87 P8 Pin 3 N.C. P8 Pin 4 COM. #40 #56 #72 #88 P8 Pin 1 N.C. P8 Pin 2 COM. Relay Contact Nomenclature Page 39 of

40 4.5.3 Relay/Signal Status Indicator Lights Output PCB #3 Page 40 of

41 Output PCB #3 - Control Counter Number to Plug/Pin Correspondence Control Counter # From Push-Button To Elevator Controller IQ-ELV IQ-ELV IQ-ELV IQ-ELV 4 Floor Relay Normally Floor Relay Normally Closed Contact Closed Contact Connection Point A Connection Point B Output PCB#1 Output PCB#2 Output PCB#3 Output PCB 4 #25 #41 #57 #73 P5 Pin 7 N.C. P5 Pin 8 COM. #26 #42 #58 #74 P5 Pin 5 N.C. P5 Pin 6 COM. #27 #43 #59 #75 P5 Pin 3 N.C. P5 Pin 4 COM. #28 #44 #60 #76 P5 Pin 1 N.C. P5 Pin 2 COM. #29 #45 #61 #77 P6 Pin 7 N.C. P6 Pin 8 COM. #30 #46 #62 #78 P6 Pin 5 N.C. P6 Pin 6 COM. #31 #47 #63 #79 P6 Pin 3 N.C. P6 Pin 4 COM. #32 #48 #64 #80 P6 Pin 1 N.C. P6 Pin 2 COM. #33 #49 #65 #81 P7 Pin 7 N.C. P7 Pin 8 COM. #34 #50 #66 #82 P7 Pin 5 N.C. P7 Pin 6 COM. #35 #51 #67 #83 P7 Pin 3 N.C. P7 Pin 4 COM. #36 #52 #68 #84 P7 Pin 1 N.C. P7 Pin 2 COM. #37 #53 #69 #85 P8 Pin 7 N.C. P8 Pin 8 COM. #38 #54 #70 #86 P8 Pin 5 N.C. P8 Pin 6 COM. #39 #55 #71 #87 P8 Pin 3 N.C. P8 Pin 4 COM. #40 #56 #72 #88 P8 Pin 1 N.C. P8 Pin 2 COM. Page 41 of

42 4.5.4 Relay/Signal Status Indicator Lights Output PCB #4 Page 42 of

43 Output PCB #4 - Control Counter Number to Plug/Pin Correspondence IQ-ELV Output PCB#1 IQ-ELV Output PCB#2 Control Counter # IQ-ELV 4-3 Output PCB#3 IQ-ELV 4 Output PCB#4 From Push-Button Floor Relay Normally Closed Contact Connection Point A To Elevator Controller Floor Relay Normally Closed Contact Connection Point B #25 #41 #57 #73 P5 Pin 7 N.C. P5 Pin 8 COM. #26 #42 #58 #74 P5 Pin 5 N.C. P5 Pin 6 COM. #27 Special Tools #43 #59 #75 P5 Pin 3 N.C. P5 Pin 4 COM. #28 Cable Connection #44 tool: Cable #60 insertion to the AMP #76connectors must P5 Pin be 1 performed N.C. with P5 Pin either 2 COM. an #29 AMP Insertion Handle #45 (P/N ) #61 w/ an AMP #77 Head (P/N ) P6 Pin or 7 N.C. an AMP hand P6 Pin tool 8 (P/N COM ) for MTA connectors. Any other tool may cause improper connection or damage to the #30 system. #46 #62 #78 P6 Pin 5 N.C. P6 Pin 6 COM. #31 Reader Locking #47 tool: As a security #63 measure, some #79readers are P6 equipped Pin 3 N.C. wit a security P6 Pin bolt. 4 COM. This bolt requires a special driver (P/N ) to secure each reader and PIN pad. #32 PROM Remover: #48 To remove integrated #64 circuits (ICs) #80 from any PC P6 board, Pin 1 a N.C. special PROM P6 Pin 2 COM. #33 removing tool is #49 recommended. #65 #81 P7 Pin 7 N.C. P7 Pin 8 COM. #34 #50 #66 #82 P7 Pin 5 N.C. P7 Pin 6 COM. #35 #51 #67 #83 P7 Pin 3 N.C. P7 Pin 4 COM. #36 #52 #68 #84 P7 Pin 1 N.C. P7 Pin 2 COM. #37 #53 #69 #85 P8 Pin 7 N.C. P8 Pin 8 COM. #38 #54 #70 #86 P8 Pin 5 N.C. P8 Pin 6 COM. #39 #55 #71 #87 P8 Pin 3 N.C. P8 Pin 4 COM. #40 #56 #72 #88 P8 Pin 1 N.C. P8 Pin 2 COM. Page 43 of

