Transcript
619DSRI™ Digital Smart Radio Interface ™ Product Manual
™
619DSRI ™ Digital Smart Radio Interface Product Manual © 2009-2016 Omnitronics Pty Ltd. All rights reserved.
No part of the contents of this publication may be reproduced or transmitted in any form or by any means without the prior written consent of Omnitronics. Information contained in this document is provided solely to enable use of Omnitronics products. Omnitronics assumes no liability whatsoever for neither technical or editorial errors that may appear in this document nor does it make a commitment to update the information contained herein. Omnitronics retains the right to make changes to this information at any time, without notice.
Trademarks Microsoft, Windows, and Internet Explorer are either trademarks or registered trademarks of Microsoft Corporation in the United States and/or other countries. Firefox and the Firefox logos are registered trademarks of the Mozilla Foundation. NGT is a registered trademark of Codan Limited. Freescale and Coldfire are either trademarks or registered trademarks of Freescale Semiconductor. SMARTnet is a trademark of Motorola. 619DSRI, Digital Smart Radio Interface, IPRMon, and IPRDispatch are trademarks of Omnitronics Pty Ltd.
Product Notice This manual describes features that are common to most installations as well as optional features available separately. Some features may not be available on your installation. The product screens shown in this manual apply to firmware version 5.04 and onwards.
Technical Support If you require additional information or assistance with installation or configuration of this product, please contact our technical support at
[email protected] or your local sales representative at the appropriate telephone number shown below. When contacting Omnitronics for support, please have your Omnitronics product serial number, system hardware, and system software versions available. Head Office:
International Sales Office:
North America Office:
Omnitronics Pty Ltd 27 Sarich Court Osborne Park, WA 6017 Australia
Omnitronics Pty Ltd 301 Coronation Drive Milton, QLD 4064 Australia
Omnitronics, Inc. 8301 Cypress Plaza Drive, Suite 100 Jacksonville, FL 32256-4416 USA
PH: +61 8 9445 2633 FAX: +61 8 9445 1687
[email protected]
PH: +61 7 3369 5733 FAX: +61 7 3369 5799
[email protected]
PH: +1 (904) 425 0336 FAX: +1 (904) 296 8350
[email protected]
Documentation Feedback Omnitronics welcomes your comments and suggestions. To provide suggestions for improving the Omnitronics documentation, please e-mail your comments to
[email protected]. Please include the Omnitronics product name and version with your correspondence. Omnitronics will carefully consider all feedback for future improvements to Omnitronics documentation or software.
Date: June 2016 Document Number: MNL-00011-370
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NOTICE OF COMPLIANCE CE (Europe) Omnitronics Pty Ltd declares under our sole responsibility that the product 619DSRI to which this declaration relates, is in conformance with the following standards: EN 61000-6-1: Electromagnetic Compatibility – Generic Immunity Standard CISPR 22.2009 Class A: IT Equipment – Radio Disturbance Characteristics We hereby declare that the above equipment is in compliance with all essential requirements of Directive 89/336/EEC. The technical documentation pertaining to the above equipment can be made available for inspection on application to Omnitronics Pty Ltd.
RoHS Omnitronics Pty Ltd confirms that the 619DSRI product complies with the Directive 2002/95/EC (RoHS).
SAA (Australia) To ensure compliance with ACA Technical Standards, this equipment has been tested and complies with the following standard: AS/NZS CISPR 22.1997 Class A: IT Equipment – Radio Disturbance Characteristics
Power Lead To Connector
Power Source Ferrite Core
Note: For this product to comply with C-Tick approval regulations, it is essential that a power lead fitted with a ferrite core is used for connecting the product to the power supply. Note also that it is the responsibility of the customer to ensure that this lead is fitted at the time of the installation of this product.
FCC (USA) Part 15 This device complies with Part 15 of the FCC Rules. Operation is subject to the following two conditions: (1) this device may not cause harmful interference, and (2) this device must accept any interference received, including interference that may cause undesired operation. Relates to Omnitronics products identified as: 619DSRI.
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Document Revision History Revision Date
Description
1.00
07/2010
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Original publication
2.00
09/2010
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Updated section “Specifications”.
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Added section “Chapter 3, Connecting with Windows” on p20.
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Updated section “E & M specifications” in Table 21 on p85.
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Fixed URL link on p1.
2.01
10/2010
3.00
11/2010
3.10
3.11
02/2011
05/2011
•
Updated section Specifications” on p99.
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Corrected E & M diagrams in section E & M Configuration Options” on pp106-107.
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Major update for product release.
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Updated section Specifications”.
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Updated “Chapter 2, Overview of the Digital Smart Radio Interface”.
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Updated “Chapter 6, Using the Configuration Interface”.
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Updated section “Chapter 6, Selcall Control” on p108.
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Updated section “Chapter 6, Port Codes” on p139.
3.12
07/2011
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Updated section “Chapter 6, Heartbeat Interval” on p135.
3.20
09/2011
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Updated section “What is the 619DSRI?” on p1.
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Updated section “Specifications”.
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Updated “Chapter 4, Configuring the TCP/IP Network Settings”.
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Renamed “Chapter 7, Application Scenarios” to “Appendix A, Application Scenarios”.
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Added “Appendix B, Legacy SRI Configuration Utility Software”.
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Renamed “Chapter 8, Technical Reference” to “Appendix C, Technical Reference”.
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Updated timing diagram Figure 68 on p79.
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Added section “Chapter 4, CTCSS Talk Off” on p88 and “Chapter 4, Radio Port Audio Delay” on p84.
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Removed “Appendix B, Legacy SRI Configuration Software”.
3.30
10/2011
3.31
11/2011
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Updated section “ Using the Configuration Interface” on pp36-43.
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Updated section “Backing Up and Restoring the Configuration” on pp52-53.
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Updated section “ Timing Configuration” on p88.
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Added “Chapter 5, Diagnostics and Upgrading the Firmware”.
3.32
01/2013
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Corrected default IP address on pp20, 24, & 29.
3.40
09/2013
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Updated section “Timing Configuration” on pp88-91.
3.50
02/2015
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Updated section “Radio Diagnostics” on p98.
3.60
02/2016
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Updated Chapter 3, “Getting Started”.
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Updated section “What is the Configuration Interface” on p25.
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Updated section “Specifications” on p99.
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Updated section “Specifications” on p99.
3.70
06/2016
Please report any errors or omissions in this document to Omnitronics so that such errors or omissions may be corrected in later issues (see “Documentation Feedback” on page ii).
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Contents About this Manual
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Intended Audience ........................................................................................................................................ xi Related Documentation ................................................................................................................................ xi Document Conventions and Symbols .......................................................................................................... xi How this Manual is Structured ..................................................................................................................... xii
Chapter 1 Introducing the Digital Smart Radio Interface
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What is the 619DSRI? ................................................................................................................................... 1 Features ........................................................................................................................................................ 2 Key Hardware Features ....................................................................................................................... 2 Key Software Features ........................................................................................................................ 3
Chapter 2 Overview of the Digital Smart Radio Interface
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Multi-Level Menu System .............................................................................................................................. 5 Multi-Function LCD ........................................................................................................................................ 8 Using the Menu Button .................................................................................................................................. 8 Modes of Operation ....................................................................................................................................... 9 Normal Mode ....................................................................................................................................... 9 Menu Mode and Navigating the Menus ............................................................................................. 10 Edit Mode and Changing Settings ..................................................................................................... 11 Summary of Operation ....................................................................................................................... 11 Resetting to Factory Default Settings .......................................................................................................... 12 Upgrading the Firmware .............................................................................................................................. 12 Audio Bridging ............................................................................................................................................. 13 Bridging Matrix ................................................................................................................................... 13 Programmable Control Matrix ............................................................................................................ 14 Functional Overview of the 619DSRI .......................................................................................................... 15 Audio Line In and Audio Line Out ...................................................................................................... 15 VOX/CTCSS/In-band Decoders ........................................................................................................ 15 CTCSS/In-band Encoders ................................................................................................................. 15 DTMF Encoder/Decoder .................................................................................................................... 16 SELCALL Decoder ............................................................................................................................. 16 V.23 DSP Modem .............................................................................................................................. 16 Tone Generator .................................................................................................................................. 16 Real-Time Clock ................................................................................................................................ 16
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Auxiliary I/O ....................................................................................................................................... 16 Configuration ..................................................................................................................................... 16 Diagnostic I/O.................................................................................................................................... 16 Audio Path......................................................................................................................................... 17 CTCSS and In-band Signals ...................................................................................................................... 18 Sub-Audible CTCSS ......................................................................................................................... 18 In-band Keying Tones ....................................................................................................................... 18 SELCALL .......................................................................................................................................... 18 Digital CTCSS ................................................................................................................................... 18
Chapter 3 Getting Started
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Connecting to the Network ......................................................................................................................... 19 Connecting with Windows .......................................................................................................................... 20 Step 1: Determine the IP address of your computer ......................................................................... 20 Step 2: Change the IP settings of your computer ............................................................................. 22 Step 3: Connect the 619DSRI to the computer ................................................................................ 23 Step 4: Configure the 619DSRI network settings ............................................................................. 24 Step 5: Restore the network settings of the computer ...................................................................... 24 Connecting with Mac OS X or Linux ........................................................................................................... 24
Chapter 4 Using the Configuration Interface
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What is the Configuration Interface? .......................................................................................................... 25 Using the Configuration Interface ............................................................................................................... 26 User Accounts and Logging In .......................................................................................................... 26 Supervisor Account ........................................................................................................................... 28 Technician Account ........................................................................................................................... 28 Limited User Account ........................................................................................................................ 29 Configuration User Interface ............................................................................................................. 29 Configuration Status ......................................................................................................................... 30 Saving the Configuration ................................................................................................................... 31 Restarting after Saving the Configuration ......................................................................................... 32 Resetting the Configuration to Default Settings ................................................................................ 32 Exiting the Configuration Interface .................................................................................................... 33 Viewing the System Status ......................................................................................................................... 34 System Version Information .............................................................................................................. 34 Current Status ................................................................................................................................... 34 Channel Information .......................................................................................................................... 35 Audio Matrix ...................................................................................................................................... 35 Displaying the Alarm Status .............................................................................................................. 35
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Configuring the TCP/IP Network Settings ................................................................................................... 36 Basic Settings .................................................................................................................................... 36 Network Settings ................................................................................................................................ 36 Advanced Settings ............................................................................................................................. 37 Using a DHCP Server ........................................................................................................................ 38 Saving Network Settings .................................................................................................................... 38 Changing the Password .............................................................................................................................. 39 Supervisor Account ............................................................................................................................ 39 Technician Account ............................................................................................................................ 40 Limited User Account ......................................................................................................................... 41 Backing Up and Restoring the Configuration .............................................................................................. 42 Backing up the Configuration to a File ............................................................................................... 42 Restoring the Configuration from a File ............................................................................................. 43 DSRI General Configuration ........................................................................................................................ 44 Site Name .......................................................................................................................................... 44 Selcall Control .................................................................................................................................... 44 Software Control Options ................................................................................................................... 46 Busy Tail Delay .................................................................................................................................. 49 PTT Lead-in ....................................................................................................................................... 49 Tone Reply ......................................................................................................................................... 49 DTMF/Selcall Echo ............................................................................................................................ 49 Remote Control .................................................................................................................................. 49 Remote Control Using Selcall ............................................................................................................ 51 Remote Control Using DTMF ............................................................................................................ 54 DSRI Matrix Configuration ........................................................................................................................... 57 Base Configurations and the Default Configuration .......................................................................... 57 Optional Configurations ..................................................................................................................... 57 Configuring the Busy to PTT Control Matrix ...................................................................................... 58 Exceeding the DSP Load Threshold .................................................................................................. 61 DSRI Input Control Configuration ................................................................................................................ 62 Input Qualification .............................................................................................................................. 62 Dynamic Switching ............................................................................................................................ 63 Port Functions .................................................................................................................................... 63 Overriding a Configuration ................................................................................................................. 67 VOX Control ....................................................................................................................................... 68 DSRI Output Configuration .......................................................................................................................... 69 No Tone .............................................................................................................................................. 69 Fixed CTCSS Outputs ....................................................................................................................... 69 In-band Tones .................................................................................................................................... 69 Follow Input........................................................................................................................................ 70 Tail Tone ............................................................................................................................................. 70 External CTCSS................................................................................................................................. 70 Relay Control ..................................................................................................................................... 70
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DSRI Alarms Configuration ......................................................................................................................... 71 Configuring Alarm Conditions ........................................................................................................... 71 Reporting Codes ............................................................................................................................... 72 Reporting and Acknowledging Alarms .............................................................................................. 72 Displaying the Alarm Status .............................................................................................................. 73 DSRI Heartbeat Configuration .................................................................................................................... 74 Heartbeat Schedule .......................................................................................................................... 74 Tone Output Option on Heartbeat ..................................................................................................... 75 CTCSS Frequencies ......................................................................................................................... 76 In-band Tone ..................................................................................................................................... 76 Levels Configuration ................................................................................................................................... 76 Port Levels ........................................................................................................................................ 77 Other Levels ...................................................................................................................................... 78 Changing and Saving the Levels ...................................................................................................... 78 Timing Configuration ................................................................................................................................... 79 Busy Validation .................................................................................................................................. 81 PTT Lead-in ...................................................................................................................................... 81 PTT Hold ........................................................................................................................................... 82 PTT Timeout...................................................................................................................................... 82 Tone Detect ....................................................................................................................................... 82 Soft Key-Off ....................................................................................................................................... 82 Fast Tone Lockout ............................................................................................................................. 82 System Split Timeout ........................................................................................................................ 82 CTCSS Hold Time ............................................................................................................................. 84 Radio Port Audio Delay ..................................................................................................................... 84 E & M Configuration.................................................................................................................................... 85
Chapter 5 Diagnostics and Upgrading the Firmware
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Radio Diagnostics ....................................................................................................................................... 87 Fault Reporting Using the Diagnostic Report ............................................................................................. 89 Upgrading the Firmware ............................................................................................................................. 91
Appendix A Application Scenarios
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Voice and Data Segregation ....................................................................................................................... 95 Optimization of Link Traffic Flow ................................................................................................................. 96 Fast Link Keying ......................................................................................................................................... 97 Conversion of Keying/Squelch Mechanisms .............................................................................................. 98
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Appendix B Technical Reference
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Specifications .............................................................................................................................................. 99 4-Wire Port Characteristics ....................................................................................................................... 103 Frequency Response ....................................................................................................................... 103 High-Pass Filter Response .............................................................................................................. 104 2600Hz Notch Filter Response ........................................................................................................ 104 Digital and Analog I/O Connector .................................................................................................... 105 E & M Configuration Options ..................................................................................................................... 105 E-Lead (Busy) Input Options ........................................................................................................... 106 M-Lead (PTT) Output Options ......................................................................................................... 107
Glossary
109
Index
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About this Manual
This manual provides information about: ●
Installing and configuring the 619 Digital Smart Radio Interface (DSRI) device
●
Using the 619 Digital Smart Radio Interface device
Intended Audience This manual is intended for technical support personnel, and system administrators, who install, configure and maintain the 619 Digital Smart Radio Interface (DSRI).
Related Documentation In addition to this manual, the following document provides related information: ●
619DSRI – Digital Smart Radio Interface - Quick Start Guide
Document Conventions and Symbols Table 1 lists the document conventions used in this manual. Table 1. Document conventions Convention
Description
Blue, underlined text: http://www.omnitronics.com.au
Website addresses and e-mail addresses
Bold text
Keys that are pressed Text typed into a UI element, such as a text box UI elements that are clicked or selected, such as menu and list items, buttons, tabs, and check boxes
Italic text
Text emphasis Cross-references to other sections File and directory names
Monospace text
System output Configuration examples Commands and arguments
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Warning A warning is a type of note that advises you that failure to take or avoid a specific action could result in physical harm to yourself or the hardware.
Caution
A caution is a type of note that advises you that failure to take or avoid a specific action could result in loss of data.
Important
An important note provides information that is essential to the completion of a task. You can disregard information in a note and still complete a task, but you should not disregard an important note.
Note A note provides information that emphasizes or supplements important points of the main text.
Tip A tip is a type of note that helps you apply the techniques and procedures described in the text to your specific needs. A tip suggests alternate methods that may not be obvious. A tip is not essential to the basic understanding of the text.
How this Manual is Structured This product manual will help you configure and use the 619DSRI™ device. To assist you in locating information quickly and efficiently, this manual is structured into several sections: •
Chapter 1, Introducing the Digital Smart Radio Interface provides an introduction to the 619DSRI product and provides a list of features.
•
Chapter 2, Digital Smart Radio Interface Overview provides an overview of the 619DSRI.
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Chapter 3, Getting Started contains step-by-step instructions for connecting the 619DSRI to the network and helps you get it up and running quickly.
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Chapter 4, Using the Configuration Interface describes how to configure the 619DSRI using the builtin web server called the Configuration Interface.
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Chapter 5, Diagnostics and Upgrading the Firmware discusses how to perform radio diagnostics, view diagnostic reports, and how to update the firmware in the 619DSRI product.
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Appendix A, Application Scenarios provides several examples of using the 619DSRI.
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Appendix B, Technical Reference contains specification and technical details about the 619DSRI.
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Chapter 11, Troubleshooting provides solutions to common problems that you may face.
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Glossary contains a list of acronyms and technical terms used in this guide.
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Index helps you quickly locate information in the user guide.
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About this Manual
Chapter 1 Introducing the Digital Smart Radio Interface This chapter provides an introduction to the 619DSRI and includes the following sections: ●
“What is the 619DSRI?”
●
“Features” on page 2
What is the 619DSRI? The 619DSRI is a fourth-generation product that has evolved from the very successful 619SRI. Like the original device, it provides a number of powerful features that can be used to build, maintain, and extend the functionality of both fixed and tactical radio networks. However, the 619DSRI is a fully digital product with integrated Digital Signal Processing (DSP) and internet (IP) connectivity. Figure 1 shows the front panel of the 619DSRI, which includes status indicators, a back-lit LCD panel and menu button for navigating the display, an Ethernet connector for upgrading the firmware and updating configuration settings, and a headset connector.
Figure 1. 619DSRI front view
Figure 2 shows the back panel of the 619DSRI, which includes power connectors, connectors for data ports, and connectors for digital I/O and CTCSS signals.
Figure 2. 619DSRI back view
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Chapter 1
The 619DSRI is an eight-port radio communications hub that is designed to provide cost-effective interoperability between radios from different manufacturers and different RF systems. It incorporates a variety of signal processing and control techniques and is user configurable with the built-in web server called the Configuration Interface—the PC-based SRI Configuration Utility is no longer supported.