44 Section 5 - Using IQ-400 ELV with LiNC-NET 5.1 Configuring LiNC-NET using ConFigLN LiNC-NET Software ConFigLN is configured for CONVENTIONAL Elevator Mode of Operation NOTE: If you plan to use the Max One Button elevator mode of operation, select the ELV: Max One button. Because ALL IQ-400 ELV Controller Firmware supports PLUS4 (four Authorization Groups per Card) Operation, this Field s also selected. Page 44 of ELV: Max One button for use in Max One button mode of operation.

45 5.1.1 Adding a Panel through ConFigLN NOTE: Adding a panel through ConFigLN will default to Conventional Mode. NOTE: If you plan to use the Max One Button elevator mode of operation, select the ELV: Max One button. Creating the database is a fairly simple process. There are four steps: establishing the Default Values you wish to use in your LiNC-NET system; determining the panels you will be using with your system; determining which file-types will be monitored in your system; and then compiling the database to your specification. In the ConFigLN Database section: 1. Click on the Create... button in ConFigLN. The Create Database screen will appear. Notice that you are currently displaying the Main page. Page 45 of

46 Create Data Base: Default Values 1. Click on the Default Values tab to select the default values for: Card Technology Door Access Time Card Table Format Daylight Savings Dates Entry/Exit Enforcement Options NOTE: If settings are correct, go to the Panels tab for next step. Use the explanations provided in the following section to help you determine your Default Values selections Default Values Page Page 46 of

47 Create Data Base: Default Values: Card Technology In this section, you must select the card reader technology that you will implement into your access control system. Select the appropriate type of card reader in the Format window. The available card technology formats are as follows: ProTech MagStripe Watermark BR-350, BR-351, BR-370, BR-371 BR-450, BR-451, BR-452, BR-470, BR-471 Any Watermark card with the 12-digit format PCSC Wiegand 34-bit PCSC Wiegand format, All Sensor Proximity Readers Indala 12-Digit Sensor 26 Sensor 34 Special PCSC 37 Corp_1000 Motorola 32 Indala Proximity format No site code; Magnetic Stripe, barcode Standard Sensor 26-bit format. All Hughes ID Proximity Readers, BR-700, and many standard OLM readers. Standard Sensor 34-bit format Special format Special 37 bit HID Proximity format Special 35 bit HID Proximity format Special 32 bit Motorola Proximity format A letter or additional reference description that describes the reader type can follow the card technology: PIN-Pad PIN Pad with the reader. (I) Insert Reader Page 47 of

48 Create Data Base: Default Values: Door Lock Access Time The Door Access Time is the length of time that the door lock is to be energized. The actual length of time is 1/2 second less than the number of seconds specified. For example, access time value of 1 denotes 1/2 second of access and time value of 5 denotes 4 1/2 seconds. Value of 1 is generally used for turnstiles. You must select time values for both the Standard (Access) and Long (Access). Standard (Access) is the normal door lock energize time. Select an access time from seconds (2-998 seconds for elevator readers). Long (Access) is the door-lock energize time for cardholders that require a longer access time than the standard access time (i.e. an individual with a disability). Select an access time from seconds (3-999 seconds for elevator readers). Page 48 of

49 Create Data Base: Default Values: Card Table Format Primary Expiration Global - When selected, the Primary expiration date is used for all cards at all readers wired to the panel. It is irrelevant whether the readers are parking, building or department readers, as the secondary expiration date is not used. If you select Global, the system uses the Primary expiration date for all types of readers. In selecting Global, the PIN feature is automatically selected (and visa versa). If you select Park-Only, each cardholder has 2 card expiration dates. One date controls the access privilege for parking type readers and the other for all other types of readers. This unique function allows the system administrator to automatically deny access to cardholders at parking readers, yet allow them to pass through facility related readers. PIN or Parking reader expiration date (Parking Readers) Park-Only - When selected, the secondary expiration date is used for all cards, but only at parking readers wired to the panel. The primary expiration date is then only used at department and building type readers. Names for Cardholders Exist PCSC panel products have the ability to store the cardholder names within the panel itself. Selecting this option will decrease the number of cardholders in a standard MicroLPM panel from 1016 to 600 cardholders (IQ and SIM board capacity are unaffected by downloading names). If you require names and more cardholders than 600, you will need to purchase a memory expansion kit for the MicroLPM panel. 12-Digit Card Number Various card formats are available within the system. When using the MagStripe or Watermark format where a site code is not available, this option must be selected. For example, the MicroLPM (and I.Q. and SIM) series supports 5-12 digit ABA Track 2 format data. Page 49 of

50 Create Data Base: Default Values: Daylight Savings The daylight savings cycle may be programmed into the panel. Start: Enter the date of the official start of Daylight Savings (In the U.S. it is normally the first Sunday of April). Stop: Enter the date of the official end of Daylight Savings (In the U.S it is normally the last Sunday of October). NOTE If a MicroLPM panel does not roll into Daylight Savings (no Start date programmed), then it won t roll out of Daylight Savings (even if a Stop date was programmed). However, the IQ Q or SIM S series firmware allows their respective boards to rollout of Daylight Savings, even if they didn t roll into it Create Data Base: Default Values: Entry/Exit Enforcement Each panel supports three separate entry/exit enforcement levels: Strict, Lenient, and Soft. Each enforcement level can be individually assigned to Parking, Department, or Building Type readers, but is enforced only when the Entry function and the corresponding Exit function readers are on the same panel. NOTES Entry/Exit enforcement cannot be done (at any of the 3 levels) if the entry readers are on one panel and the corresponding exit readers are on a different panel. These panel firmware versions require the door to be opened before changing the card status, repeated accesses will be granted (regardless of the anti-passback level of enforcement) if the door is not opened: Standard MicroLPM- Version and above Plus 2 MicroLPM- Version and above Plus 4 MicroLPM- Version *All IQ and SIM panels require the door to be opened prior to updating the card status Create Data Base: Default Values: Entry/Exit Enforcement: Strict Entry/Exit The cardholder s entry/exit status must be synchronized with the system, otherwise an entry/exit error will be announced. In other words, the cardholder must have the proper status (building, department, or parking) before he uses an entry/exit reader. The card status must be as follows: If the cardholder s Building Status is IN, then Department Status can be IN or OUT. If the cardholder s Building Status is OUT, the Department Status must be OUT. If the cardholder s Department Status is IN, then Building Status must be IN. If the cardholder s status does not comply with the reader s entry/exit definition, then the system will deny access. In other words, when a cardholder attempts to enter a Building IN reader, the cardholder s building and department status must be OUT. Page 50 of

51 Create Data Base: Default Values: Entry/Exit Enforcement: Lenient Entry/Exit This level is the same as Strict except on the first use of the card, in which case the system will automatically reset the building and department status to proper synchronization. The cardholder s second attempt at the reader will then grant him access Create Data Base: Default Values: Entry/Exit Enforcement: Soft Entry/Exit This level follows the same rules as Strict except that if an error transaction is recorded, all status levels are synchronized, and access is GRANTED. Page 51 of

52 Create Data Base: Panels 1. Click on the Panels tab. The Panels page shall appear. Panels Selection Field 2. On the Panels page, select panel(s) for which data files will be created by selecting the appropriate type from the Panel Model window. 3. To select panels individually, select the panel model in the radial button group box, then select the panel number. Page 52 of

53 Create Data Base: Main When you finish making your selections 1. On the Main page, click on the Start button to begin creating the selected files. 2. A pop-up window will appear, asking you if you are sure that you want to create/rebuild the database. Press the Yes button. 3. When complete click on the Exit button (located in the upper right hand corner) to exit the create database module. 4. A pop-up window will appear confirming your decision to exit CreateDB. Click Yes. 5. You will then return to the ConfigLN screen. Click on the Exit button located in the upper right side of the screen to return to the desktop. NOTE: Installation is complete. To start the LiNC-NET program go to Start \ Program Files\LNv5.14.2\LiNC_NET Page 53 of