Features The 619DSRI provides the following features: ●
Ability to change the audio routing configuration dynamically
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Interconnection of disparate radio systems
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Support for CTCSS and in-band keying tones, and fast CTCSS input to output keying
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Support for CTCSS steering through the network by creating separate paths for voice and data
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Sub-dividing of ports to create independent networks
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Adjustable timings on individual ports to suit the radio network
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Remote control of the unit using DTMF and Selcall sequences
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Ability to upgrade the software via an Ethernet connection
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Interoperability between public organizations
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Dynamic configuration in emergency situations or to meet peak traffic demands
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Flexibility in forming groups of users
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V.23 DSP modem for data communications and remote configuration over radio
Key Hardware Features The 619DSRI hardware is based on the success of its predecessor, the 619SRI, but is completely redesigned from the ground up to make use of the latest in digital signal processing (DSP) technology and eliminates the need for physical hardware links. The key hardware features include:
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Standard 19-inch rack unit (1RU) with eight independent 4-wire analog E & M ports
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Operation from 12VDC to 24VDC
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2-line by 16-character dot-matrix backlit LCD panel for status and diagnostics
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Independent signal encoders and decoders on all eight ports
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Signal processing circuits for CTCSS, In-band keying tones, selcall, DTMF, VOX operation, and tone generation up to 1kHz
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Simultaneous signal detection and generation on each port
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Remote control capability using SELCALL and DTMF
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Digital level control of all signal inputs and outputs
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Opto-isolated busy (COS) inputs with contact, voltage, and switched options, and opto-isolated auxiliary digital inputs
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Isolated PTT outputs with contact, voltage, and switched options
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Transformer isolated line audio
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Dual analog inputs for monitoring applications and dual relay outputs with changeover contacts for control applications
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10/100Mbit Ethernet port with auto-MDIX detection
Introducing the Digital Smart Radio Interface
Key Software Features The 619DSRI operation is completely configurable using the web-based interface and a web browser. Using the software configuration features, you can: •
Control the mapping of Busy Input to PTT Output operations by programming a primary and a secondary configuration.
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Modify the primary and secondary configurations by overlaying up to 6 optional overlay configurations.
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Invoke different configurations using digital inputs, CTCSS, in-band tones, DTMF tones, or SELCALL.
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Set up each port to accept incoming signals with qualification of a CTCSS tone, or in-band keying tone.
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Invoke a specified configuration immediately on reception of a Busy input with the Fast Output feature.
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Configure the 619DSRI to act as a CTCSS repeater by detecting up to 15 consecutive CTCSS tones and transmitting on an output port with the audio.
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Set up a group of inputs with the First-In First Served feature in which the first input detected locks out the other inputs in the group preventing unintentional configuration changes.
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Change the base configuration from primary to secondary or secondary to primary with the System Split feature and DTMF or SELCALL.
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Set up a heartbeat schedule for a specific period of the day to generate a single tone or mixed with a CTCSS or in-band tone.
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Control the operation of the PTT outputs by adjusting timing parameters such as the PTT hold, PTT leadin, and the PTT timeout.
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Control the operation of the Busy inputs by adjusting busy validation timing to help equalize network propagation delays.
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Easily generate CTCSS on port outputs with the Follow Input feature according to the mapping configured and an inbound CTCSS signal.
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Superimpose a tail tone on port outputs with the Tail Tone feature.
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Control the CTCSS switch off with the Soft Key-Off feature to help prevent tail noise when the PTT switches off.
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Configure the operation of the two output relays with the Relay Control feature.
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Dynamically change the transmit levels of the encoders, and the receive and transmit levels on the ports.
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Control various functions using preset DTMF commands or programmable SELCALL commands.
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Backup and restore configuration settings stored in a configuration file on a local hard disk.
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Change the configuration either locally or remotely using the web-based interface.
619 Digital Smart Radio Interface – Product Manual
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Chapter 2 Overview of the Digital Smart Radio Interface
This chapter provides an overview of the 619DSRI (Digital Smart Radio Interface), and includes the following sections: ●
“Multi-Level Menu System”
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“Multi-Function LCD” on page 8
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“Using the Menu Button” on page 8
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“Modes of Operation” on page 9
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“Resetting to Factory Default Settings” on page 12
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“Upgrading the Firmware” on page 12
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“Audio Bridging” on page 13
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“Functional Overview of the 619DSRI” on page 15
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“CTCSS and In-band Signals” on page 18
Multi-Level Menu System The 619DSRI provides a sophisticated menu system with a multi-level menu structure, as depicted in Figure 3 and Figure 4 on the following pages. You use the menu mode for navigating the menu structure and for viewing and configuring the various settings. Menu mode is discussed in the section Menu Mode and Navigating the Menus on page 10. As shown in Figure 3, at power up (A), the 619DSRI displays the revision of firmware stored in the on-board EEPROM, and after about 2 seconds, the Busy and PTT levels (B) will be displayed. The 619DSRI is now in the normal mode of operation. In this mode, when any of the Busy inputs or the PTT outputs on a port changes state, it will appear on the display. Pressing the MENU button enters menu mode and displays the Digital SRI Functions menu (C). The operation of the MENU button is discussed in the section “Using the Menu Button” on page 8.
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Figure 3. 619DSRI multi-level menu structure (page 1)
Chapter 2
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Overview of the Digital Smart Radio Interface
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Figure 4. 619DSRI multi-level menu structure (page 2)
Chapter 2
Multi-Function LCD Located on the front panel of the 619DSRI is the 2-line by 16-character back-lit dot-matrix LCD, which provides various functions such as access to a multi-level menu system for performing basic configuration of the 619DSRI, and displaying the current status of the active inputs and outputs (see Figure 1). At power-up, the 619DSRI loads its configuration from Flash memory and performs various startup and initialization functions. The multi-function LCD shows several screens of information as shown in Figure 5.
Figure 5. Messages shown on the LCD at startup
During the start-up sequence, the 619DSRI runs its boot loader, which loads and runs the firmware, which in turn, loads the configuration settings from Flash memory. The firmware version of the 619DSRI is displayed for two seconds before the 619DSRI is ready for normal operation, as indicated by Busy and PTT on the display. The first line displays the state of each of the BUSY inputs from the ports, and the second line displays the state of each of the PTT outputs to the ports. When a port is active, its port number appears, as in the example shown in Figure 6. Figure 6. LCD in normal operation mode
Using the Menu Button The MENU button is a rotary knob/push-button that you use to select menus and change configuration settings. Pressing the MENU button enters menu mode and displays the first top-level menu. Rotating the MENU button clockwise will cycle through the menu items at the current level in the menu structure. Pressing the MENU button again, navigates down one level in the hierarchical menu structure to the next lower-level menu. Pressing and holding the MENU button for about one second exits the current menu level and navigates up the menu structure to the higher-level menu. Table 2 lists the functions that you can perform using the MENU button. Table 2. MENU button functions and operation
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Action
Function
Press and release
Selects Menu mode or navigates down one level in the menu or selects Edit Mode to change a configuration setting.
Press and hold for one second
Exits the current menu level and navigates up one level in Menu mode or accepts the selected configuration setting in Edit mode.
Rotate clockwise
Navigates to the next menu item in the level in Menu mode or increments the value of the selected setting in Edit mode.
Rotate anticlockwise
Navigates to the previous menu item in the level in Menu mode or decrements the value of the selected setting in Edit mode.
Overview of the Digital Smart Radio Interface
Figure 7 shows an overview of how to use the MENU button to navigate the menu structure. Press and hold Press and release
Rotate one click
Rotate one click
Rotate one click
Press and hold Press and release
Press and hold Press and release
Figure 7. Using the MENU button to navigate the menus
Modes of Operation The 619DSRI provides three modes of operation: ●
Normal mode is for normal operation of the 619DSRI.
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Menu mode is for navigating menus and displaying configuration settings.
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Edit mode is for editing or changing the value of a configuration setting.
The normal mode of operation displays the operational status of the busy inputs and the PTT outputs. This is the mode in which the 619DSRI starts up and operates for most of the time. You can change the mode of operation to menu mode by pressing the MENU button. You use the menu mode for navigating the menus, and for viewing the configuration settings. You can also change or edit the configuration settings using the edit mode, which allows you to change the value of the selected setting.
Normal Mode In addition to displaying the status of the Busy inputs and PTT outputs in the normal mode of operation, the LCD can also show the configuration of the audio matrix, and the received signal strength of the audio signals. Figure 8 shows the display screens in normal mode. In this mode, rotating the MENU button one-click clockwise illuminates the display and navigates to the Audio Matrix Configuration display so you can see how the audio matrix is configured. Rotating the MENU button one-click clockwise navigates to the Receive Signal Strength display. Rotating the MENU button one more click clockwise wraps around back to the Busy and PTT display.
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Chapter 2
Rotate one click
Rotate one click to wrap around
Rotate one click
Figure 8. Navigating the LCD in normal mode
When displaying the audio matrix, the digit 1 of directly beneath the letter P indicates that at power up the primary configuration is the default configuration. The uppercase letter S indicates the secondary configuration, and the lowercase letters (a to f) indicate the other available optional configurations.
Menu Mode and Navigating the Menus Using the MENU rotary push-button on the front panel, you can easily access and navigate the various menus and displays on the multi-function LCD. You can also view and configure the various settings within each menu. Pressing the MENU button places the LCD into menu mode, which allows you to navigate the menus and display the configuration settings. The Digital SRI Functions menu is the first top-level menu that appears when you press the MENU button. Figure 9 shows the top-level menus. Rotating the MENU knob clockwise one-click navigates to the next menu item at that level, and rotating it anticlockwise one-click navigates to the previous menu item. The menus wrap-around so that if you continually rotate the MENU button in either direction, the menu items will cycle in the direction that you rotate the MENU button. For example, rotating the MENU button clockwise one-click navigates firstly to the Network Functions menu, then to the Miscellaneous Functions menu, and finally wraps around to the Digital SRI Functions menu, as depicted in Figure 9. Rotate one click Wraps around
Rotate one click Wraps around
Rotate one click
Rotate one click
Figure 9. Rotating the MENU button in Menu mode
To navigate down one menu level, press and release the MENU button. To navigate up one menu level, press and hold the MENU button for about one second. Figure 10 depicts an example of using the MENU button to navigate down to the Device ID paramater.
Press and hold Press and release
Press and hold
Pressing the MENU button at the Digital SRI Functions menu navigates down one level to the Set Device ID menu item. Pressing the MENU button again selects the Device ID parameter and displays the value for that setting. To navigate back up the menu structure one level at a time, press and hold the MENU button for about one second. Continue to do this until the top-level menu is displayed.
Press and release
Press and hold Press and release
Figure 10. Navigating up and down menu levels
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Overview of the Digital Smart Radio Interface
Edit Mode and Changing Settings Once you have selected the configuration setting that you want to change, press the MENU button to enter edit mode, and then rotate the MENU button to change the value of the setting: rotating clockwise increases the value, and rotating anticlockwise decreases the value. To accept the new value, press and hold the MENU button for about one second. An asterisk (*) then appears at the start of the second line to indicate that you changed the value of the setting. To update and save the configuration, press and hold the MENU button for one-second. The value of the setting is saved to the configuration, as shown in Figure 11. Press and hold Press and release
Press and hold Press and release
Press and hold Press and release
Figure 11. Changing the value of a setting in Edit mode
Summary of Operation In summary, pressing and releasing the MENU button navigates down one level to the next lower-level menu; and pressing and holding the MENU button for about one-second navigates up one level back to the higherlevel menu. It also accepts the value of a setting when in edit mode. Finally, rotating the MENU button clockwise or counterclockwise in menu mode navigates through items at the current menu level in the direction of rotation; and in edit mode, it increments or decrements the value of the setting. Note Whilst in Menu mode, and at a top-level menu, if you do not press or rotate the MENU button for 5 seconds, the LCD exits Menu mode and reverts back to the Normal mode of operation.
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Resetting to Factory Default Settings You may want to reset the 619DSRI configuration to factory default configuration settings especially if the 619DSRI fails to start up properly due to a configuration error. Typically, this may be due to inconsistent network settings. You can use the following procedure to reset the 619DSRI to default settings should it fail to start up correctly. To reset the 619DSRI to default settings 1. Disconnect the power source to the 619DSRI. 2. Press and hold the MENU button on the front panel of the 619DSRI. 3. Reconnect power to the 619DSRI. 4. Continue to press and hold the MENU button for about 20 seconds while the 619DSRI completes its startup sequence. The 619DSRI should display the following messages as it resets its configuration to defaults:
The 619DSRI should now be reset to its default configuration settings.
Upgrading the Firmware The firmware in the 619DSRI is stored in Flash memory so that it can be upgraded with a new version of the firmware when it becomes available. Omnitronics periodically provides upgrades to the firmware to resolve issues with its operation or to provide enhancements and additional functionality. Using the built-in configuration interface, you can easily upgrade the firmware in the 619DSRI when a new version becomes available. Note When upgrading the firmware, all configuration settings are maintained and not reset to defaults.
Figure 12 shows the messages that appear on the LCD when upgrading the firmware using the configuration interface.
LCD alternates between both screens at 2-second intervals until the firmware upgrade is complete.
Figure 12. Messages shown on the LCD when upgrading the firmware
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Overview of the Digital Smart Radio Interface
Audio Bridging Audio bridging comprises audio mixing and audio routing. Fundamentally, audio bridging is the function of combining (or mixing) a number of analog audio signal sources together to form a mixed product. Additionally, bridging must allow for balancing the levels of the different audio sources prior to mixing. In radio systems, audio bridging also involves combining control signals, such as the Busy (COS) output from each source radio to form a control PTT signal. Omnitronics audio bridges extend these basic functions even further to provide audio routing. Audio bridging, on its own, is of limited value. However, by incorporating a switching matrix, Omnitronics audio bridges extend this basic functionality by providing a programmable routing function. This allows you to set up a number of inputs-to-output configurations and easily change these configurations as required.
Bridging Matrix At the core of every Omnitronics Audio Bridge is a bridging matrix. The bridging matrix comprises a switch matrix with transmit-side mixers. Figure 13 shows a block diagram of the bridging matrix concept using a simple four-port bridge.
Figure 13. Block diagram of audio bridging matrix
Each port input (PORT n IN) can be considered to be the received audio and the COS signal from a source such as a radio. The matrix specifies the routing configuration and controls the transmit-side mixers. The output side contains the transmit-audio and PTT signal. In the example depicted in Figure 13, we see that (PORT 4 OUT) is configured to transmit the mixed audio received from Ports 1, 2, and 3 through switches 4-1, 4-2, and 4-3. Furthermore, the PORT 1 IN received audio is routed through switch 1-1 to PORT 1 OUT and to PORT 4 Out through switch 4-1. By changing the configuration of the switches in the matrix, the mixing products and routing destinations can be altered. With the 619DSRI, the switching matrix is controlled through software; this enables the product to support dynamic configuration.
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Chapter 2
Programmable Control Matrix One of the main functions required for interoperability is the ability to interconnect disparate radio equipment as required. The 619DSRI may be programmed with eight input-to-output configurations. Using Dynamic Hub Control Technology (DHC), the 619DSRI configurations may be altered dynamically according to input conditions, thus allowing the 619DSRI to perform functions such as CTCSS steering. Fundamentally, DHC technology provides two base configurations and six overlays. The overlays can be invoked by change events to dynamically make or break link paths in the base configuration. A change event can be a digital input, a received CTCSS tone, a received in-band keying tone (i.e. 2600Hz), or a DTMF or SELCALL command. Figure 14 shows an example of setting up the programmable control matrix with overlays using the built-in web server to configure the programmable control matrix (refer to “Chapter 4, DSRI Matrix Configuration” on page 57 for further information).
Figure 14. Using the web-based interface to configure the programmable control matrix
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Overview of the Digital Smart Radio Interface
Functional Overview of the 619DSRI This section provides a functional overview of the operation of the 619DSRI. Figure 15 shows a block diagram of the functional overview of the 619DSRI.
Figure 15. Block diagram of the functional overview of the 619SRI
Audio Line In and Audio Line Out Receive and transmit audio for each of the eight ports has programmable level adjustment over a wide range of levels. Adjustments can be made remotely over the air or through a data link. E & M options cater for many Busy (COS) and PTT configurations.
VOX/CTCSS/In-band Decoders Each port has a dedicated signal detector that supports CTCSS and in-band keying tones. It also provides a VOX function for use with HF radios or audio bearers. The CTCSS tones are programmable on a per-port basis.
CTCSS/In-band Encoders Each port has a dedicated signal generator that can transmit programmable CTCSS and In-band keying tones. The transmitter section works independently of the receiver section, allowing CTCSS translation and signal protocol conversion. Each CTCSS signal can be directed either to the main line out where it is mixed with the TX audio, or to a separate output on a DB25 connector.
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Chapter 2
DTMF Encoder/Decoder A DTMF transceiver provides the ability to control functions of the 619DSRI remotely. The decoder acts on the mixed audio input to the unit. The encoder can be switched into one or more of the output ports.
SELCALL Decoder In a similar manner to the DTMF function, the signal detector of Port-8 can be configured to remotely control the 619DSRI. The decoder uses the mixed audio input to the unit.
V.23 DSP Modem The V.23 DSP modem functionality was carried over from the older “SRI” product to support a legacy application. It is not recommended for use in new applications. The configuration interface now provides remote configuration functionality.
Tone Generator A tone generator provides a frequency range: 460Hz and 700Hz. These are used by the system to provide audible confirmation for remote requests and for generating PTT tail tones.
Real-Time Clock The real-time clock enables you to schedule heartbeat or voting tones over a specific 24-hour period. If you notice that the Real-time Clock gains or loses time, you can adjust the setting with the Menu knob on the front panel. The setting allows you to specify a value (in seconds) that can be used to adjust the time. You can set a value from -30 to +30 seconds on the DSRI and 0 to 59 seconds on the SRI. At midnight, the real-time clock will be corrected by the number of seconds that you specify.
Auxiliary I/O The 619DSRI provides two analog inputs and eight opto-isolated digital inputs. The digital inputs may be optionally used to perform dynamic switching functions. However, they can also be used with the analog inputs for site monitoring purposes. Two relay outputs are also available for pre-programmed functions or for manual remote control.
Configuration You can configure the 619DSRI using the configuration interface via the Ethernet connector.
Diagnostic I/O Connectors on the rear panel provide access to the radio network for the technician on site. An internal Audio Loopback, Test Tone, Local PTT, DTMF, and Selcall sequence can be generated to any of the 8 ports through the user interface.
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Overview of the Digital Smart Radio Interface
Audio Path Figure 16 shows a block diagram of audio entering the 619DSRI at each of the eight 4-wire E & M line ports that is attenuated or amplified by digital potentiometers. Each input is fed into a signal processor which performs two functions: the ●
Detection of CTCSS and In-band signals
●
Band-pass filtering (300 Hz to 3 kHz)
Other audio to mix Notch Filter
LINE IN
LINE OUT
1 0
Codec IN
Notch Filter
1
Detector Tone/CTCSS
1. In-band decode
Codec OUT
HPF Audio Bus 2. O/P tone control
3. O/P in-band tone
0
Figure 16. Block diagram of the audio paths through the 619DSRI
The following provides an explanation of the audio processing: 1. Audio IN (RX_AUDIO) - the audio bandwidth should be 10 to 3600 Hz. a. Signal is fed straight to the detector for CTCSS or SELCALL. b. If in-band signal detection (i.e. 2600Hz) is enabled for this port then the input must be notched before it proceeds to the audio bus. 2. Audio OUT a. Audio sources from the bus may need a high pass filter if a CTCSS is to be generated on the output. The O/P tone control setting will determine this. Filter should be > 254.1Hz. b. This allows inputs with CTCSS to be routed to outputs without the original CTCSS being stripped out. c.
If the output is to include an in-band tone (i.e. 2600Hz) then that frequency must be filtered from the out-going audio. Therefore, a notch filter is required if the O/P tone control setting specifies an inband tone.
d. Multiple audio sources are mixed at the final output stage.
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CTCSS and In-band Signals This section describes the CTCSS and in-band signals. Each port can decode and generate various signaling tones. This includes both sub-audible CTCSS and in-band signals.
Sub-Audible CTCSS CTCSS can be detected for the purpose of: •
Controlling (or steering) the audio device via one or two frequencies. On reception of a specific CTCSS frequency, the device configuration is changed. The configuration is normally restored when the input signal terminates.