54 5.2 Configuring IQ-400 ELV within LiNC-NET LiNC-NET Software is employed. Page 54 of

55 IQ-400 ELV Firmware Version I ERU is for either CONVENTIONAL or Max one button Elevator Mode of Operation. Page 55 of

56 Because there is not an IQ-400 ELV Model defined within the Panel Setup Screen, the Model is defined as MicroELV4. This is because in this example the IQ-400 ELV employed has four output boards connected. If your IQ-400 ELV has a differing number of output boards, configure your model as follows: For IQ-400 ELV with 1 Output board, choose model MicroELV For IQ-400 ELV with 2 Output boards, choose model MicroELV2 For IQ-400 ELV with 3 Output boards, choose model MicroELV3 NOTE: The above assignment of floor relays to card readers is user defined. Any relay may be assigned to any of the readers. But no matter how many Floor Relays there are each relay can only be assigned to a single reader. Page 56 of

57 Page 57 of

58 Card Reader a through d are defined for Elevator operation. NOTE: The Door Sense and Egress Sense Inputs have been zeroed out. This is to prevent the IQ-400 ELV Controller from ignoring any Cards when the Access Time is short, and Cards are presented in rapid succession (high volume traffic interval which occurs at the beginning of the work day, ending of the work day, and lunch hour). Disassociation of these Sense Input s are not detrimental as the IQ-400 ELV is purely an Elevator Controller, and therefore it is not a necessity for the Door & Egress Sense Inputs for Elevator Operation. Both the Door Relay Output and Alarm Control Output will MOMENTARILLY activate for each Card that is granted Access ( Authorized ) by a reader. This is done for the purpose of providing the ability to control the Elevator Cab s Lighting or HVAC. The designation of the Output and the Alarm Control for each of the readers is as follows: Card Reader Output Alarm Control Reader a 1 13 Reader b 2 14 Reader c 3 15 Reader d 4 16 Page 58 of

59 Card Readers a through d are assigned to influence specific Floor Relay s within Floor Group #1. The designation of the Output and the Alarm Control for each of the readers is as follows: Card Reader Floor Relays Reader a Reader b Reader c Reader d NOTE: The above assignment of floor relays to card readers is user defined. Any relay may be assigned to any of the readers. But no matter how many Floor Relays there are each relay can only be assigned to a single reader. Page 59 of

60 When the IQ-400 ELV is being used in Max one button Mode of Operation the Sense Input s #56 through #71 are defined as a Floor Button. Their polarity is inverted, as they are a Normally Open Sense Input. They are also unsupervised. The IQ-400 ELV Firmware AUTOMATICALLY establishes a one to one Correspondence between a Floor Button Sense Input, and it s associated Control Counter (Floor Relay) Output. The LiNC- NET Programming cannot alter this Correspondence. Page 60 of

61 However, when the IQ-400 ELV Controller is being used in CONVENTIONAL Mode of Operation, the Sense Input s #56 through #71 are defined as a NotInUse. Their polarity is inverted, as they are a Normally Open Sense Input. They are also unsupervised. Page 61 of

62 Sense Input s #72 through #119 are automatically defined by the LiNC-NET to be Floor Buttons. The IQ-400-ELV Firmware AUTOMATICALLY establishes a one to one Correspondence between a Floor Button Sense Input, and it s associated Control Counter (Floor Relay) Output. The LiNC- NET Programming cannot alter this Correspondence. Page 62 of

63 Floor Relay Control Counter s #25 through #88 are defined to de-energize upon activation and have a Low Value of 0, a High Value of 2, a Maximum Value of 32700, and a Preset Value of 8. The IQ-400 ELV Firmware AUTOMATICALLY establishes a one to one Correspondence between a Floor Button Sense Input, and it s associated Control Counter (Floor Relay) Output. The LiNC- NET Programming cannot alter this Correspondence. NOTE: Floor Relay (Control Counter #25) is not under Time Period Control. This is because Time Period #0 is programmed to influence this Floor Relay. Page 63 of

64 Floor Relay Control Counter s #25 through #88 are defined to de-energize upon activation and have a Low Value of 0, a High Value of 2, a Maximum Value of 32700, and a Preset Value of 8 The IQ-400 ELV Firmware AUTOMATICALLY establishes a one to one Correspondence between a Floor Button Sense Input, and it s associated Control Counter (Floor Relay) Output. The LiNC- NET Programming cannot alter this Correspondence. Please Note: Floor Relay (Control Counter #88) is not under Time Period Control. This is because Time Period #0 is programmed to influence this Floor Relay. Page 64 of