•
Qualifying a received audio signal. This ensures that an incoming audio signal is only passed to the audio matrix if it has been superimposed with a specific CTCSS tone.
•
Performing a simple repeater function. This accepts an incoming audio signal only if it has been superimposed with one of the 45 pre-programmed CTCSS tones. The detected CTCSS frequency will be present on the output when the output is set to No Tone.
In-band Keying Tones Each port can be configured to detect or generate any one of the following keying tones: ●
2175Hz
●
2325Hz
●
2500Hz
●
2600Hz
●
2970Hz
SELCALL SELCALL is used to provide a control function for the 619DSRI. This allows radio users to change the configuration of the device remotely using a SELCALL string.
Digital CTCSS The device can also accept digital CTCSS signals through the Digital I/O (DB25) connector on the rear panel. The selection of the type of signal to be processed is made through software set up using the Software Control Options.
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Overview of the Digital Smart Radio Interface
Chapter 3 Getting Started
This chapter contains step-by-step instructions for connecting the 619DSRI to the network to get it up and running quickly. All settings of the 619DSRI are configured using the configuration interface built into the 619DSRI product. This chapter contains the following sections: ●
“Connecting to the Network”
●
“Connecting with Windows” on page 20
●
“Connecting with Mac OS X or Linux” on page 24
Connecting to the Network The 619DSRI includes a built-in web server that provides a configuration and management interface known as the configuration interface. However, before you can access the configuration interface, you need to ensure that your computer and the 619DSRI product are both using compatible IP addresses. If the IP address of your computer does not have a similar address (e.g. the IP subnets are different), it will not be able to communicate with a 619DSRI that is using the factory default address. All 619DSRI devices leave the factory configured with an IP address of 192.168.0.180. If the IP address of your computer does not have a similar address (i.e., an IP address starting with 192.168.0.x), you will need to temporarily change the IP address of your computer to a compatible address before it can connect to the 619DSRI by following the steps in the procedure below that is applicable to your operating system. The recommended method of connecting the 619DSRI and a computer via an Ethernet network is to use an Ethernet switch or router. However, for the purpose of connecting a factory default 619DSRI for the first time, you can connect the computer directly to the 619DSRI using an Ethernet network cable—you do not need to use a cross-over cable as the Ethernet port is MDIX compatible and can auto-detect the line condition. You can then access the configuration interface and configure the network settings of the 619DSRI to match your network. The Ethernet port is located on the front panel of the 619DSRI, as shown in Figure 1. When connecting Ethernet cable from the 619DSRI to the Ethernet switch or router, the Link indicator on the front panel illuminate. If this indicator does not illuminate, it may indicative of a problem with the network cable; and computer will not be able to communicate with the 619DSRI until you correct the problem. This indicator flash whenever the 619DSRI detects a activity on the network.
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Chapter 3
Connecting with Windows This section contains basic information to help get your 619DSRI up and running quickly using Microsoft ® Windows 7. However, the same steps will also apply to Windows 8.1 and Windows 10.
®
All settings of the 619DSRI can be set using the built-in web server, which provides a sophisticated and easyto-use configuration interface. However, before you can access the configuration interface, you need to ensure that your computer and the 619DSRI device are both using compatible IP addresses. All 619DSRI products leave the factory configured with an IP address of 192.168.0.180. If the IP address of your computer does not have a compatible address (that is, an IP address starting with 192.168.0.x), you will need to temporarily change the IP address of your computer before it can connect to the 619DSRI by following the steps below. Note To change the IP address of your computer, you must be logged in with a user account that has administrator priviledges.
Step 1: Determine the IP address of your computer You can determine the address of your computer by following the procedure below. To determine the IP address of your computer 1. On the Start menu, click Control Panel.
2. Click Network and Internet.
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Getting Started
3. On the Network and Internet window, click Network and Sharing Center.
4. Under View your active networks, click Local Area Connection to open the Local Area Connection Status dialog.
5. Click Details to display the Network Connection Details dialog. 619 Digital Smart Radio Interface – User’s Guide
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The Network Connection Details shows the various settings for the network. The settings of interest are the IPv4 IP Address, the IPv4 Subnet Mask and the IPv4 Default Gateway. 6. Record the details for IPv4 IP Address, IPv4 Subnet Mask, and IPv4 Default Gateway from the Network Connection Details, then and click Close.
Step 2: Change the IP settings of your computer Before you can connect to the 619DSRI, you need to temporarily change the IP settings of your computer to match the IP settings of the 619DSRI. If the IPv4 Address of your computer (see “Step 1: Determine the IP address of your computer” on page 20) starts with the numbers 192.168.0.x and the IPv4 Subnet Mask is 255.255.255.0, your computer is using a compatible IP address and it will be able to communicate with the 619DSRI without any changes to its IP settings. In this case, you can skip to “Step 3: Connect the 619DSRI to the computer” on page 23. However, if the IPv4 Address of your computer does not start with the numbers 192.168.0.x, it will be necessary to temporarily change the IP address of your computer. Important
Ensure you record the current IP settings so that you can restore your computer to its original configuration after you have finished configuring the IPR400 device.
To change the IP settings on your computer 1. In the Local Area Connection Status dialog, click Properties.
The Local Area Connection Properties dialog is displayed. 22
Getting Started
2. In the This connection uses the following items list, select Internet Protocol Version 4(TCP/IPv4), and then click Properties. The Internet Protocol Version 4 (TCP/IPv4) Properties dialog is displayed.
3. Under the General tab, select Use the following IP address and enter the following details: ●
IP address is the static IP address you want to assign to your computer.
●
Subnet mask is the subnet mask used by your router.
●
Default gateway is the IP address of the default gateway.
4. Click OK. The changes will take effect immediately; it should not be necessary to restart your computer.
Step 3: Connect the 619DSRI to the computer This step connects the 619DSRI to the computer via an Ethernet network. The recommended method of doing this is to use an Ethernet switch or router. However, if such a switch or router is not available, you may connect the computer directly to the 619DSRI using an Ethernet cable. Note You do not need to use a cross-over cable for direct connection.
When connecting the Ethernet cable from the 619DSRI to the Ethernet switch or router, the Link indicator will illuminate. If this indicator does not illuminate, you may have a problem with the network cable; and the computer will not be able to communicate with the 619DSRI until you correct the problem. 619 Digital Smart Radio Interface – User’s Guide
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Step 4: Configure the 619DSRI network settings This step uses the configuration interface to configure the network settings of the 619DSRI. To configure the 619DSRI network settings 1. Start your web browser and type the IP address (192.168.0.180) of the 619DSRI device in the address bar. Note All 619DSRI devices leave the factory configured with an IP address of 192.168.0.180.
The configuration interface should show the log-in page similar to the one shown below.
2. Configure the network settings of the 619DSRI to match the network settings of your computer network. Note For details on how to configure the network settings of the 619DSRI, refer to “Chapter 4, Configuring the TCP/IP Network Settings” on page 36.
Step 5: Restore the network settings of the computer Once you have configured the network settings of the 619DSRI device, you can restore the network settings of your computer back to the original settings. Note If you did not need to change the network settings of your computer, you do not need to perform this step.
Repeat “Step 2: Change the IP settings of your computer” on page 22 to restore the network settings of your computer back to its original settings that you recorded in “Step 1: Determine the IP address of your computer” on page 20. This time, however, you’ll change the IP address, Subnet mask, and the Default gateway to the original settings. Congratulations! You have now configured the 619DSRI to communicate on your network, and you should now be able to connect to the 619DSRI using the original network settings of your computer.
Connecting with Mac OS X or Linux For other operating systems, the same basic steps are necessary: change your computer’s IP address to one in the same subnet as the 619DSRI, such as 192.168.0.x, then access the 619DSRI configuration interface to change its IP address, and then save the configuration and restart.
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Getting Started
Chapter 4 Using the Configuration Interface The 619DSRI is a versatile device that allows you to configure its operation by making changes to configuration settings. The 619DSRI provides a built-in web server called the configuration interface that you can use to configure it; the 619DSRI can be configured within the LAN or WAN environment via a web browser using password-protected access. This chapter includes the following sections: ●
“What is the Configuration Interface?”
●
“Using the Configuration Interface” on page 26
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“Viewing the System Status” on page 34
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“Configuring the TCP/IP Network Settings” on page 36
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“Changing the Password” on page 39
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“Backing up and Restoring the Configuration” on page 42
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“DSRI General Configuration” on page 44
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“DSRI Matrix Configuration” on page 57
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“DSRI Input Control Configuration” on page 62
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“DSRI Output Control Configuration” on page 69
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“DSRI Alarms Configuration” on page 71
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“DSRI Heartbeat Configuration” on page 74
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“Levels Configuration” on page 76
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“Timing Configuration” on page 79
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“E & M Configuration” on page 85
What is the Configuration Interface? The 619DSRI includes a web server that provides a configuration and management interface called the configuration interface. This interface uses standard HTML, and should be compatible with most web browsers. The web-based configuration interface consists of a series of web pages designed to help you configure the 619DSRI. Using the configuration interface, you can access all the status information, configuration settings, and diagnostic tools in one convenient user interface. The configuration interface is compatible with the following web browsers, and it should also be compatible with later versions: ● ●
®
Internet Explorer 9 – 11 ®
Firefox 3 and later
●
Google Chrome 14 and later
●
Safari 5 and later
NOTE: Chrome and Safari web browsers have not been fully tested but may work correctly. 619DSRI – Product Manual
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Chapter 4
Using the Configuration Interface All configuration and management of the 619DSRI is done using the built-in configuration interface. This is a web-based configuration interface that you can access using your web browser. Before you can use the configuration interface, however, you must first log on to the 619DSRI. You can then access the various configuration pages by clicking on the menus located on the left side of the web interface: selecting a menu displays the corresponding page on the right side of the web interface. The 619DSRI must be connected to an Ethernet computer network using the standard RJ45 network connector on the front panel. Once it is physically connected to the network, you must be able to navigate to the log-in page using your web browser. To do this, however, you need to know the IP address of the 619DSRI so you can connect to it using your web browser. If you are configuring the 619DSRI for first time, you can use the default IP address and type http://192.168.0.180 into the address bar of your web browser. This will load the log-in page in your web browser. Tip If you do not know the IP address of the 619DSRI, you can use the built-in menu system with the MENU button and LCD on the front panel to access the Network Functions and check the network settings.
If UPnP is enabled in the 619DSRI, you should be able to discover the 619DSRI on your network: its device name (e.g. DSRI, Name: DSRI-11010841, V5.09.00) will appear under the My Network Places on a computer running the Microsoft Windows operating system. Once you have located the device, double-click on it to automatically load the log-in page into your web browser. Note To discover the 619DSRI on your network, the network settings of the 619DSRI must match those of the computer used to access the 619DSRI. That is, the IP address of the 619DSRI must be on the same sub-net as the IP address of the computer.
This section discusses how to use the built-in configuration interface to set up the user accounts and to configure the settings of the 619DSRI.
User Accounts and Logging In Before you can use the configuration interface, you must first “log in” using one of the built-in user accounts. Depending on the user account you use, you can either access all configuration pages used to view and configure the 619DSRI, or just a subset of the pages. The configuration interface provides several types of user accounts: •
Supervisor Account provides full access to the configuration settings and allows supervisors to configure all aspects of the 619DSRI.
•
Technician Account provides access to only the System Status page and the Radio Diagnostics page.
•
Limited User Account provides access to only the System Status page.
To use the web-based configuration, launch your web browser and use the IP address of the 619DSRI (i.e. either the factory default IP address if configuring for the first time, or the IP address you configured in “Chapter 3, Connecting to the Network”) to access the configuration pages. For example, if using the default IP address, type http://192.168.0.180 in the address bar of the browser
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Using the Configuration Interface
Figure 17 shows the default configuration login page displayed in the browser. To access the configuration pages used to setup the 619DSRI, you need to log in to the configuration interface by entering a valid user name and a password. You cannot make any changes to the configuration settings until you log in, and the password must be entered for each new web-browser session. When you click on the Log In link, a password dialog similar to the one shown in Figure 18 appears (the dialog shown ® here is the one from Internet Explorer 8). Figure 17. Log-in page of the configuration interface
When you log in to 619DSRI for the first time, or if you have not changed the password of the Supervisor account, you can log in under the Supervisor account by using the user name of omni and the default password of dsri (lowercase). If you changed the password, then you should use that password. You cannot change the user name of the Supervisor account. If you are not a supervisor, you can log in under either the Technician account or the Limited User account by using the corresponding user name and password for that account. If you are not sure what account to use, or what the user name and password are for the account, you will need to check with your supervisor as to the correct user name and password to use for the account. Once you have logged in, you will see the configuration user interface with the System Status page displayed in your web browser as discussed in the following sections. Note The password is case sensitive. Figure 18. Connecting to the configuration interface
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Chapter 4
Supervisor Account If you log in to the configuration interface under the Supervisor account, you will see the System Status page and menus depicted in Figure 19. As a supervisor, you have unlimited access to the configuration settings of the 619DSRI so you can completely configure all aspects of the product. You are responsible for setting up the optional Technician and the Limited User accounts as required. Whilst you are logged in under the Supervisor account, it is recommended that you change the password of the Supervisor account so that non-supervisors cannot gain unrestricted access to the configuration interface. You should also set up the user name and password for both the Technician account and the Limited User account so non-supervisors can log in as required.
Figure 19. Using the Configuration interface with the Supervisor account
Technician Account When you log in to the configuration interface under the Technician account, only a limited set of menus and configuration pages are displayed, as shown in Figure 20. Under this account, technicians can view the status of the system, such as the System Version Information, the Current Status, the Channel Information, and the Audio Matrix configuration. Additionally, technicians can also access the Radio Diagnostics page to perform troubleshooting and diagnostics of the radio ports on the 619DSRI (refer to Chapter 5, “Diagnostics and Upgrading the Firmware” on page 87).
Figure 20. System Status configuration page under the Technician account
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Using the Configuration Interface
Limited User Account When you log in to the configuration interface under the Limited User account, only the System Status page is displayed in your web browser, as shown in Figure 21. Under this account, you can only view the system status and information shown on the System Status page, such as the system version information of the firmware and hardware, the current status, the channel information, the audio matrix configuration, and the digital and analog alarms. Furthermore, you cannot make any changes to the configuration settings or perform any diagnostics and troubleshooting of the product—you must be logged in under the Supervisor or the Technician account to be able to configure the settings or to use the diagnostics tools.
Figure 21. System Status configuration settings under the Limited User account
Configuration User Interface Figure 22 shows the basic user interface of the configuration interface when logged in under the supervisor account—the page shown here is the Network Configuration page (see “Configuring the TCP/IP Network Settings” on page 36) that is displayed when you select the Network menu.
Product name Displays the name of the product Configuration page Displays the name of the configuration page Basic Settings Displays the basic settings for the configuration page
Advanced Settings Displays the advanced settings for the configuration page
Menu system Shows the configuration and diagnostics menus
Configuration status Shows the configuration status and provides buttons to save, undo, and reset the configuration.
Figure 22. Using the configuration interface user interface 619DSRI – Product Manual
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Chapter 4
At the bottom of this page is the Configuration Status area, which shows the status of the configuration and whether you have made any changes to the settings. This area appears on all pages that have configuration settings that you can change, and displays various status messages (see “Configuration Status” on page 30). The left-hand panel of the configuration interface provides the menu system, which shows a menu item for each of the available configuration pages—the items shown in the menu depend on the user account you used when you logged in to the system. The various configuration pages are accessed by clicking on the menu items: selecting a menu item displays the corresponding configuration page on the right-hand side of the interface.
Configuration Status On all configuration pages that provide settings you can change, a configuration status area is displayed along the bottom edge of the page. This shows the status of the configuration settings for the current page, such as whether you have made any changes to the configuration, or the configuration has changed but you have not saved the changes you made. Figure 23 shows the Configuration Status area that is displayed when the configuration has not been changed.
Configuration status area Shows the configuration status and provides buttons to save, undo, and reset the configuration. Undo button Discards any changes to the configuration
Save button Saves the configuration Restart button Restarts the device
Status message Shows status messages about the configuration
Reset to Defaults button Reloads default settings
Figure 23. Configuration status area
The Configuration Status area shows the status of the 619DSRI configuration, and provides several buttons to allow you to save or undo any changes you make to the configuration settings. You can also reset the 619DSRI to its default factory settings, and restart the 619DSRI as required. The buttons in the Configuration Status area and the function they perform are described below: •
Save allows you to save the changes you made to the settings on the configuration page displayed in the web browser. You must always save the configuration before navigating to another configuration page otherwise the changes will be discarded.
•
Restart performs a restart of the 619DSRI using configuration settings from flash memory—a restart is required after you save any the changes to the configuration.
•
Reset to Defaults reloads the configuration with default values for settings on all configuration pages (not just the page displayed in the browser), but does not save the default settings to flash memory.
•
Undo discards any changes that you made to the settings on the configuration page displayed in the web browser, and reloads the configuration. This affects the settings on all configuration pages; not just the settings on the current page. Tip If you are using a version of a web browser that is not supported, the Configuration Status buttons may not be visible at the bottom of the browser window. This may happen with some older browsers, in which case, you can scroll to the bottom of the page to view the buttons.
The area immediately above the buttons is the Status Message area, which is where the various status messages are displayed. Table 3 provides a description of each configuration status message. 30
Using the Configuration Interface
Table 3. Configuration status messages Status
Description
Configuration Unchanged
Indicates that the configuration settings on the page have not changed.
Configuration has been saved. Restart required to take effect.
Indicates that the configuration settings have been saved into flash memory of the 619DSRI, but are not currently used. A restart is required before the new settings will take effect.
Data is invalid: IT HAS NOT BEEN SAVED
Indicates that one (or more) of the settings entered was invalid and the configuration has not been saved. All configuration values on a page must be valid before any values will be saved. You must identify all incorrect configuration values and correct the errors. The Configuration Status area will show additional information about the incorrect value.
Configuration reset to defaults: NOT SAVED
Indicates that the ALL configuration settings have been reset to the default values; not just the settings on this page. However, you still need to save the changes to make the changes permanent.
Configuration reset to saved values
The configuration values on the configuration page have been restored to the values saved in the flash memory. This is the result of clicking the Undo button.
Saving the Configuration When you make changes to the settings on a configuration page, or you restore the configuration from a backup file, you must save the changes to the 619DSRI; otherwise, if you navigate to another configuration page, the changes will be discarded. Warning Do not disconnect power while saving the configuration settings or restarting the device; otherwise you may damage the device or corrupt the configuration settings.
To save the configuration changes, click the Save button on the current page. After you save the changes, you may need to restart the 619DSRI for the changes to take effect. This depends on what configuration page you are on and which settings you changed. Some settings take effect immediately and do not require a restart. In this case, the status message displayed changes to “Configuration has been saved”, as shown in Figure 24.
Figure 24. Saving changes to the configuration settings
When you save settings that require you need to restart the 619DSRI, the status message changes to “Configuration has been saved. Restart required to take effect”, as shown in Figure 25. This message indicates that although the configuration has been permanently saved, you now need to restart the 619DSRI for the new settings to be loaded (see “Restarting after Saving the Configuration” below).
Figure 25. Saving changes to the configuration settings
Important
If you change the configuration settings on a page, you must save the changes before leaving that page otherwise the changes will be discarded.
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Restarting after Saving the Configuration Once you have saved the existing configuration, you may need to restart the 619DSRI for the changes to take effect (see Figure 25). To restart the 619DSRI, click the Restart button on the page, as shown in Figure 26. Warning Do not disconnect the power to the 619DSRI while it is restarting; otherwise you may damage the device.
While the 619DSRI is restarting, the page will show “Restart in Progress”. After about 30 seconds, the 619DSRI should restart and you will be redirected to the log-in page in your web browser. You will then need to log in again if you want to continue configuring the 619DSRI (see “User Accounts and Logging In” on page 26).
Figure 26. Restarting after saving the configuration settings
After restarting the 619DSRI, it is recommended that you back up the configuration to a file on your computer in case you need to restore the configuration later. For further information on backing up the configuration, refer to “Backing Up and Restoring the Configuration” on page 42. If you can no longer use your web browser to communicate with the 619DSRI after restarting the device, it is most likely that the IP address of your computer is now on a different subnet than the 619DSRI. If this is the case, you’ll need to change it to the same as the 619DSRI device before you can use your web browser. For further information on how to change the IP address of your computer, refer to “Connecting to the Network” on page 19. Note You may need to refresh your web-browser after the 619DSRI has restarted.
Resetting the Configuration to Default Settings Sometimes you may want to reset the configuration of the 619DSRI to its factory default settings. This is especially useful when you want to change only a handful of settings as it provides a good starting point for configuring the device. In most cases, the default configuration will do for basic installations with only some changes to a few of the settings. 32
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The default configuration is also useful when you need to troubleshoot a particular problem or the device is not operating as you expected. In this case, you can start with the default settings and carefully make changes as required to determine the cause of any problem. Figure 27 shows the three steps involved in resetting the configuration of the 619DSRI to default settings. The first step in resetting the configuration to default settings is to click the Reset to Defaults button on the page. This resets the in-memory configuration to default settings; however, it does not make the changes permanent. To make the changes permanent after resetting to defaults, you then need to save the default configuration to the 619DSRI by clicking the Save button on the page. The final step in resetting to defaults involves restarting the device by clicking the Restart button on the page. The new settings will then be loaded when the 619DSRI restarts.
Reset to Defaults Resetting the configuration to factorydefault settings
Save Saving the configuration
Restart Restarting the 619DSRI
Restart in progress 619DSRI is restarting after resetting to defaults
Figure 27. Resetting the configuration to default settings
Note, however, that because the 619DSRI is now reset to the factory-default settings, you may not be able to communicate with the device using the same IP address. This is because the 619DSRI has reverted to its default IP address set at the factory. In this case, you may need to temporarily change the network settings of your computer in order to use your web browser to communicate with the device (see Chapter 3, “Connecting to the Network” on page 19 for the further information on how to do this for your operating system).
Exiting the Configuration Interface Once you have completed configuring the 619DSRI, it is recommended that you exit from the configuration interface by clicking Exit. This will log you out of the session and load the log-in page; you will need to type your user name and password to access the 619DSRI configuration interface again. For further information about logging in to the web-based configuration interface, refer to “User Accounts and Logging In” on page 26. 619DSRI – Product Manual
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Viewing the System Status Use the System Status menu to display the version information for the hardware and firmware used in the 619DSRI, together with its operational status. Figure 28 shows the System Status page. All the values on this page are read-only: you cannot change any of the values on this page.
Figure 28. System Status page
System Version Information The System Version Information section displays the version information for the firmware that is currently ® loaded in the 619DSRI. The 619DSRI uses two microprocessors: the Freescale™ Coldfire microprocessor performs all of the network and system functions; and a Digital Signal Processor (DSP) performs the audio processing such as encoding and decoding, and tone detection. Also displayed here is the revision of the hardware of the 619DSRI device.
Current Status The Current Status section displays status information about the 619DSRI and includes the following: •
IP Address shows the current address of the 619DSRI.
•
System up time or elapsed time since the 619DSRI was last reset (displayed as days, hours, minutes and seconds).
•
Real Time Clock displays the date and time maintained by the real-time clock onboard the 619DSRI. The time is in 24-hour format and the date is displayed in yyyy/mm/dd format (e.g. 2010/05/31 14:49:42).
•
System Free Memory shows the unused system memory (KBytes) in the 619DSRI.
•
DSP Free Memory shows the unused memory (bytes) available for the DSP.
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Channel Information The Channel Information section displays the Busy status and Push-To-Talk status of each channel (or port). If a channel is not receiving or transmitting, it is indicated with OFF; otherwise ON. It also displays the selcall last received and the selcall last transmitted; and the DTMF last received and the DTMF last transmitted. Note DTMF is displayed only for legitimate received control tones; tramsitted DTMF control codes will be displayed regardless of whether the codes are in the correct format.
Audio Matrix The Audio Matrix section displays the status of the "primary" and "secondary" audio configurations and the optional configurations "a" to "f". If a configuration is active, the CFG line will display a "1" underneath the corresponding configuration.
Displaying the Alarm Status The 619DSRI displays the current alarm status on the front-panel LCD and on the System Status page shown in Figure 28. To view the alarm status on the LCD, navigate to the "Display Alarms" item under the "Digital SRI Functions" menu. The Alarms section displays the status of the alarms for both the digital inputs and the analog inputs. The status of an alarm is indicated by one of the status codes shown in Table 4. Table 4. Symbols used to display the alarm status Alarm Status Code
Description
0
Input not in alarm condition
1
Input in alarm condition
*
Input in alarm condition and has been acknowledged
For example, when a digital input causes an alarm condition, the corresponding status code for that input will change from '0' to '1'. When the alarm condition is acknowledged (at the remote end), the status code will change to an asterisk ('*') character. As shown in Figure 60, none of the inputs is an alarm condition.
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Configuring the TCP/IP Network Settings Use Network page to configure basic network parameters, such as the IP address, network mask, and the gateway address of the 619DSRI. Figure 29 shows the Network Configuration page with default settings. The Network configuration consists of several sections: Basic Settings, Network Settings, and Advanced Settings.
Figure 29. Network configuration page
Basic Settings The Basic Settings area contains only one setting: the Device network name. This is the name of the 619DSRI device and usually consists of the serial number. This may not contain any whitespace characters.
Network Settings The Network Settings area allows you to configure the network settings of the 619DSRI and includes the following: •
Automatically obtain IP Address (using DHCP) option is used to allow the 619DSRI to obtain an IP address automatically from a DHCP server. When DHCP is enabled, the static IP address, network gateway address, and the domain name server settings will be ignored as appropriate values will be provided by the DHCP server. When this option is selected, the other network settings will be disabled. The default setting is disabled.
•
Static IP Address is the IPv4 address of the 619DSRI, which consists of 32 bits expressed in a form consisting of four decimal octets separated by periods (dots), called dot-decimal notation. The default value is 192.168.0.180 (the default configuration is not to use DHCP).
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Using the Configuration Interface
Note If you want to use the option to Automatically obtain an IP Address (using DHCP), the 619DSRI will attempt to locate a DHCP server on start up. If it cannot find a server, it will either use the static IP address or automatically assign itself an address in the range 169.254.x.x. In this case, the 619DSRI will take a little longer to start up before it times out waiting for a DHCP server.
•
Netmask is the subnet mask that determines what part of the IPv4 address is used to identify the subnet that the 619DSRI is on. A valid IPv4 subnet mask consists of 32 bits: a sequence of ones (1) followed by a block of zeros (0), expressed in a form consisting of four decimal octets separated by periods (dotdecimal notation). The sequence of ones (1) designates that part as the network prefix (subnet) and the block of zeros (0) designates that part as the host identifier. The default value is 255.255.255.0.
•
Gateway Address is the IP address of the default network gateway. This would usually be the IP address of the router or network device that provides access to the WAN or internet. A valid IPv4 gateway address consists of 32 bits, expressed in a form consisting of four decimal octets separated by periods (dot-decimal notation). The default value is 192.168.0.1. Note If you do not specify values for the Static IP Address, Netmask, or Gateway Address, or attempt to set any of these fields to 0.0.0.0, default values will be set instead.
Advanced Settings The settings that can be configured under the Advanced Settings on this page are described below: •
Enable UPNP selects the Universal Plug and Play (UPNP) feature, which is a networking technology that allows devices to work together with fewer configurations. By enabling UPNP, the 619DSRI will be displayed in the Network Neighborhood on a Microsoft Windows computer. The default setting is Enabled.
•
Enable network discovery using Bonjour/mDNS protocol selects the Multicast Domain Name System (mDNS) feature, which is a technology that allows devices on a LAN or WAN that supports multicast to provide a domain name instead of an IP Address. mDNS automatically converts the domain name to the corresponding IP Address without the need of a dedicated DNS. By enabling this setting, IPR devices can use names rather than IP addresses on local LANs. However, Microsoft Windows does not support mDNS. The default setting is Enabled.
•
Domain Name System (DNS) Server 1 is the primary Domain Name Server (DNS). The DNS is how an Internet addresses, such as www.omnitronics.com.au, is converted into a numeric (dot notation) address, like 202.164.22.20. Consult with your ISP or network administrator to determine the correct address. In some cases, the DNS address is the same as the Gateway address. A valid IPv4 address consists of 32 bits, expressed in a form consisting of four decimal octets separated by periods (dot-decimal notation). A value of 0.0.0.0 indicates that no DNS is used (this is the default).
•
Domain Name System (DNS) Server 2 is the backup DNS that is used in the event the primary DNS is not available. A valid IPv4 address consists of 32 bits, expressed in a form consisting of four decimal octets separated by periods (dot-decimal notation). A value of 0.0.0.0 indicates that no DNS is used. The default setting is 0.0.0.0 (not used).
•
Enable SNMP selects the Simple Network Management Protocol (SNMP) feature. SNMP provides a means to extract status information from the 619DSRI through a network management system. The 619DSRI provides basic network statistics through SNMP. If SNMP is not being used, this setting should not be selected.
•
Syslog host address is the address used for debugging and diagnosing faults with the 619DSRI, which can report debug and error information via a network protocol called SYSLOG. This setting is normally set to the default (not used). A valid IPv4 address consists of 32 bits, expressed in a form consisting of four decimal octets separated by periods (dot-decimal notation). A value of 0.0.0.0 indicates that no SYSLOG messages are used. The default is 0.0.0.0 (not used).
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Using a DHCP Server Select Automatically obtain IP Address (using DHCP) to enable Dynamic Host Configuration Protocol (DHCP), which allows the 619DSRI to obtain an IP address automatically from a DHCP server. When DHCP is enabled, the static IP address, network gateway address, and domain name server settings will be ignored as appropriate values will be provided by the DHCP server.; this is the default setting. If you want to assign a static IP address to the 619DSRI, it is recommended that you allocate an address in the range of 192.168.0.1 to 192.168.0.253 or 10.1.1.1 to 10.1.1.253 as these are especially reserved for private addresses. Note If you want to use the option to Automatically obtain an IP Address (using DHCP), the 619DSRI will attempt to locate a DHCP server on start up. If it cannot find a server, it will either use the static IP address or automatically assign itself an address in the range 169.254.x.x. In this case, the 619DSRI will take an additional 20 seconds to start.
When using a DHCP server to automatically allocate an IP address to the 619DSRI, you will not be able to connect to the device since you will not know the IP address allocated by the DHCP server. In this case, you can either use Multicast Addressing or a Local mDNS name, as described below: •
Multicast Addressing is a protocol for efficiently sending data to multiple 619DSRI devices at the same time over TCP/IP networks.
•
Local mDNS name allows you to connect to a 619DSRI device by using a local name address instead of an IP address. Local addressing takes the form of name.local, where name is the Location Name configured on the Network settings page. In Figure 29, the 619DSRI has the Location Name of DSRI52A1680.local.
Saving Network Settings Once you make any changes to the Network Settings on the Network Configuration page, you must save the changes to the 619DSRI; otherwise if you navigate to another configuration page, the changes will be discarded. To save the changes, click Save under Configuration Status. When you save the changes, the message displayed under Configuration Status changes to “Configuration has been saved. Restart required to take effect” advising you to restart the 619DSRI so that the new settings can be used. Click Restart to restart the 619DSRI with the new settings. Figure 30 shows the configuration page when a restart is in progress.
Figure 30. Restarting the DSRI after saving the configuration settings 38
Using the Configuration Interface
Changing the Password Use the Change Password menu to display the Change Password configuration page. This page allows supervisors (i.e. system administrators) to change the password of the account used to access the configuration interface. System administrators will normally log in under the Supervisor account. Once logged in under the Supervisor account, supervisors can enable two additional types of accounts: a technician account and a limited user account. Supervisors can also change the user name and password allocated to each type of account with the exception of the Supervisor account; only the password can be changed. Figure 31 shows the additional accounts under the Technician and Limited user sections of the Advanced Settings. Each account provides different access privileges to the menus, as discussed below.
Figure 31. Changing the password of the configuration interface
Note Only supervisors can change the password of the Supervisor account. You cannot change the User Name using the web-based Configuration Interface; the User Name remains omni.
Supervisor Account To change the password used to access the configuration interface as a supervisor, type the new password you want to use in the Enter supervisor password box, and then retype it in the Confirm password box. Make sure to save the new password by clicking on the Save button; otherwise your changes will be discarded. Important If you make any changes to the account details, you must click on the Save button to save the changes; otherwise the changes you made will be discarded. Once the changes are saved, you must then click on the Restart button to restart the device for the changes to take effect, as indicated by the status message displayed under the Configuration Status area.
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Technician Account The technician account provides limited access to the System Status, and Diagnostics menus. Under the Advanced Settings for Technician, the settings are described as follows: •
Enable technician user allows users to log in to the configuration interface as a technician by using the Technician account. The default setting is Disabled.
•
Technician user name is the user name allocated to the Technician account, and is the user name that must be entered in the login dialog when a user wants to log in under the account. The allowed values consist of text with no punctuation characters, spaces or tabs. The default user name is tech.
•
Technician password is the password allocated to the Technician account, and must be entered into the log into login dialog when a user wants to log in under the Technician account. The allowed values consist of text with no punctuation characters, spaces or tabs. The default is password.
To enable the Technician account, simply select Enable technician user; otherwise the account will be disabled. If you want to change the account credentials instead of using the default user name and password, type a user name in the Technician user name box and a password in the Technician password box. Figure 32 shows how to enable and set up the Technician account with the default account credentials. Make sure you save any changes you made by clicking Save; otherwise your changes will not be saved.
Figure 32. Enabling the technician account settings
Important If you make any changes to the account details, you must click on the Save button to save the changes; otherwise the changes you made will be discarded. Once the changes are saved, you must then click on the Restart button to restart the device for the changes to take effect, as indicated by the status message displayed under the Configuration Status area.
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Using the Configuration Interface
Limited User Account The limited user account provides access to only the System Status and Statistics menus. Under the Advanced Settings for Limited user, the settings are described as follows: •
Enable limited user allows users to log in to the configuration interface as a limited user by using the Limited user account. The default setting is Disabled.
•
Limited user name is the user name allocated to the Limited User account, and is the user name that must be entered in the login dialog when a user wants to log in under the account. The allowed values consist of text with no punctuation characters, spaces or tabs. The default user name is user.
•
Limited user password is the password allocated to the Limited User account, and must be entered into the login dialog when a user wants to log in under the Limited User account. The allowed values consist of text with no punctuation characters, spaces or tabs. The default is password.
To enable the Limited User account, simply select Enable limited user; otherwise the account will be disabled. If you want to change the account credentials instead of using the default user name and password, type a user name in the Limited user name box and a password in the Limited user password box. Figure 33 shows how to enable and set up the Technician account with the default account credentials. Make sure you save any changes you make by clicking Save; otherwise your changes will not be saved.
Figure 33. Enabling the limited-user account settings
Important If you make any changes to the account details, you must click on the Save button to save the changes; otherwise the changes you made will be discarded. Once the changes are saved, you must then click on the Restart button to restart the device for the changes to take effect, as indicated by the status message displayed under the Configuration Status area.
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Backing Up and Restoring the Configuration Use the Save / Restore menu to display the Configuration Save / Restore configuration page as shown in Figure 34. The options on this page allow you to back up and restore [GEM1]the 619DSRI configuration as a file on the hard disk of your computer. It is recommended that the configuration be backed up to a file for safekeeping, in case it needs to be restored later. When the 619DSRI configuration is restored from a configuration file, it needs to be saved to the 619DSRI to make the changes permanent.
Figure 34. Saving and restoring the configuration
Backing up the Configuration to a File Once you have completed making changes to the configuration of the 619DSRI, it is recommended that you back up the configuration file to your computer for safe-keeping. The backup process involves saving the existing configuration to a file on the hard drive of the computer you are using to access the configuration interface. You will be prompted to select a location on your computer to store the file. The default file name is DSRI_cfg.bin, but you may rename the file if you wish. To back up the configuration 1. Click Backup to display the File Download dialog.
2. Click Save to save the configuration. You will be prompted for a folder and file name in the Save As dialog. 42
Using the Configuration Interface
3. (Optional) If you want to use a different file name than the default (DSRI_cfg.bin), type the file name in the File name box. 4. Click Save to download and save the existing configuration to the specified file. When the download is complete, the Download Complete dialog is displayed.
5. Click Close.
Restoring the Configuration from a File You can restore the configuration in the 619DSRI to a previously saved configuration by restoring the configuration from a file on your computer. Restoring the configuration involves loading the configuration from a file on your computer, and saving it to the 619DSRI. Once you have restored the configuration from the file, you then need to restart the 619DSRI for the changes to take effect. Note Restoring the configuration does not save it to the 619DSRI; you must click Save after you have restored the configuration.
To restore the configuration 1. Click Browse to locate the file on your computer, or type the full path and file name of the .cfg file in the Select Restore Configuration file box. 2. Click Restore to load and restore the configuration from the file. The Configuration Status changes to Configuration restore complete! (Configuration has not been saved).
3. Click Save to save the configuration to the 619DSRI. This saves the restored configuration to the 619DSRI, but the new configuration will not take effect until you restart the 619DSRI. The Configuration Status changes to "Configuration has been saved. Restart required to take effect".
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4. Click Restart to restart the device. Refer to “Restarting after Saving the Configuration” on page 32 for further information.
DSRI General Configuration Figure 35 on the following page shows the General page of the SRI Configuration. This page provides several configuration options, such as selcall control, pre-configured software options for overlaying or replacing configurations, and remote control of the ports. You may not be able to display the configuration on one page as shown here; however, you can use the scrollbar to scroll up and down the page as necessary.
Site Name The Site Name field allows you to enter a descriptive name for the 619DSRI. You can enter a maximum number of 20 characters including spaces.
Selcall Control You can use any port for remote control of the 619DSRI audio matrix using SELCALL or DTMF by entering either the correct SELCALL pre-code (3, 4, 5, or 6 digits) or DTMF command sequence. For a detailed explanation of remote control using Selcall and DTMF, refer to “Remote Control Using Selcall” on page 51, and “Remote Control Using DTMF” in page 54. The procedure below describes how to enable and configure remote control using SELCALL. Each step refers to a specific area on the Selcall Control panel shown in Figure 36. To enable selcall control 1. Select the selcall period from the Selcall Period dropdown list to match the external radio device. 2. Select the selcall scheme from the Selcall Scheme dropdown list to match the external radio device. 3. Under Selcall Control, select Selcall Control Enable. 4. Select the selcall pre-code option from the Number precode digits to match the external radio device. 5. Click Set to accept the pre-code option and to refresh the page. 6. Type a 3, 4, 5, or 6-digit pre-code in the Precode box to match the external radio device. 7. Click Set to accept the pre-code and to refresh the page. 8. Type a control code for each of the Enquiry, Primary, Option A to Option F, and Secondary settings. Note For a 3-digit precode, the number of following control codes defaults to two digits (i.e. the minimum number of selcall tones allowed is five).