65 Floor Relay Control Counter s #25 through #88 are defined to de-energize upon activation and have a Low Value of 0, a High Value of 2, a Maximum Value of 32700, and a Preset Value of 8 The IQ-400 ELV Firmware AUTOMATICALLY establishes a one to one Correspondence between a Floor Button Sense Input, and it s associated Control Counter (Floor Relay) Output. The LiNC- NET Programming cannot alter this Correspondence. NOTE: Floor Relay (Control Counter #87) is under Time Period Control. This is because Time Period #10 is programmed to influence this Floor Relay. During Time Period Override, it is not necessary to use a Card to select the Floor Controlled by this Floor Relay. Page 65 of

66 Card # 169 is Authorized and then Floor Button (Sense Input) # 56 is pressed and Floor Relay (Control Counter) # 25 momentarily De-energizes. NOTE: The numeric value of Floor Relay #25 is greater than 0 (zero is the low numeric value of Floor Relay #25), and this represents the Floor Relay #25 as being physically de-energized. Thus continuity exists between the Common and Normally Closed relay contacts. Page 66 of

67 Card # 169 is Authorized and then Floor Button (Sense Input) # 56 is pressed and Floor Relay (Control Counter) # 25 momentarily De-energizes NOTE: Floor Relay (control counter) #25 is the only one that is physically deenergized (as illustrated by the ON field being checked). Page 67 of

68 Floor Relay (Control Counter) # 87 is under Time Period Control. But at the moment the Floor Relay is not De-energized as the Floor Button (Sense Input # 118) is not pressed. NOTE: The numeric value 0 is the Low value assigned to control counter #87. Therefore this status represents that the Floor Relay is de-activated. And since this Floor Relay s programming is inverted, it is physically energized at this point. Thus, continuity exists between the Common and Normally Open (N.O.) Floor Relay contacts. Page 68 of

69 Floor Relay (Control Counter) # 87 is under Time Period Control. And at the moment the Floor Relay is De-energized as the Floor Button (Sense Input # 118) is pressed. NOTE: This is reflected in the numeric value 1 being illustrated for control counter (Floor Relay #87) which translates to this Floor Relay as being activated (physically de-energized). Thus, continuity exists between the Common and Normally Closed (N.C.) Floor Relay contacts. Page 69 of

70 5.2.1 Adding a Panel to the through LiNC-NET NOTE: Adding a panel through ConFigLN will default to Conventional Mode. 1. Within LiNC-NET, proceed to SITE/Host Panel. 2. Select the Add/Delete panel. 3. Select the correct number for the panel in the drop-down box next to Panel. 4. Select the type of panel to be added in Model. 5. Press the Add Panel button Page 70 of

71 Page 71 of

72 5.3 Configuring Card Definitions LiNC-NET allows each card number to be affiliated with as many as four Floor groups. NOTE: In the above example, only Floor Group #118 is affiliated with card #18. Should additional Floor Groups be assigned to this card, they will be discriminated against based upon the corresponding Time Period assigned to them. Page 72 of

73 5.4 Understanding Real Time Transactions for Floor Groups (Conventional Mode) When a Card is granted access at an Elevator Type Card Reader the appropriate Floor Relays (as defined within the Floor Group assigned to the Card) automatically de-energize. These Floor Relays remain physically de-energized for the duration equivalent to the Access Time assigned to the Card Reader. Also the Card Reader s LED remains Green for this same duration. If a Card has a Floor Group assigned to it and this Floor Group is undefined in the LiNC-NET, an Invalid Time Message is logged. Page 73 of

74 When a Card is granted access at an Elevator Type Card Reader, an Authorized Message is logged. In addition, for each Floor Relay that is defined to be included in the Floor Group assigned to the Card a Counter On Message is logged indicating that the Floor Relay has physically deenergized. Conversely, upon the Floor Relay physically re-energizing a Counter Off Message is Logged. Page 74 of

75 If a Card is used that is not included in the Card Database within the IQ-ELV Controller, then an Undefined Card Message is logged. Page 75 of

76 If a Card is used at a Reader that is not included in the Authorization Group assigned to the Card, then an Undefined Card Message is logged. Page 76 of

77 5.4.1 Understanding Real Time Transactions for Floor Groups (Max One Button Mode) If a Cardholder attempts to access a floor that is not assigned to its Floor Group, an Invalid floor button code is logged. Page 77 of

78 Conversely, after a card is granted access, an Authorized message is logged. To reflect that the Door Relay and Open Collector Outputs have momentarily activated, Counter On messages are then logged. And lastly, to reflect that the cardholder has selected a floor that is defined within the assigned floor group, a Floor button pressed message is logged. Subsequent Counter On and Counter Off messages are logged to illustrate the activation and de-activation of the selected Floor Relay. Page 78 of

79 5.5 Creating a History Report for Floor Groups History Report Query for ALL Activity at Panel #90 (IQ-ELV Controller). Page 79 of

80 History Report Query of ALL Authorized Cards and Floor button pressed Messages at Panel # 90 for Today. Page 80 of

81 Results of History Report Query of ALL Authorized Cards and Floor button pressed Messages at Panel # 90 for Today. Page 81 of

82 History Report Query of ALL Authorized Cards and Floor button pressed and Invalid floor button Messages at Panel # 90 for Today. Page 82 of

83 Results of History Report Query of ALL Authorized Cards and Floor button pressed and Invalid floor button Messages at Panel # 90 for Today. Page 83 of

84 Section 6 - Special Tools 6.1 Reader Locking Tool: As a security measure, some PCSC readers are equipped with a security bolt. This bolt requires a special driver (P/N ) to secure each reader and Pin pad. 6.2 FlashRAM Remover: To remove integrated circuits from PC board, a special Flash-RAM removing tool is recommended. Page 84 of

85 Section 7 - Appendix 7.1 Elevator Control Processor Specifications Enclosure Physical Dimensions IQ-400 ELV 1 & IQ-400 ELV2: H W D IQ-400 ELV3 & IQ-400 ELV4 28 x 19.25x 7 inches x centimeters Power Requirements: 6 Amp PCSC Power Supply (P/N ) Environmental Specifications: Operating Temperature: (4-46 C) Humidity (Non-condensing): 0-90% Page 85 of

86 7.2 IQ-400 ELV Wiring Specifications Traveling (Trail or Tray) cable is to be used for ALL Elevator Cab Card Reader wiring. Type of Card Reader Type of 22awg Maximum Distance Max. Distance w/pin Pad Technology Models Stranded Wire ProTech BR-350, BR-351, BR pair, twisted, w/ 2,000 ft. 2,000 ft. overall shield (609 m) (609 m) Sensor BR-200, BR pair, twisted, w/ 500 ft. 500 ft. overall shield (192 m) (192 m) Proximity All models 3-pair, twisted, w/ 500 ft. 500 ft. overall shield (192 m) (192 m) Biometrics All models 3-pair, twisted, w/ 500 ft. 500 ft overall shield (192 m) (192 m) Bar Code All models 3-pair, twisted, w/ 500 ft. 500 ft overall shield (192 m) (192 m) Vehicle ID VR pair, twisted, w/ 500 ft. 500 ft overall shield (192 m) (192 m) LiNC-NET LiNC-NET 1-pair, twisted, w/ To the last IQ-400 ELV 4,000 ft overall shield if using RS485 protocol. (1,219 m) 2-pair twisted and shielded cable recommended brands are: Belden 8728 Olympic 3030 Alpha 2404 or pair twisted and shielded cable recommended brands are: Belden 8777 Alpha 6010C WPW D431 Communications Buss. Cabling Note: All data communications cables must reside in a separate electrical conduit. Absolutely NO high voltage or AC power cables allowed within data conduits. Wiring from IQ-400 ELV to sense inputs, door strikes, external shunts, is either 1 or 2 twisted pair of 22 AWG stranded wire (see recommended brands above) with a 2,000 foot maximum. NOTE: Belden 8728,8777, Olympic 3030, Alpha 2404,2212,6010C or WPW D431 Are Not elevator traveling (trail or tray) type cabling. They are listed for comparison and equivalent traveling type wire should be employed in the elevator cab wiring. Page 86 of

87 End of Manual PCSC March 2006 Page 87 of