9. Click Save to set the parameters in the 619DSRI.
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Figure 35. General configuration page showing settings on upper of page
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Figure 36. Enabling remote control of the 619DSRI using SELCALL
Once you have enabled selcall control, the 619DSRI can be configured to detect a specific number of tones in a selcall command sequence. Each selcall sequence may consist of 5, 6 or 7 tones (n) depending on the number of tones (n-1) that you configure in the precode. Thus, for a 7-tone sequence, the first six tones are assigned to the precode. The precode can be used to uniquely identify and address multiple devices. The last tone in the sequence is the control code, which specifies the function to perform. Note The actual ports connected to the decoder are determined by the Remote Control settings.
Software Control Options The 619DSRI device provides pre-configured software options that allow you to apply configuration options when assigning complex audio-routing paths to suit your specific implementation. Under Software Options on the General page shown in Figure 37, you can select one or more pre-configured software options that can be applied to your audio-matrix configuration.
Overlaying and Replacing Configurations In normal operation, or overlay mode, the optional configurations (Option A to Option F) are overlaid on the default base configuration (i.e. the primary or the secondary configuration). When overlaying an optional configuration, the mapping changes depending on the mapping of the optional configuration: the resultant mapping is a combination of the optional configuration and the default configuration. The ability of the 619DSRI to overlay optional configurations allows you to configure complex routing paths. However, by selecting Matrix Control Option 2, the matrix operates in replace mode in which each optional configuration will completely overwrite and replace the default configuration.
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Figure 37. Selecting software control options on the General page
Figure 38 shows the selection of Software Options 1 and 2, and the effect that each option has on the configuration of the matrix when selected either individually or together.
Figure 38. Matrix configuration when selecting software option 1 and 2
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The function of each digital opto-input (with Software Option 1 selected) is listed in Table 5 on page 48. A description of each software option is listed in Table 6 on page 48. Table 5. Function of inputs when using Software Option 1 Input
Function
None
The Primary configuration is the default configuration.
1
Option A
2
Option B
3
Option C
4
Option D
5
Option E
6
Option F
Table 6. Software options Software Option
Description
Option 1
When this option is selected, any digital opto input that is not used for Digital CTCSS (set on the Input page) can be used to invoke one of the optional configurations (Option A to Option F); i.e. Digital CTCSS 1 = Option A, Digital CTCSS 2 = Option B, and so on. Whilst the input is active, the relevant configuration replaces the current configuration. When the input deactivates, the default configuration (Primary or Secondary) is restored. By default, this feature causes the first active input to be accepted and its corresponding optional configuration to be applied , replacing the current configuration. Other active inputs are ignored as Input 1 has the highest priority. For example, if Digital CTCSS 1 is activated after Digital CTCSS 2, Option A will override Option B ; and if Digital CTCSS 6 is activated after Digital CTCSS 5, Option E will remain on. This option can be used in conjunction with Option 2 to implement multiple overlays that only modify the current configuration (refer to the matrix diagram below).
Option 2
This option can be used independently or in conjunction with Option 1 (refer to the matrix diagram below). When used independently, DTMF and SELCALL commands will cause the relevant optional configuration to replace the current configuration, thus destroying the current configuration. Otherwise, whilst in normal operation, the configuration will be to be overlaid with one or more of the optional configurations.
Option 3
The CTCSS tone will control the PTT outputs and steer the audio according to the Matrix Configuration, without reference to the Busy signal activating. This behaves similarly to the in-band keying function but with CTCSS. Note: This software option is applicable to only analog CTCSS and cannot be used if the Fast Output option is selected (see “Fast Output” on page 64 ).
Option 4
In-band Tones Input Validation . Applies a 1 second input validation on In-band tones. This is useful in situations when a tone is used to signify an emergency situation and therefore false triggering must be minimised.
Option 5
Alternate simplified heartbeat function. All ports share a common heartbeat timer that is updated whenever any PTT is activated.
Option 6
When this option is selected, only the port that receives the acknowledging code will have its reporting code cleared; and if more than one port is enabled, the other enabled ports will still have the corresponding reporting code sent out until it is either acknowledged or the alarm condition is cleared. When this option is not selected, when receiving the acknowledging code, the 619DSRI will clear the associated reporting code so that it will not be sent out on all enabled ports (set by the Alarm Selcall Port Enable).
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Note The 619DSRI normally operates in overlay mode in which optional configurations (Option A to Option F) are overlaid on the current configuration. The overlay of configurations allows complex routing paths to be configured. However, using Software Option 1, the unit will operate in replace mode in which each optional configuration will overwriteand replace the existing configuration.
Busy Tail Delay The Busy Tail Delay period is the length of time that the device should wait before a reply is sent, after receiving a data packet. The value can be changed in increments of 10ms from 30 to 1500ms. This setting is useful when receiving Selcall/DTMF and sending Selcall/DTMF echo or tone replies.
PTT Lead-in The PTT Lead-in delay period is the length of time that the device should wait after activating a PTT, before transmitting a data packet. The value can be changed in increments of 10ms from 30 to 1500ms. This setting is useful when receiving Selcall/DTMF and sending Selcall/DTMF echo or tone replies.
Tone Reply The option available for tone reply (acknowledgement) is a single tone of 700Hz for 200ms. The 619DSRI will always reply to a DTMF command or Selcall. The tone reply is an audible tone (1 or 2 beeps). Note If the output for the port is not set to No Tone, the reply tone will be mixed with either the CTCSS or In-band tone.
DTMF/Selcall Echo The option available for DTMF/SECLALL Echo (acknowledgement) is an echo of the SELCALL or DTMF sequence that was originally received by the unit. The 619DSRI will always reply to a SELCALL or DTMF command. The reply of the SELCALL is the sequence received by the port enabled for Selcall. The reply of the DTMF is the sequence of DTMF tones received by the port enabled for DTMF.
Remote Control You can dynamically change the Busy to PTT Control Matrix (configured on the DSRI Configuration Matrix page) to a pre-configured matrix over the air by remote control using SELCALL (Selective Calling) or DTMF on selected ports. You can also change the configuration settings remotely by enabling remote control on one or more ports (configured on the DSRI Configuration General page). On the DSRI Configuration General page shown in Figure 39, the Remote Control section determines the radio ports that can accept inbound remote commands (DTMF or SELCALL).
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Figure 39. Remote control and modem settings on the DSRI Configuration General page
The port(s) that will accept and decode remote commands (SELCALL or DTMF) or allow the legacy V.23 modem operation can be selected as shown in Figure 39. Selecting a port to receive remote commands will ensure that a command received on that port will not be affected by other traffic received on that port. The legacy V.23 DSP modem functionality allowed up to three modem ports to be enabled, after which the other ports were automatically disabled, as shown in Figure 40.
Figure 40. Enabling V.23 DSP Modem ports
Note To decode SELCALL or DTMF commands on a port, the port must be enabled for remote control.
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Remote Control Using Selcall The Busy to PTT Control Matrix can be dynamically changed via a remote SELCALL sequence, such as a SELCALL transmission from a mobile radio. To allow remote control using SELCALL, you need to enable SELCALL control by selecting the Selcall Control Enable option under Selcall Control, as shown in Figure 41, and you need to select the ports under Remote Control on which you want to allow remote control operation.
Figure 41. Enabling remote control using SELCALL
Selcall Commands for 4 to 6-Digit Precodes Once you have enabled selcall control and selected the ports to use, the 619DSRI can be configured to detect a specific number of tones in a selcall command sequence. Each selcall command may consist of 5, 6 or 7 tones (n) depending on the number of tones (n-1) you configure in the precode. Thus, for a 4-digit precode, the valid commands will range from 0000M to 9999M, where M is the function from 0 to 8. Table 7 shows the available functions that you can use to invoke preset configurations. The last tone in the sequence specifies the function (M), i.e. 1234(M) for our particular pre-code configuration. A function tone of 0 causes the 619DSRI to reply with an audible tone. The other functions will force the 619DSRI to directly invoke one of the preset optional configurations by overlaying it (if Option 2 is not enabled as previously described). Hence, a selcall sequence of XXXX1 would invoke the Primary configuration, XXXX2 would invoke Option A, and XXXX8 would invoke the Secondary configuration, where XXXX is the precode. For example, using a precode of 1234, to invoke the secondary configuration, you would send 12348 (the unit will reply with two audible beeps); and to invoke the primary configuration on the same device, you would send 12341 (the unit will reply with a single audible beep). Note If Software Control Option 2 is enabled, the unit replies with two beeps regardless of whether querying or Invoking a configuration.
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Chapter 4 Table 7. Commands with 4 to 6-digit precodes used to invoke preset configurations Description
Function (M)
Response Tone(s)
Set Primary as the default
1
1 beep
Invoke Option A
2
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
12342
Invoke Option B
3
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
12343
Invoke Option C
4
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
12344
Invoke Option D
5
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
12345
Invoke Option E
6
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
12346
Invoke Option F
7
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
12347
Set Secondary as the default
8
2 beeps
Selcall Example
Selcall Commands for 3-Digit Precode The 3-digit pre-code is a special case of 5-tone sequence. Each SELCALL command must consist of 5 tones with a 3-digit precode. The last two tones consist of a function tone (M) followed by a qualifier tone (K). Thus, for a 3-digit precode, the valid commands to invoke a configuration will range from 000MK to 999MK, where M is the function of 0, and K is the function qualifier from 0 to 8. Table 8 shows the commands that you can use to invoke preset configurations. The last two digits are preconfigured to specify the command. A function qualifier tone of 0 causes the 619DSRI to reply with an audible tone. The other commands will force the 619DSRI to directly invoke one of the preset configurations as default. Table 8. Commands with 3-digit precode used to invoke preset configurations Description
Function (M)
Qualifier (K)
Response Tone(s)
Set Primary as the default
0
1
1 beep
Invoke Option A
0
2
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
12302
Invoke Option B
0
3
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
12303
Invoke Option C
0
4
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
12304
Invoke Option D
0
5
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
12305
Invoke Option E
0
6
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
12306
Invoke Option F
0
7
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
12307
Set Secondary as the default
0
8
2 beeps
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Selcall Example
Note If Software Control Option 2 is enabled, the unit replies with two beeps regardless of whether querying or Invoking a configuration
Hence, a selcall sequence of XXX01 would invoke the Primary configuration, XXX02 would invoke Option A, and XXX08 would invoke the Secondary configuration, where XXX is the precode. For example, using a precode of 123, to invoke the secondary configuration, you would send 12308 (the unit will respond with two audible beeps); and to restore the primary configuration on the same device, you would send 12301 (the unit will respond with a single audible beep).
Checking the State of a Relay (3-Digit Precode) To check the state of a relay, precede the function qualifier (K) with function (M) of 4. That is, to check the state of relay 1, send XXX41; and to check the state of relay 2, send XXX42. If the specified relay is active, the 619DSRI will respond with a single-beep acknowledgment; if not active, the 619DSRI will respond with a twobeep acknowledgement. Table 9 lists the commands to check the state of a relay. Table 9. Selcall commands to check the state of relays Description
Function (M)
Qualifier (K)
Response Tone(s)
Selcall Example
Check the state of relay 1
4
1
1 beep = ON; 2 beeps = OFF
12341
Check the state of relay 2
4
2
1 beep = ON; 2 beeps = OFF
12342
Note To use this function, the relays must be set to Remote on the Output Control page under Remote Control section; otherwise, you will hear two beeps.
Individual Relay Control (3-Digit Precode) Both relays can be turned on or off individually by sending the appropriate 5-tone selcall command. To activate a relay, precede the function qualifier (K) with the function (M) of 5. That is, to activate relay 1, you would send XXX51; and for relay 2, you would send XXX52, where XXX is the precode. To reset an active relay, you would send the same command (i.e. a toggle action). Table 10 lists the available commands to control the relays. Note To use this function, the relays must be set to Remote on the Output Control page under Remote Control section; otherwise, you will hear two beeps. Furthermore, relay control is only available when using a 3-digit precode with a 5-tone sequence.
Table 10. Selcall commands to control relays Description
Function (M)
Qualifier (K)
Response Tone(s)
Selcall Example
Activate (or deactivate) relay 1
5
1
1 beep = ON; 2 beeps = OFF
12351
Activate (or deactivate) relay 2
5
2
1 beep = ON; 2 beeps = OFF
12352
Note If Software Control Option 2 is enabled, the unit replies with two beeps regardless of whether querying or changing the state of a relay.
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Remote Control Using DTMF The 619DSRI device can be controlled via remote control with DTMF, such as a mobile transmission sending a DTMF sequence using a DTMF keypad. Two main functions are supported: ●
Changing the audio configuration
●
Controlling individual relays
To allow remote control using DTMF, you need to select the ports you want to use for remote control operation. Similar to selecting ports for remote control using SELCALL, you select the ports under the Remote Control section; any ports that you select will enable remote control using DTMF. Note The actual ports connected to the DTMF decoder are determined by the ports that you select under the Remote Control settings.
The format for any DTMF command is: #NNN*MK where NNN is the Device Identity (i.e. 001, 002, or 003 etc.); M is the Function; and K is the Function Qualifier.
Changing the Configuration The default configuration can be changed to Primary or Secondary regardless of whether configuration Software Option 2 is active (refer to “Software Control Options” on page 46 for further information about software options). The commands shown in Table 11 will overwrite the current configuration. Table 11. DTMF commands to change the configuration Description
Function (M)
Qualifier (K)
Response Tone (DTMF Echo = last 3 digits)
Set Primary as the default
1
1
1 beep
Set Secondary as the default
1
2
2 beeps
For example, to invoke the secondary configuration on a device with a device ID of 1, you would send #001*12; and to restore the primary configuration on the same device, you would send #001*11. Table 11 shows the response from the 619DSRI when the DTMF/Selcall Echo is not enabled: the 619DSRI will respond with either a single- or double-beep. In the case when the DTMF/Selcall Echo is enabled, the 619DSRI will respond by echoing the last three DTMF tones sent (i.e. *11). Optional configurations can be invoked according to the functions and function qualifiers listed in Table 12. Table 12. Invoking optional configurations Description
Function (M)
Qualifier (K)
Response Tone (DTMF Echo = last 3 digits)
Invoke Option A
3
1
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
Invoke Option B
3
2
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
Invoke Option C
3
3
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
Invoke Option D
3
4
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
Invoke Option E
3
5
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
Invoke Option F
3
6
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
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Note If Software Control Option 2 is enabled, the unit replies with two beeps regardless of whether querying or Invoking a configuration.
The examples in Listing 1 show how to send commands to invoke the optional configurations, Option A to Option F. When an optional configuration is activated, it will remain active until it is reset manually (“001” assumes a device ID of 1). Option A: #001*31 Option B: #001*32 Option C: #001*33 Option D: #001*34 Option E: #001*35 Option F: #001*36
Listing 1. DTMF commands to invoke optional configurations
Toggle Action (Overlay Mode Only) In standard overlay mode, the optional configurations can be toggled on and off. If one of the optional configurations Option A to Option F is already active, sending a function qualifier (K) preceded by the function code (M) of 3 (e.g. #001*31) will clear that option; otherwise, it will set that option. That is, if option A is the active configuration, sending #001*31 will clear that configuration.
Querying a Configuration To query the base configuration, precede the function qualifier (K) with the function code (M) of 0 (i.e. send #001*00). If the base configuration is active, the 619DSRI will respond with a single-beep acknowledgment. If the base configuration is not active or if the Secondary configuration is active, the 619DSRI will respond with a two-beep acknowledgement. To query an optional configuration, precede the function qualifier (K) with the function code (M) of 2. That is, send #001*21 to query the Option A configuration; and send #001*22 to query the Option B configuration, and so on. Table 13 lists the commands and responses for querying a configuration. Table 13. Querying a configuration using DTMF Description
Function (M)
Quailifier (K)
Response Tone (DTMF Echo = last 3 digits)
Query the base setting
0
0
1 beep = Primary Active; 2 beeps = Secondary Active (Overlay mode) 1 beep = Primary Active; 2 beeps = Secondary Active (Replace mode)
Query Option A
2
1
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
Query Option B
2
2
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
Query Option C
2
3
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
Query Option D
2
4
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
Query Option E
2
5
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
Query Option F
2
6
1 beep = ON; 2 beeps = OFF (Overlay mode) 2 beeps = ON/OFF (Replace mode)
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Note If Software Control Option 2 is enabled, the unit replies with two beeps regardless of whether querying or Invoking a configuration.
Individual Relay Control (Toggle Action) Both relays can be individually turned on and off by remote control DTMF commands. Note To use this function, the relays must be set to Remote on the Output Control page under Remote Control section; otherwise, you will hear two beeps.
Table 14 lists the commands and responses to toggle the state of the relays. To activate a relay, precede the function qualifier (K) with the function code (M) of 5. Table 14. Individual relay control Description
Function (M)
Qualifier (K)
Response Tone (DTMF Echo = last 3 digits)
Activate Relay 1
5
1
1 beep = ON
Deactivate Relay 1
5
1
2 beeps = OFF
Activate Relay 2
5
2
1 beep = ON
Deactivate Relay 2
5
2
2 beeps = OFF
Hence, to activate relay 1, you would send #001*51, and to activate relay 2, you would send #001*52. To reset an active relay, you would send the same command (i.e. a toggle action). Note If Software Option Control 2 is enabled, the unit replies with two beeps regardless of whether querying or changing the state of a relay.
Checking the State of a Relay You can check the state of a relay by sending the appropriate remote control DTMF command. Note To use this function, the relays must be set to Remote on the Output Control page under Remote Control section; otherwise, you will hear two beeps.
Table 15 lists the commands to check the state of the relays. To check the state of a relay, precede the function qualifier (K) with the function code (M) of 4. For example, to check the state of relay 1, you would send #001*41; and to check the state of relay 2, you would send #001*42. If the relay is active, the 619DSRI will respond with a single-beep acknowledgment. If the relay is no not active, the 619DSRI will respond with a twobeep acknowledgment. Table 15. Checking the state of a relay Description
Function (M)
Qualifier (K)
Response Tone (DTMF Echo = last 3 digits)
Check the state of Relay 1
4
1
1 beep = ON; 2 beeps = OFF
Check the state of Relay 2
4
2
1 beep = ON; 2 beeps = OFF
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DSRI Matrix Configuration The DSRI Matrix page shown in Figure 42 allows you to configure eight pre-defined input-to-output configurations. The 619DSRI uses the configurations to map Busy inputs to PTT outputs. Each configuration specifies how incoming COS (Carrier Operated Squelch) activated audio is routed to outgoing PTT activated audio. Each audio source can be mapped to either one or more destinations, or need not be mapped at all.
Figure 42. SRI matrix configuration page
Base Configurations and the Default Configuration The 619DSRI provides two base configurations known as the primary configuration and the secondary configuration. When power is applied to the 619DSRI, the primary configuration is always selected as the default configuration. The default configuration is also the configuration that is used whenever the port input functions are disabled or set to None (see “Port Functions” on page 63). The default configuration can be changed to the secondary configuration through a remote DTMF or selcall command; this allows the audio paths to be changed dynamically according to the Secondary configuration using the System Split feature (see “System Split Timeout” on page 82). Since the configuration can be dynamically changed, by several methods, the default configuration plays an important role in the operation of the 619DSRI.
Optional Configurations Each of the base configurations can be modified at any time by configuring one or more optional configurations. Each of these optional configurations can assign new input-to-output mappings or remove existing input-tooutput mappings. Each optional configuration can also be removed by clearing it. Thus, the original default base configuration (whether primary or secondary) can always be restored.
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Configuring the Busy to PTT Control Matrix The Busy to PTT Control Matrix consists of an 8 by 8 matrix (see Figure 42) of Busy Inputs (Port 1 to Port 8) that map directly to Push-To-Talk Outputs (Port 1 to Port 8). A row in the matrix corresponds to one of the Busy Input ports; and a column in the matrix corresponds to one of the Push-To-Talk Output ports. Using the Busy to PTT Control Matrix, you configure the way audio is routed in the system by changing the mapping of inputs to outputs for one or more of the pre-defined configurations. The DSRI Matrix page provides six optional configurations that you can use to change the default mapping of inputs to outputs. The available optional configurations are: Option A, Option B, Option C, Option D, Option E, and Option F. Each configuration is independent of the others, but depending on how your system is configured, the optional configurations can interact with the Primary and Secondary configurations to build complex routing maps. The optional configurations can either overlay or replace the default configuration and change the mapping of the inputs to outputs. For further information about overlaying and replacing configurations, refer to “Overlaying and Replacing Configurations” on page46.
Selecting a Configuration You can display the matrix for a particular configuration by selecting it from the list of pre-defined configurations. You select a configuration from the Assign Configuration dropdown list, and then click on the Select Configuration button. When you select a configuration, the mapping of inputs to outputs appears in the matrix. The matrix uses several different icons to indicate the type of mapping assigned to a port. The icons have different meanings depending on whether you are configuring a base configuration (i.e. Primary or Secondary) or one of the optional configurations. Table 16 describes the different types of matrix icons that appear in the Busy to PTT Control Matrix. Table 16. Types of icons displayed in the Busy to PTT Control Matrix Matrix icon
Description
In both the Primary and Secondary configurations, this icon indicates that the audio path from the input is not mapped to the output. In the optional configurations Option A to Option F, this icon indicates that the mapping of the audio path from the input to the output is not changed by the optional configuration. In both the Primary and Secondary configurations and the optional configurations Option A to Option F, this icon Indicates that the audio path from the input is mapped to the output. In the optional configurations Option A to Option F, this icon Indicates that the audio path from the input to the output in both the Primary and Secondary configurations will be “blocked” by one of the optional configurations. Blocking can be applied only by an optional configuration, and takes effect only when the optional configuration is activated.
Changing the Configuration Using the matrix, you can change the port mapping of the selected configuration by selecting or deselecting ports in the Busy to PTT Control Matrix (i.e. by clicking on the boxes in the matrix). Ports corresponding to the Busy Inputs can be mapped to any of the ports associated with the Push-To-Talk Outputs. Each time you click on a box, the appearance of the box changes to one of the icons shown in Table 16. The icons that appear in the matrix depend of whether you are changing the default configuration (i.e. the Primary or the Secondary configuration) or one of the optional configurations (i.e. Option A to Option F).
Click Port mapped Port not mapped
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When you make changes to either the Primary or the Secondary configuration, you map an input to an output by selecting the corresponding box (icon changes to the “mapped” icon ), or unmap the input from the output by deselecting the box (icon changes to the “unmapped” icon ).
Click
Click
Click Port not mapped
Port mapped Port unchanged
Similarly, when you make changes to one of the optional configurations, you map an input to an output, by selecting the corresponding box (icon changes to the “mapped” icon ), or you can unmap an input from an output by deselecting the box (this time, however, the icon changes to the “unmapped” icon ). This icon indicates that the mapping of the input audio to the output in the underlying default configuration (if the default mapping exists) will be effectively “blocked” or unmapped by the optional configuration, but only when the optional configuration is invoked.
If you do not want the optional configuration to unmap any existing default mapping for a particular input to output, you can “unblock” that mapping by clicking on the box again (this time, however, the icon changes to the “unchanged” icon indicating that the optional configuration will not affect the default configuration when it is invoked). You can also clear all the mappings for the selected configuration by clicking on the Clear All button. This makes it easy to build a configuration from scratch using a blank matrix as a starting point. Note The Clear All button clears the mappings for only the selected configuration: it does not affect the other configurations. Clearing the configuration does not automatically save the configuration so you must click on the Save button if you want to save the configuration.
Overlaying an Optional Configuration You can overlay one or more of the optional configurations (Option A to Option F) over the default configuration (Primary or Secondary) to dynamically change the routing matrix. In an overlaid matrix, the mapping is a combination of the base configuration and the optional configuration overlaid on top of the base configuration. The optional configuration determines the mapping that is applied. Figure 43 shows an example of the mapping for the Primary configuration in which the following mapping is assigned: ●
Input port 1 maps to output ports 1 and 2
●
Input port 2 maps to output ports 3 and 4
●
Input port 3 maps to output ports 5 and 6
●
Input port 4 maps to output ports 7 and 8
The mapping above is the default mapping of input ports to output ports as defined in the Primary configuration.
Figure 43. Mapping of the default Primary configuration
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However, you can change this default mapping by overlaying an optional configuration. Figure 44 shows the effective mapping that will result when the optional configuration Option A is overlaid on top of the Primary configuration. In this configuration, Option A completely removes the default mapping for ports 1 to 4 and assigns new mapping for ports 1 and 7. Busy Input Port 1 mapped to Push-To-Talk Output Port 7 in overlaid configuration
Option A configuration overlaid on Primary configuration Busy Input Ports 1 to 4 unmapped from Push-To-Talk Output Ports 1 to 8 in overlaid configuration Busy Input Port 7 mapped to Push-ToTalk Output Port 8 in overlaid configuration
Figure 44. Effective mapping when Option A is overlaid on the Primary configuration
Multiple optional configurations can be overlaid over the top of the default configuration (Primary or Secondary, whichever is in effect). When this occurs, the resulting active matrix is the combination of the default configuration and all of the optional configurations that have been invoked. When a change of configuration occurs, the resulting active matrix is determined by firstly logically OR-ing all the active configurations that specify mapping from an input to an output. Once that is done, any unmapped inputs are applied. Therefore, the unmapped inputs take precedence.
Saving the Configuration When you have finished making changes to the mapping, you must save the configuration by clicking on the Save button; otherwise, the configuration will not be saved. You can also save the changes you made to the configuration by selecting another configuration from the list and clicking on the Select Configuration button: this automatically saves the current configuration before displaying the selected configuration. Caution
When you click on the Select Configuration button, the mapping of inputs to outputs for the current configuration is automatically saved before the mapping for the newly selected configuration appears in the matrix. You should ensure the mapping is correct before selecting another configuration.
Dynamically Changing the Matrix Once you have set up the optional configurations, the audio control matrix can be dynamically changed through any one of the following change events: ●
Activation of a digital input
●
Detection of a CTCSS or In-band tone
●
Activation of the COS input
●
Reception of a remote DTMF or SELCALL operator command
Directly Invoked Options Whilst the optional configurations are designed to modify the default configuration through an overlaying process, each one can also be directly invoked, hence destroying the previous configuration. This allows the
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619DSRI to be configured with an additional six configurations. This can be done based on Matrix Control Option 1 or Matrix Control Option 2, in which Selcall/DTMF can be used or Digital CTCSS inputs can be used.
Exceeding the DSP Load Threshold In the unlikely event that you exceed the audio-processing specifications of the device (i.e. 80% of the audioprocessing capacity), the audio will sound distorted and a warning message will appear on all of the DSRI Configuration pages, as shown in Figure 45.
Figure 45. Warning message appears when audio processing requirements are unrealistic
Under normal operation and configuration, you should never exceed the audio-processing capability of the 619DSRI device. This situation is usually a result of excessive configuration well beyond the typical application of the 619DSRI. For example, you will eventually cause the audio to sound distorted and the warning message to appear if you configure an “abnormal” configuration comprising the following steps: •
Enable all ports for remote control using selcall
•
Configure the Primary configuration to map all eight inputs to all eight outputs
•
Configure all input ports for in-band detection (frequency selection not important)
•
Configure all output ports to generate an in-band tone at a different frequency than the tone specified for the input of the port
If the audio sounds distorted or you see this warning message, it is recommended that you switch off all unused DSRI Configuration settings, which are located on the various DSRI Configuration pages. Once the audio processing returns within the normal levels (i.e. below 70% of the audio-processing capacity), the audio should sound clear again, and the warning message will disappear from all of the DSRI Configuration pages. Note If the audio still sounds distorted once the message disappears, it is recommended that you restart the 619DSRI device.
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DSRI Input Control Configuration The Input Control page shown in Figure 46 allows you to configure the operation of each of the eight input ports on the 619DSRI. You can select from several options to determine what happens when a port receives an input qualifier signal and how this affects the audio switching.
Figure 46. SRI Input Control configuration page
The Input Control configuration provides two fundamental functions: ●
Determining whether an input needs to be qualified
●
Specifying which matrix configuration will be dynamically switched
These fundamental functions are discussed in the following sections.
Input Qualification Each port can be configured to accept incoming audio signals with or without qualification; when a signal is accepted, it is then passed on to the receiver mixing circuit and routed according to the audio switching matrix. Normally, when the Busy (COS) input is active on a port, the audio signal received on that port is accepted without qualification, and is then switched according to the Busy to PTT Control Matrix. This is the default functionality that occurs when No Functions or Busy Switching is configured for the port, as shown in Figure 46. 62
Using the Configuration Interface
However, by selecting one of the Rx Signaling options for the port function, an audio signal will be accepted only if the signal is qualified according to the port function option selected, such as qualification with a CTCSS tone, an in-band keying tone, or a digital CTCSS input. The Busy Switching option does not qualify the input signal; the signal is considered to be qualified. Note The presence of Busy is only required when the input is set to detect an Audio CTCSS Frequency (and CTCSS controls PTT outputs is not enabled); the Digital CTCSS and In-band tone signal is considered to be qualified without the presence of Busy.
Dynamic Switching Each input signal that is qualified using one of the Rx Signaling options can be configured to cause a temporary change in the default audio switching configuration; this provides you with the ability to change the routing of the audio through a radio network. You can dynamically change the default audio configuration by selecting either the Input Busy Switching option, or one of the Rx Signaling options such as Digital CTCSS, In-band Keying Tone, or Audio CTCSS Signaling. On reception of a qualified signal, the 619DSRI will overlay the optional configuration (Option A to Option F) that is selected for that port receiving the signal. To qualify an input signal without performing any switching function, select No Change from the dropdown list for the option and the Primary matrix will be in effect.
Port Functions Each port can be independently configured to use one of the port function options by selecting an option under the Input Control Mode for the port. The available port-function options are: “No Function”, “Busy Switching”, and “Receive Signaling”. Figure 47 shows an example in which port 1 is configured to use the Receive Signaling option with in band tone detection.
Figure 47. Example of port function options 619DSRI – Product Manual
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No Function If you select the No Function option for a port, an audio signal received on that port is accepted and acted upon with a Busy qualification. You cannot perform any dynamic audio switching using this option; the action taken depends on the Primary switching configuration.
Busy Switching With the Busy Switching option selected for a port, on detection of the busy (COS) input, the configuration specified in the associated drop-down list will be used to switch the audio. If you select No Change, the audio switching will not be changed and Primary matrix will be active. However, if you select one of the options Option A to Option F, the audio will be switched accordingly and overlaid with the Primary configuration. This allows an incoming signal to be automatically routed through to the outputs. This feature is useful when combined with the FIFS option.
Receive Signaling The Rx Signaling group of options provides input qualification and dynamic switching when using sub-audible CTCSS or in-band keying tones. When you select one of the Rx Signaling options, once an input signal is accepted, a different audio configuration may be used to route the audio. If you select No Change, the audio switching will not be changed and the Primary matrix will be active. However, if you select one of the options Option A to Option F, the audio will be switched according to the configuration set up for that option and overlaid with the Primary matrix, and the port PTT Outputs specified in that configuration will activate. The options available under RX Signaling include the following: •
Digital CTCSS option ensures that an incoming signal is acted upon only when the relevant digital input is active on the port. Each port is associated with one of the eight digital (opto) inputs. Digital input #1 is the CTCSS input for Port 1, and Digital Input #2 is the CTCSS input for Port 2 etc.
•
In-band Tone option ensures that a signal is received and acted upon only when the specified in-band tone is detected on the port. Note Only one in-band frequency can be used at any one time.
•
Audio CTCSS option uses the internal CTCSS decoder to detect any frequency within the standard CTCSS range. From the frequency drop-down lists for f1 and f2, select either one-tone or two-tone frequencies. On reception of a tone (or tones) the configuration(s) specified in the drop-down list(s) of that port, will be invoked. If one tone only is to be detected, set the configuration and tone frequency in the f1 lists and set the frequency of the second tone to NONE in the f2 list.
Fast Output The Fast Output option operates hand-in-hand for detection of sub-audible CTCSS. When the Fast Output option is selected, the port in question will immediately invoke the specified configuration, thus activating the PTT outputs. If however, the CTCSS tone is not detected within one second, the output(s) will revert to the off state. You can specify only one frequency at a time in this mode. With the Fast Output option unselected, the input will be taken only when the specified tone(s) are detected.
First In First Served (FIFS) The FIFS option allows you to create a group of ports that are priority based. This is useful in situations when multiple inputs may cause conflicting changes to the matrix. With FIFS, all ports that are configured in this mode are treated with respect to each other. Thus, when a FIFS input is detected, it can only cause a change to the configuration if it is the first input in that group. Once an input is accepted, it becomes the controlling FIFS input, and therefore it controls the audio matrix. Any other FIFS inputs that are received after will be locked out from changing the configuration. However, these 64
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other inputs can still be used by the system as part of the audio mixing process. After the controlling FIFS input deactivates, the configuration is not necessarily immediately restored to its default setting. Instead, the 619DSRI will wait until all FIFS inputs are no longer active before restoring the configuration to the default setting.
Example of Input Control with Optional Configurations and FIFS In this example, both the primary configuration and the secondary configuration are cleared so that no ports are mapped in either configuration. Instead, port mapping is achieved by setting up several optional configurations to control how the inputs are mapped to the outputs (see Figure 48, Figure 49, and Figure 50). The optional configurations used are Option A, Option B, and Option C, and are configured as follows: ●
Option A: Input port 1 is linked to output port 4; input ports 2 and 3 are linked to output port 5
●
Option B: Input port 2 is linked to output port 4; input ports 1 and 3 are linked to output port 5
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Option C: Input port 3 is linked to output port 4; input ports 1 and 2 are linked to output port 5
Figure 48. Example configuration for Option A
Figure 49. Example configuration for Option B
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Figure 50. Example configuration for Option C
Each port has a port function configured on the Input Control page, and each has the Enable First In First Served (FIFS) option selected. This option causes each configured input to be acted on in the order in which it is detected. Selecting the FIFS option with each of the above the configurations means that the following audio routing will occur when each of the inputs is detected: •
If Port1 is detected first, that input goes to output port 4 and inputs 2 and 3 go to output port 5.
•
If Port2 is detected first, that input goes to output port 4 and inputs 1 and 3 go to output port 5.
•
If Port3 is detected first, that input goes to output port 4 and inputs 1 and 2 go to output port 5.
Figure 51, Figure 52, and Figure 53 show the Input Control page for each port with the above port functions applied.
Figure 51. Example port functions for port 1
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Figure 52. Example port functions for port 2
Figure 53. Example port functions for port 3
Transmit and Fast Receive Tones Table 17 lists the commonly used CTCSS tones for the Audio CTCSS option. Table 17. Commonly used CTCSS tones Frequency (Hz)
Frequency (Hz)
Frequency (Hz)
67.0
114.8
186.2
69.3
118.8
189.9
71.9
123.0
193.8
74.4
127.3
196.6
77.0
131.8
199.5
79.7
136.5
203.5
82.5
141.3
206.5
85.4
146.2
210.7
88.5
151.4
218.1
91.5
156.7
225.7
94.8
159.8
229.1
97.4
162.2
233.6
100.0
167.9
241.8
103.5
173.8
250.3
107.2
179.9
254.1
110.9
183.5
Overriding a Configuration The 619DSRI provides a mechanism in which any one of the eight configurations can be invoked and made to override any of the previously mentioned switching functions. This mechanism is provided by the software options on the General page. For further information about the available software options, refer to “Software Control Options“ on page 46.
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VOX Control The 619DSRI device can be configured to generate an internal busy when detecting a voice input on a port. This can be done on each port and works through a combination of hardware and software. Detection is based on the signal level of an analog input exceeding the value of the VOX Threshold setting. This is configurable in steps of 0.315Vp-p up to a maximum level of 2.5Vp-p. This value must be adjusted with reference to the nominal receive signal level. To prevent false triggering, a software attack time of approximately 5ms is incorporated into the VOX operation; this provides a validation function on the input signal. After VOX is detected and validated, the 619DSRI will hold the internal busy state active whilst voice activity continues to be detected or until the period set by the VOX Hang Period elapses. The hang time is configurable in 100ms steps within the range 0.2 to 5.0 seconds. Each port can be configured to use VOX control by selecting the appropriate Enable VOX Control option. Figure 54 shows the SRI VOX Control page.
Figure 54. Enabling VOX operation on selected ports
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DSRI Output Configuration The Output Control page allows you to configure the outputs, as shown in Figure 55.
Figure 55. Output Control configuration page
No Tone When the No Tone option is selected as shown in Figure 56, the 619DSRI will pass through a CTCSS or in-band tone and mix it with an out-going audio signal only.
Fixed CTCSS Outputs When a PTT Output is activated, a specific CTCSS tone can be generated on the output port. The CTCSS button allows the user to specify one of 47 frequencies to be output whenever the PTT for that port is active.
Figure 56. Output control modes for Port 1
In-band Tones When a PTT Output is activated, a specific In-band tone (2600Hz, 2970Hz etc) can be generated on the output port. The In-band button allows the user to specify one of 5 frequencies to be output whenever the PTT for that port is active.
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Follow Input This mode allows the output circuit to mix a sub-audible CTCSS or an in-band tone with the outgoing audio signal. The actual signal that is generated depends on the input condition that caused the output PTT to activate. For example, if an in-band qualified input causes the PTT to activate, the same in-band signal will be generated at the output. If a CTCSS qualified input causes the PTT to activate then the same CTCSS frequency will be generated at the output. Note When using Fast Output option, the CTCSS tone configured for the input will be generated at the output.
Tail Tone When the Tail Tone option is selected, an audible tone of one-second duration is generated at the associated output port immediately before the PTT is switched off. Thus, when a command to deactivate the PTT (for the port with this option selected) is received at the 619DSRI, the 619DSRI will hold the output active for a further second and inject the tone into the outgoing audio: the generated tone is 700Hz.
External CTCSS By default, when the output of a port is enabled for sub-audible CTCSS, the CTCSS will be generated on the selected Radio port. By enabling the External CTCSS option (with a CTCSS frequency selected for the Output port), the selected frequency will be removed on the radio port and separated to the CTCSS (DB25) connector.
Relay Control The operation of each relay can be configured by selecting an option from the Relay 1 and Relay 2 dropdown lists, as shown in Figure 57.
Figure 57. Relay output control
The options available in the dropdown list include: ●
None specifies that both relays are inactive.
●
Remote allows the relay to be manually controlled through a DTMF command or a SELCALL.
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Heartbeat Active causes the relay to be activated each time the Heartbeat function is active.
●
Any PTT causes the relay to be activated whenever any PTT is active.
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DSRI Alarms Configuration The Alarms configuration page is shown in Figure 58. The values shown here are the default configuration values. You use this page to configure the behaviour of the alarms that can be generated when a digital or analog input changes state. You can also specify conditions under which the alarms will be generated such as monitoring an input and applying a validation period to it prior to generating an alarm condition.
Figure 58. Alarms configuration page
Configuring Alarm Conditions An alarm can be generated from either Digital Inputs or Analog Inputs. For an input to generate an alarm condition, you need to "enable" the input by selecting it. When an input is enabled, the 619DSRI monitors that input and validates it according to the specified alarm condition described below: •
Digital Input The 619DSRI monitors for either a high- or low-active signal depending on the setting you select under Active. The signal must be present for the validation period that you set in the Validation Period field in order for the alarm to be triggered. Once triggered, when the signal returns back to the inactive state, the 619DSRI waits for a fixed two-second validation period before clearing the alarm.
•
Analog Input The 619DSRI monitors for either a higher or lower level than the value you set in the Threshold Value field for that input. This value must be present for the validation period you set in the Validation Period 619DSRI – Product Manual
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field for the alarm to be triggered. Once triggered, when the input level approaches the opposite detection direction and either falls below (in the case of an active-high alarm) or rises above (in the case of an active-low alarm) and is two percent of the threshold value, the alarm is cleared. For example, if the alarm condition is set for an active-high level with a threshold value of 100mV, then an alarm will be triggered when the level reaches or exceeds 100mV for the specified validation period. When the level starts to fall and then drops below 98mV (i.e. 2% of the threshold value), the alarm will be cleared. Similarly, for an active-low alarm condition the same applies except in the opposite direction. To configure the 619DSRI to send out a reporting code associated with an alarm, you specify the port(s) on which to send the reporting code by selecting the port(s) in the "Alarm Selcall Port Enable" section. Any ports that you select will be enabled for sending reporting codes. Hence, when an alarm condition for an enabled port is triggered, the corresponding reporting code is sent out on the ports that you enabled. If multiple ports are enabled, then each reporting code is sent out each enabled port.
Reporting Codes In a communications system consisting of a 619DSRI, you may wish to monitor for certain input conditions (i.e. alarms) and report such conditions to a listening device. You can configure the 619DSRI to report any alarms that satisfy the specified conditions by sending reporting codes on its radio ports. The reporting codes are sent using selcall sequence. The format of the reporting code is shown in Figure 59 where PP is the Precode, DDD is the Device Identity, and SS is the Suffix Code. PRECODE P
P
DEVICE ID D
D
SUFFIX CODE D
S
S
Figure 59. Format of selcall reporting code
The Precode and the Suffix Code are both configured on the Alarms configuration page, and each may contain a maximum of two digits. The Device Identity is set on the General page, and is a fixed length of 3 digits. For example, a reporting of "9100161" is comprised of precode "91", device identity "001", and suffix code "61". While the alarm condition persists, the listening device is required to acknowledge the reported code by replying back to the 619DSRI with an acknowledging selcall. Reporting codes are repeated if no acknowledge code is received from a listening device. Once a reported alarm is acknowledged, the 619DSRI stops sending the reporting code. If the condition that caused the reporting code to be sent is no longer present, the 619DSRI also stops sending the reporting code.
Reporting and Acknowledging Alarms The reporting codes are queued for each port that is enabled. As such, reporting codes are sent out in the order that the alarms are triggered. The 619DSRI sends the reporting codes out one at a time and pauses for five seconds between each code. Once all reporting codes have been sent, the 619DSRI pauses again for a further "Alarm Repeat Interval" and then repeats all unacknowledged codes if the associated alarm condition is still present. Whilst the 619DSRI is waiting for the "Alarm Repeat Interval" to elapse, if a new alarm is triggered, the reporting code for that alarm is sent out immediately, and is also added to the enabled ports alarm-code queue. Whilst an alarm condition is still present, the 619DSRI will continue to send out reporting codes until acknowledged. When an acknowledging code is received, the 619DSRI will clear the associated reporting code depending on the status of the control option "Disable Global Alarm Acknowledging" on the General page. By default, the "Disable Global Alarm Acknowledging" is not selected. This means that upon receiving the acknowledging code, the 619DSRI will clear the associated reporting code from being sent out on all enabled ports. However, if the "Disable Global Alarm Acknowledging" is selected, only the port that received the acknowledging code will have its reporting code cleared; and if more than one port is enabled, the other enabled ports will still have the corresponding reporting code sent out until it is either acknowledged or the alarm condition is cleared. 72
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Displaying the Alarm Status The 619DSRI displays the current alarm status on the front-panel LCD and on the System Status page shown in Figure 60. To view the alarm status on the LCD, navigate to the "Display Alarms" item under the "Digital SRI Functions" menu.
Figure 60. Displaying the status of the alarms
The Alarms section displays the status of the alarms for both the digital inputs and the analog inputs. The status of an alarm is indicated by one of the status codes shown in Table 18. Table 18. Symbols used to display the alarm status Alarm Status Code
Description
0
Input not in alarm condition
1
Input in alarm condition
*
Input in alarm condition and has been acknowledged
For example, when a digital input causes an alarm condition, the corresponding status code for that input will change from '0' to '1'. When the alarm condition is acknowledged (at the remote end), the status code will change to an asterisk ('*') character. As shown in Figure 60, none of the inputs is an alarm condition.
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DSRI Heartbeat Configuration The Heartbeat page shown in Figure 61 is used to set up functions controlled by the on-board real-time clock. The 619DSRI can perform an automatic periodic output function that can be used for heartbeat or voting purposes. Heartbeat will occur only after the busy inputs to the device have been idle for a period of five seconds.
Figure 61. Heartbeat page with an active heartbeat schedule
Heartbeat Schedule To use the heartbeat function, you must enable the heartbeat schedule by selecting Active Heartbeat Scheduling under Heartbeat Schedule, as shown in Figure 61. Once the heartbeat schedule is enabled, you can set how the function is invoked by selecting one of the following options: •
Always Enabled option sets the heartbeat function to commence operating immediately using the values you specified for the Interval, Duration, and Tone Frequency; and it will remain enabled until you either disable the heartbeat-schedule or select the Active Period option.
•
Active Period option sets the heartbeat function to operate only for a certain period of the day as specified by the Start Time and the Stop Time, which you can adjust by selecting the hour and the minute for both times (in 24-hour format) using the up and down buttons. Additionally, the Interval, Duration and Tone Frequency will also take effect during the specified Active Period.
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Heartbeat Interval The heartbeat interval determines the repeat interval for generating a heartbeat. The value can be changed in increments of 1 second, from a minimum value of 10 seconds to a maximum of 60 minutes.
Heartbeat Duration The heartbeat duration specifies the minimum duration between heartbeats. The value can be changed in increments of 1ms up to a maximum period of 2500ms.
Tone Frequency The tone frequency specifies the frequency of the heartbeat tone signal. The frequency ranges from 0 to 1000Hz, as shown in Figure 62.
Figure 62. Selecting the tone frequency for the heartbeat
Tone Output Option on Heartbeat During a Heartbeat period, the ports that will be activated when the heartbeat occurs are those that you have enabled by selecting the Enable option for the port. Figure 63 shows the Tone Output Option on Heartbeat section and the available options, which include: •
None for a tone to be generated on that port as specified by the Tone Frequency
•
CTCSS with a choice of frequencies mixed with the tone specified by the Tone Frequency
•
In-band with a choice of frequencies mixed with the tone specified by the Tone Frequency
Figure 63. Enabling ports for tone output on heartbeat
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CTCSS Frequencies Figure 64 shows how to select a CTCSS frequency for the tone output. Select the port followed by the CTCSS option and click on CTCSS to show a list of CTCSS frequencies.
Figure 64. Selecting a CTCSS frequency for the tone output
In-band Tone Figure 65 shows how to select an in-band tone frequency for the tone output. Select the port followed by the Inband option and click on 2970Hz to show a list of five In-band frequencies.
Figure 65. Selecting an in-band tone frequency for the tone output
Levels Configuration The Levels menu displays the Levels Configuration pages that are used to set the various signal gains of each port. The configuration page for each port is accessed by clicking on the appropriate port tab; each port page allows you to set the Receive Input, Transmit Output, CTCSS level, and the Tone level for the port as shown in Figure 66. The levels for DTMF and Tone are set on the Other page shown in Figure 67. All signal levels are displayed in decibels (dB).
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Figure 66. Levels configuration page showing levels for port 1
Figure 67. Levels configuration page showing other levels
Port Levels Each port page allows you to configure the port levels of the 619DSRI, which include the following: •
Receive Input is the gain applied to the receive line input of each port and mostly applies gains to incoming Audio and CTCSS frequencies.
•
Transmit Output is the gain of the transmit line output of each port.
•
CTCSS is the gain applied to a generated outgoing CTCSS signal of each port. This gain is relative to the transmit output gain. A typical value is -8dB. Additional gains can be applied to the CTCSS by setting the TX Output.
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Note The TX Output Level affects the External CTCSS when it is enabled on the output of a port.
•
DTMF under the Other section is the gain applied to a DTMF/Selcall echo response for each port enabled for remote detection with Selcall/DTMF Echo is enabled. Additional gains can be applied by setting the TX Output Level.
•
Tone for each port is the gain applied to the generated Tone Reply for DTMF, Selcall, or in-band generated frequencies for each port. Additional gains can be applied by setting the TX Output Level.
Other Levels The levels on the Other page include the following: ●
DTMF is the gain of the DTMF transmit level.
●
V.23 Modem is the gain of the transmit level of the V.23 DSP modem (this is for legacy systems only).
●
Tone is the gain of the high and low tone signals.
Changing and Saving the Levels When you select a configuration page, the settings for that page are displayed in your web browser. You can change any of the settings by selecting a value from the corresponding dropdown list. Once you change a setting, you must click on the Save button so that the changes are saved back to the 619DSRI; otherwise your changes will be ignored.
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Timing Configuration Using the Timing page shown in Figure 68, you can configure the settings that affect the timing of the Busy and PTT signals for each of the eight ports, such as the Busy Validation, the PTT Lead-in, and the PTT Hold time. You can also configure the settings for the Tone Detection delay, and the soft-key off delay for the CTCSS.
Figure 68. Settings on the Timing page with corresponding timing diagram
The timing diagrams depicted in Figure 69, Figure 70, and Figure 71 show examples of how the value of each setting affects the timing of the corresponding signal, and apply to the settings for port 1. In this example, the busy input is validated at for 20ms after it is asserted. Once the busy is validated and remains asserted, the PTT output is asserted. The PTT Lead-In delay of 50ms at is applied to the Selcall/DTMF output signal. The audio input is buffered by the PTT Audio Delay Time at before it appears at the output. When the busy input is no longer asserted, the PTT Hold time at ensures that the PTT output remains asserted for an additional 200ms before it is switched off. The Soft Key-Off setting at ensures that the CTCSS (or Inband Tone) output signal will terminate 50ms before the PTT output signal switches off.
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Figure 69. Timing diagram for audio and Selcall/DTMF
Figure 70. Timing Diagram for normal CTCSS
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Figure 71. Timing diagram for fast-detect CTCSS
Busy Validation The Busy validation function specifies the delay period that the Busy (COS) input must be valid before the input is accepted. This option is normally used with normal Busy qualified inputs only and provides a mechanism to compensate for network timing delays. The value can be changed in increments of 10ms and ranges from 0ms to 500ms.
PTT Lead-in The PTT Lead-In function specifies the keyup delay of the PTT output so that the PTT is activated before the Selcall/DTMF output. The value can be changed in increments of 10ms and ranges from 0ms to 500ms.
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PTT Hold The PTT Hold function specifies the delay period before a PTT output is switched off (relative to the Busy input). The value can be changed in increments of 10ms from 0 to a maximum period of 1500ms.
PTT Timeout The PTT Timeout function limits the maximum time that the system will transmit out on the selected ports. This functionality is enabled by default as a safeguard to limit PTT transmissions to the specified timeout value. You can override this function by deselecting the PTT Timeout Enable option; however, it is recommended that you leave this function enabled for normal operation, unless you have a specific need to disable it. The value can be changed in increments of one second and ranges from 30 to 1800 seconds; and the default value is 300 seconds. Note Disabling the PTT Timeout function is not recommended as it removes the safeguard that prevents an external PTT from locking the system in a PTT state.
Tone Detect During the detection period of a CTCSS signal, the value selected specifies the period of time that the microcontroller will wait for a CTCSS signal to be present (after the Busy becomes active). This value is also used to provide a level of tolerance for the loss of a tone (once the signal is detected). The value can be changed in increments of 10ms and ranges from 150ms to 1000ms.
Soft Key-Off The Soft Key-Off function specifies the period at which the CTCSS signal will terminate (relative to the PTT output). This period would always be shorter than the period set for PTT Hold. The value can be changed in increments of 10ms and ranges from 10ms to 5000ms.
Fast Tone Lockout Fast Tone lockout provides a level of protection against weak signals. Any port that generates a PTT Output, but then fails to detect a CTCSS signal and switches off after the detection period, will be locked out for a specified period of time. This period is set by changing the “Fast Tone Lockout” figure to a value greater than zero seconds. However, note that only the Busy(s) associated with the port(s) that failed to detect a CTCSS signal are affected. Outputs from the port(s) are not affected. Values can be changed in units of one second and ranges from 0 to 30 seconds.
System Split Timeout The System Split function allows you to temporarily change the default configuration from the primary configuration to the secondary configuration when initiated via a DTMF command or a SELCALL command. The System Split Timeout setting determines the period that the system-split function will remain in effect after the secondary configuration is invoked via a DTMF command or SELCALL command. Thus, If the secondary configuration is invoked via a DTMF or SELCALL command, the value specified for the System Split Timeout will determine the period of time that the secondary configuration will remain set as the default configuration. At the end of this period, the 619DSRI will automatically restore the primary configuration as the default. The value can be changed in increments of one minute and ranges from 0 to 120 minutes.
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Note If you set the System Split Timeout to zero, the DSRI will not automatically restore the primary configuration as the default.
In the example shown in Figure 72, transceivers are connected to port 1 and port 2, and a repeater station is connected to port 3 of the 619DSRI.
Figure 72. Example configuration using the System Split function
Figure 73 shows the primary configuration for this example, which allows audio to be routed as follows: •
Port 1 TX/RX, Port 2 TX/RX and the TTR (Talk Through Repeater) at Port 3 are all within the network of communication.
If the secondary configuration shown in Figure 74 is invoked via a DTMF command, the audio will be routed as follows: •
The repeater at Port 3 will be excluded from the network and communication will be possible between Port 1 TX/RX and Port 2 TX/RX only. The system is now split for the period of time set by the value specified by the System Split Timeout, which in this case is 15 minutes.
Figure 73. Example of System Split Timeout with default primary configuration
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Figure 74. Example of System Split Timeout invoking the secondary configuration
CTCSS Hold Time The CTCSS tone talk off hold time period located under Other Timing is a configurable timer that will hold an Active CTCSS state on if there is momentary interruption. This is typically caused by destructive interference between spoken audio and the CTCSS signal. This parameter may be set in steps of 10ms. For example, if a CTCSS tone talk off hold time period of 200ms is required, you should enter the value of 20.
Radio Port Audio Delay The settings under Radio Port Audio Delay allow you to apply a configurable delay to the audio as it passes through the DSRI device. This allows for radio paths with a long setup time, preventing the first syllable of spoken audio from being cut off. This can be configured for any of the first four audio ports. It is configurable from 0 to 3000 milliseconds in steps of 500 milliseconds. •
Audio Delay Enable enables the audio-delay feature that buffers the audio input before it appears at the audio output.
•
Audio Delay Time specifies the delay to impose on the transmission of audio from 0 to 3000 milliseconds in steps of 500 milliseconds.
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E & M Configuration The E & M page shown in Figure 75 provides configuration settings for the E & M (Ear and Mouth) operation for each of the eight data ports. You can set the following parameters for each port: •
PTT Output Control sets the type of output control for the PTT output. The available values are: Contact, Voltage, Switched Ground, and Switched Power. The default value is Contact.
•
BUSY Input Control sets the type of input control for the BUSY input. The available values are the same for the PTT Output Control. The default value is Voltage.
Figure 75. E & M configuration page showing settings for port 1
Table 19 lists all the possible E and M configuration options. Choose one E (Busy) option and one M (PTT) option. Table 19. E & M configuration options Label
Description
Rx
Transformer isolated input
Tx
Transformer isolated output
M (PTT)
Voltage-free relay contacts +10V relay contact closure Switched Ground Switched Power
E (Busy)
Opto-isloated contact Opto-isolated voltage Switched External Ground Switched External Power
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Chapter 5 Diagnostics and Upgrading the Firmware This chapter discusses the radio diagnostics page and how to update the firmware in the 619DSRI product, and includes the following sections: ●
“Radio Diagnostics”
●
“Fault Reporting Using the Diagnostic Report Feature” on page 89
●
“Upgrading the Firmware” on page 91
Radio Diagnostics The 619DSRI provides a diagnostics page that you can use to troubleshoot the radio and/or the 619DSRI. It also allows you to print and save diagnostic information, which will be required by Omnitronics to provide the best technical support possible. Figure 76 shows the Radio Diagnostics page displayed when you select Radio under the Diagnostics menu.
Figure 76. Radio Diagnostics page 619DSRI – Product Manual
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The Radio Diagnostics page is used to test the 619DSRI radio configuration and diagnose any problems. It includes the following diagnostic tools: •
Restart 619DSRI restarts the 619DSRI.
•
Print Configuration opens a new browser window that displays and summarises the existing configuration in a tabulated format: you can print the configuration from this window.
•
Diagnostic Report allows you to view and save diagnostic information that may assist you and Omnitronics technical support engineers in diagnosing and troubleshooting problems with the operation of the 619DSRI. Clicking on the Report button opens a new browser window that displays comprehensive diagnostic information about the operation of the 619DSRI. You can save the report to a file on your computer or print the report from this window. Note If you experience a problem with your 619DSRI, such as a particular channel is not operating as expected, please save the diagnostic report and email it to Omnitronics technical support—our technical support engineers will analyze the report and provide a solution to your problem (see “Fault Reporting Using the Diagnostic Report” on page 89).
•
Set Time sets the current date and time of the 619DSRI. Type the date in the Date text boxes in Year/Month/Day format, and type the current time in the Time text boxes in Hours:Minutes:Seconds format using 24-hour time. Then click Set Time to set the date and time.
•
Audio Loopback connects the local audio input to the local audio output for the channel; the loopback is done at the digital interface. To enable audio loopback, click the Enable button.
•
Play test tone transmits a 1000Hz tone at the local audio outputs for the channel. To transmit a tone, click the Enable button.
•
Local Push To Talk turns on the local output for the channel. To transmit, click the Turn ON button.
•
DTMF/SELCALL Transmit Sequence specifies a sequence of numbers to send via SELCAL or DTMF. Type the sequence of numbers in the box, and then click on DTMF or SELCALL button.
•
Send DTMF sends the sequence of numbers in the DTMF/SELCALL Transmit Sequence box to the local device as DTMF tones. To send the DTMF tones, click the DTMF button.
•
Send SELCALL sends the sequence of numbers in the DTMF/SELCALL Transmit Sequence box to the local device as a SELCAL sequence. When sending a Selcall, the sequence must have the same number of digits as the number of tones configured for Selcall. Click on the SELCALL button to send the selcall.
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Fault Reporting Using the Diagnostic Report If you are experiencing a fault or problems with your 619DSRI product, it is highly recommended that you send a device diagnostic report, in addition to a detailed description of the fault, to Omnitronics Technical Support for further analysis (see the “Technical Support ” section on page ii of this manual for further details). The following procedure provides step-by-step instructions for generating a diagnostic report for the 619DSRI. To generate a diagnostic report 1. Using your web browser, log in to the 619DSRI product. For further information about logging in to the 619DSRI, refer to “User Accounts and Logging In” on page 26. After logging in to the 619DSRI, the System Status page will appear in your browser.
2. Open the Radio Diagnostics page by clicking Radio under Diagnostics. The Radio Diagnostics page is displayed in your browser.
Radio Diagnostics page Shows diagnostics tools and information Report button Opens the Diagnostic Report window
3. On the Radio Diagnostics page, open the Diagnostic Report window by clicking Report. Note If your browser uses a pop-up blocker (or in some cases, has the security settings set to the maximum), the diagnostic report may be blocked. In this case, you should disable your browser's pop-up blocker and/or reduce the security settings for your browser.
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The Diagnostic Report provides detailed technical information about your 619DSRI.
4. Save the diagnostic report by clicking Save. The generated report is saved in HTML format to the hard disk on your PC/Laptop.
Save button Saves the diagnostic report to your hard disk
Note Not all web browsers and operating systems support the Save feature. It may, therefore, be necessary to save the page using one of the alternate methods discussed in the side-bar “Saving the Diagnostic Report” below.
5. Close the Diagnostic Report window by clicking Close. 6. After saving the diagnostic report, create a new e-mail message addressed to
[email protected] and attach the Diagnostic Report to the e-mail. Try to provide as much information as possible to assist Omnitronics support engineers in diagnosing and resolving the problem, including a description of the fault, how it occurs, when it occurs, and its effect.
Saving the Diagnostic Report If your browser will not save the Diagnostic Report when you click the Save button, you can try the following alternate methods: ●
Right-click on the page and select Save Page As (or similar) from the pop-up menu; or
●
On the browser's File menu, select Save Page As (or similar).
In the Save As window that opens, specify the location and file name of the Diagnostics Report you want to save (the default file name is report.asp.htm). If you still do not have any success in saving the Diagnostics Report, you can try the following: ●
Highlight all the text on the web page using your mouse; or
●
Right-click on the page and select Select All from the pop-up menu; or
●
Select Select All from the Edit menu (you can also press Ctrl-A if you are using Microsoft Windows);
and then right-click and select Copy from the pop-up menu (or press Ctrl-C if you are using Microsoft Windows) to copy the text to the clipboard. You can then open a text editor, such as Notepad or WordPad, and paste the text into a new document (you can also use a word processor such as Microsoft Word or OpenOffice Writer). After copying the text into the document, save the document to your PC/Laptop in the default format with an appropriate file name. 90
Diagnostics and Upgrading the Firmware
Upgrading the Firmware Use the Firmware Upgrade page to upgrade the firmware in the 619DSRI device with the latest firmware available. Omnitronics may release new versions of the firmware from time to time to add additional features or to resolve issues. This page is not intended for end-users as it available only to system administrators and is accessible only under the Supervisor account. You can view the version of firmware loaded into the 619DSRI on the System Status page (see “Viewing the System Status” on page 34). After you have upgraded the firmware, the configuration settings in the device may return to the factory default settings. It is recommended that you back up the configuration settings with the Save / Restore menu (see “Saving the Configuration” on page 31,) before upgrading the firmware. Figure 77 shows the Firmware Upgrade page.
Figure 77. Upgrading the firmware in the DSRI
To upgrade the firmware in the 619DSRI, click the Browse button to locate the file on your computer: the firmware file is identified with a .bin.gz extension. Once you have selected a file, the full path and filename will appear in the Select file box. Important
Do not use decompression software to decompress the .bin.gz file; the dvice uses the compressed binary image to save space in flash memory. If you decompress the file, the device will reject the file as invalid.
Once you have selected a firmware file, the full path and filename will appear in the Select file text box. To commence the firmware upgrade process, click the Upgrade button. Warning Do not remove power to the device during the upgrade process, as it may cause damage to the device or corrupt the firmware.
While the firmware upgrade is in progress, the upgrade page will display a progress indicator to keep you informed of the upgrade progress. Figure 78 shows the status while the firmware transfer is in progress.
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Chapter 5
Figure 78. Transferring the firmware to the device
Once the firmware is transferred to the device, it is then programmed into flash memory, as shown in Figure 79.
Figure 79. Firmware upgrade in progress
Once the programming is complete, the firmware will then verified to ensure it was programmed without any errors, as shown in Figure 80.
Figure 80. Verifying the firmware 92
Diagnostics and Upgrading the Firmware
Once the firmware upgrade process is complete, the page will display a message indicating that the firmware has been successfully loaded into flash memory, and a Restart button will appear allowing you to restart the device, as shown in Figure 81. The new firmware will not run until the device is restarted. Note If the device fails to upgrade the firmware, do not remove the power: try repeating the firmware upgrade process again.
Figure 81. Firmware verified and loaded into flash memory
Click the Restart button to restart the device. The 619DSRI will immediately restart and the upgraded firmware will be loaded. Whilst the 619DSRI is restarting, you will see the Restart in Progress page, as shown in Figure 82.
Figure 82. Restarting the device after upgrading the firmware
Once the device has restarted, you may need to log in again at the Log-In page if you want to check the configuration settings or configure the device.
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Appendix A Application Scenarios
This chapter provides several examples of connecting radios to 619DSRI devices in a network, and includes the following sections: ●
“Voice Data Segregation”
●
“Optimization of Link Traffic Flow” on page 96
●
“Fast Link Keying” on page 97
●
“Conversion of Keying/Squelch Mechanisms” on page 98
Voice and Data Segregation The requirement of this example is to provide voice and data segregation on a shared radio network. To achieve this requirement, voice and data transmissions are assigned different CTCSS tones. The 619DSRI will distinguish between the two different CTCSS tones and create two separate paths: one for data and one for voice. Figure 83 shows the typical connection required for this scenario, which includes the following features: ●
Programmable CTCSS detection of dual frequencies
●
CTCSS steering through dynamic switching
●
CTCSS generation dependent on the input source
Figure 83. Application example of voice and data segregation 619DSRI – Product Manual
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Appendix A
In this scenario, Port-3 is set up to act on either of two CTCSS frequencies, T1 (100.0Hz) or T2 (118.8Hz). Port5, the voice link, is configured to receive and transmit T1 and Port-1, the data link, is configured to use T2. Voice traffic from Port-5 and Data traffic from Port-1 are both routed to Port-3 where either of T1 or T2 is generated into the repeater, depending on the initiating input. When a signal on Port-3 is detected with T1, an optional configuration is invoked which steers the signal to the voice port only and generates sub-audible T1. Conversely, when a signal on Port-3 is detected with T2, a different optional configuration is invoked which steers the signal to the data port only and generates sub-audible T2 into the link.
Optimization of Link Traffic Flow The requirement of this example is to optimize voice and data traffic across a series of radio links and increase the channel availability of connected repeaters. This is example is similar to the previous example in which voice and data are allocated different CTCSS frequencies. The 619DSRI will distinguish between the two different frequencies on the common link backbone and provide CTCSS steering and dynamic switching at the link ports. This reduces traffic at repeater sites thereby improving system performance Figure 84 shows the typical connection required for this scenario, which includes the following features: ●
Programmable CTCSS detection of dual frequencies.
●
CTCSS steering through dynamic switching.
●
CTCSS generation dependent on the input source.
●
Selective configurations.
Figure 84. Application example of optimization of link traffic flow
In this scenario, voice signals use T1 (100.0Hz) and data traffic uses T2 (118.8Hz). Ports 1 and 8 are connected to the link and are set up to handle both CTCSS frequencies. Port-6 connects to a VHF voice network and is set up for T1 only. Port-3 connects to a UHF data network and is set up for T2 only. Audio on either of the link ports is always routed to the other by default. However, the same audio is only routed to either of the voice or data ports (or repeaters) depending on the received CTCSS tone. This is achieved through CTCSS steering of T1 and T2 at the link ports and by invoking one of four pre-set optional configurations.
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Application Scenarios
On the link side, each link port will invoke one of two optional configurations to allow the incoming signal to be dropped onto the appropriate repeater port. Each optional configuration will remain active, and create a temporary link, only whilst the input tone is available. On the network side, each repeater port is configured to insert audio into both link ports. When this occurs, the link ports will also generate a sub-audible tone (T1 or T2), depending on which repeater has keyed the link.
Fast Link Keying The requirement of this example is to eliminate long delays in CTCSS controlled multi-hop links. The 619DSRI incorporates a fast CTCSS mode for input signals. When configured correctly, fast CTCSS causes a PTT to be asserted in anticipation of a subsequent CTCSS tone. And to reduce the effects of possible false triggering, a temporary lockout feature can also be applied. Figure 85 shows the typical connection required for this scenario, which includes the following features: ●
Fast CTCSS output on COS.
●
Programmable tone detect period.
●
Programmable false trigger lockout.
Figure 85. Application example of fast link keying
In this scenario, the link backbone is to be keyed as fast as possible, using a given CTCSS tone (100.0Hz). The link ports are configured as Ports 1 and 5. Port-3 is used to connect a repeater network. All three ports are set up for Fast CTCSS on frequency 100.0Hz. Each port is also configured to generate 100.0Hz. When the COS input of Port-1 activates, PTTs are immediately activated on Ports 5 and 3, and a 100.0Hz CTCSS tone is generated on each of those ports. If the required CTCSS tone is not detected within a given period then the outputs are deactivated, regardless of the COS input state. If the tone is detected, the outputs will remain active until either the COS is removed or the tone is lost. Similar operation takes place on each of the other ports. 619DSRI – Product Manual
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Appendix A
Conversion of Keying/Squelch Mechanisms The requirement of this example is to interface private or leased lines to multiple groups of mobile users. Each mobile group is serviced by different repeaters and with different CTCSS frequencies and the lines use In-band keying. The 619DSRI can be programmed to accept audio that is qualified with a specific In-band keying tone, such as 2600Hz, or a CTCSS frequency. The audio can be routed to desired ports and, on transmission, a specified keying tone or a CTCSS tone can be sent with the out-going audio. Figure 86 shows the typical connection required for this scenario, which includes the following features: ●
Independent sub-audible and In-band tone transceivers
●
CTCSS Translation
●
Programmable detection and generation of sub-audible
Figure 86. Application example of conversion of keying/squelch mechanisms
In this scenario, a large courier company has three groups of mobile users communicating through three repeater networks. Each network uses a different CTCSS frequency to prevent unwanted interruptions. A dispatch operator at the base can talk and monitor each group of users. This is done through a private 2-wire line that uses a 2600Hz keying tone. The 619DSRI will automatically perform tone to CTCSS conversion to enable the dispatcher to talk to the mobile fleet. Conversely, the device also performs CTCSS to 2600Hz tone conversion, so that when mobiles talk, the dispatcher can listen to their conversations. When more than one network is active, the 619DSRI will mix the received signals for the operator, regardless of the incoming CTCSS tones.
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Appendix B Technical Reference
This appendix provides product specifications and the pin assignment for connectors used by the product, and includes the following sections: ●
“Specifications”
●
“4-Wire Port Characteristics” on page 103
●
“E & M Configuration Options” on page 105
Specifications The specifications of the 619DSRI product are listed in several tables on the following pages: Table 20 lists the general specifications, Table 21 lists the specifications for the radio ports, and Table 22 lists the specifications for the external interfaces. Table 20. General specifications Power
Operating Supply Voltage
+12VDC (+11 to 28VDC)
Operating Current
300mA (typical) @12V (170mA @24VDC)
Network Interface
Interface
10 / 100 BASE-T Ethernet with auto-MDIX detection
USB Interface
USB
2.0 compliant (1.1 backward compatible)
Real Time Clock
Clock Drift per day
3s (Clock Adjusment set to 0 ms)
Physical
Dimensions
485mm(W) x 45mm(H) x 255mm(D)
Environmental
*Operating Temperature
0 to 50°C (32 to 122°F)
Storage Temperature
-20 to 70°C (-4 to 158°F)
Rel Humidity (non-condensing)
95%
* Temperature range limited by LCD module
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Appendix B Table 21. Specifications for the radio ports Audio
Frequency Response
67 to 3600Hz (Input calibrated @1kHz set to -10dBm – see Figure 88)
Audio Latency
22ms (delay from audio input to audio output)
Distortion
1.35% (1.3 to 2.0% 1kHz @ -10dBm across 600Ω)
Cross Talk
-60dBm max (Between adjacent channels across 600Ω with Levels set to default and incoming 1 kHz frequency set to -10dBm)
Gain Tolerance
-1.0 to +1.0dBm
Input Impedance
600Ω
Input Level
-10dBm (nominal), +5dBm (max)
Input Gain
-17.5 to +17.5dBm (software controlled)
Output Impedance
600Ω
Output Level
-10dBm (nominal), +3dBm (max)
Output Gain
-17.69 to +17.69dBm
4-Wire E & M
Busy Configurations
Contact/Voltage/Switched Ground/Switched power
PTT Configurations
Contact/Voltage/Switched Ground/Switched power
Busy/PTT Latency
6ms (busy delay set to 0 ms)
E Signal Input Range
3 to 30VDC
E Signal Internal Supply
10VDC (typical)
M Signal Relay Voltage
50VDC (max)
M Signal Relay Current
100mA (max)
M Signal Relay Power
0.5W (max)
VOX
2.5 V Detection
-21 to -22dBm (Tested with Frequency Sweep from 300-3400Hz)
1.25 V Detection
-27 to -28dBm (Tested with Frequency Sweep from 300-3400Hz)
0.625 V Detection
-34 to -35dBm (Tested with Frequency Sweep from 300-3400Hz)
Selcall Signal
Schemes
CCIR, EEA, ZVE1, ZVE2, PZE1, ZVEIR3, EIA, DZVE1
Pre-Code Digits
3 to 6
Selcall Range
0 to E
Detection Level
-32 to +4.6dBm (-10dBm typical) Maximum level is the Selcall level before it becomes distorted with minimal Noise present. Note: At -32dBm level, the failure to detect Selcall can reach 2%
Detection Accuracy
+/- 2Hz
Output Level
+3.5dBm (max) Maximum level is the level before Selcall signal becomes distorted across a 600Ω resistor. Maximum level is determined when Tone Level = 0dB and Transmit level = 3.66dB.
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Technical Reference
Table 21. (continued) DTMF Signal
Detection Level
-25 to +5dBm (-10dBm typical)
DTMF Range
Digits 0 to 9, # and *
Detection Period
50ms (min) with 50ms (min) gap between tones
Interdigit Timing
Tone + Gap < 10 s
Output Accuracy
+/- 1 Hz (0.5Hz typical)
Output Level
+4dBm Maximum DTMF level is the level before DTMF signal becomes distorted across a 600Ω resistor. Maximum level is determined when DTMF Level = +17.69dB and Transmit level = 4.10dB
CTCSS 4-Wire Port
Detection Level
-30 to 0dBm (-30dBm typical)
Detection Accuracy
+/- 3Hz (for Input CTCSS level of -30dBm)
CTCSS Tone Rejection
-40dB (@ 100Hz – see Figure 89)
Tone Detection Latency
50 to 126ms
Output Level (67 Hz)
-27 to -7.4dBm (Maximum CTCSS level is the level before CTCSS 67Hz signal becomes distorted across a 600Ω resistor. Maximum level is determined when Rx Level = 0.0dB and Transmit Level = +4.10dB.)
Output Level (254.1 Hz)
-25 to +3.0dBm (Maximum CTCSS level is the level before CTCSS 254.1Hz signal becomes distorted across a 600Ω resistor. Maximum level is determined when Rx Level = 0.0dB and Transmit Level = +12.67dB)
Output Frequency Accuracy
+/- 1Hz
In-Band
Detection Level
-30dBm
Detection Accuracy
+/- 4Hz (@ -30dBm Input level)
In-band Tone Rejection
-40dB (see Figure 90)
Tone Detection Latency
80 to 124 ms (@ -30dBm Input)
Output Level
-35 to +3.5dBm (Maximum Inband level is the level before Inband 2500 Hz signal becomes distorted across a 600Ω resistor. Maximum level is determined when Inband Level = 0.0dB and Transmit level = +3.66dB)
Output Frequency Accuracy
+/- 1 Hz
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Appendix B Table 22. Specifications for external interfaces Digital I/O Interface (DB25 Connector)
Input Voltage
+5 to +30VDC
Analog Input Voltage
0 to 16.5VDC
Resolution
10 bits
Max Protection on Analog Input
20VDC
Output Relay Voltage
30VDC
Output Relay Current
1ADC
Output Relay Power
30W
External CTCSS
Outputs
8
64 Hz External Level
Maximum External CTCSS level is the level before the External CTCSS Frequency of 67Hz becomes distorted across a 2.35kΩ Resistor. Max Level is determined when CTCSS level = 0dB and Transmit Level = +3.22dB
254.1 Hz External Level
Maximum External CTCSS level is the level before the External CTCSS Frequency of 254.1Hz becomes distorted across a 2.35K Ohm Resistor. Max Level is determined when CTCSS level = 0dB and Transmit Level = +3.22dB
Output Frequency Accuracy
+/- 1Hz
Output Level Error (67 Hz)
3dB (150Ω Output Load Termination)
Output Level Error (254.1 Hz)
1dB (150Ω Output Load Termination)
Monitor Port
Load Impedance (1kHz)
100Ω (typical)
Output Level
-3.35dBm (Measured across 100Ω with Input Frequency @ -10dBm and Rx Level=-1.06dB. Max level is determined when signal is about to distort.)
Figure 87 shows the 619DSRI front panel and the dimensions of the enclosure.
Figure 87. 619DSRI front panel and dimensions
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Technical Reference
Table 23 lists the various connectors and the particular specification to which each connector adheres. Table 23. Connector specifications Connector
Specification
Power 1
Standard DC Female
Power 2
Molex 2-Way (MSTB2G)
Radio Port
8-Way US Modular (8P8C)
External CTCSS Interface
DB25 female
Digital I/O Interface
DB25 male
TDM Interface
DB25 female (not used)
Network Interface
8-Way RJ45
USB Interface
USB Type B male
Monitor
3.5 mm TRS jack
4-Wire Port Characteristics This section describes the frequency response, the high-pass filter response, and the 2600 Hz notch filter response for the 4-wire port levels.
Frequency Response The frequency response shown in Figure 88 was measured through the 4-wire port with the input set to a level of -10dBm.
Figure 88. Single audio port frequency response
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Appendix B
High-Pass Filter Response Figure 89 shows the high-pass filter response that removes CTCSS frequencies from the audio.
Figure 89. High-pass filter response for audio CTCSS frequencies
2600Hz Notch Filter Response Figure 90 shows a typical in-band notch filter response used to remove in-band tones from the audio.
Figure 90. 2600Hz in-band notch filter response
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Technical Reference
Digital and Analog I/O Connector Figure 91 shows the pin assignments of the DB25 connector located on the back panel of the 619DSRI. This connector is used for digital and analog I/O.
Figure 91. Digital and Analog I/O connector pin assignments
Connections The Digital I/O connector (DB25 male) located on the right-hand side of the rear panel, above the TDM connector contains the relays and digital and analog inputs. The digital input pairs are not polarity sensitive allowing a positive or negative voltage to be applied to the digital input pairs as shown in Figure 91.
E & M Configuration Options The E-lead and M-lead each have four available set-up options; contact, voltage, switched ground, and switched power. The options are configurable using the configuration interface or the SRI Configuration Interface software. Refer to Table 24 and the diagrams on the following pages for all possible E and M configuration options. You can choose one E (Busy) option and one M (PTT) option. Table 24. E & M configuration options Pin Assignment
Description
4=RxA, 5=RxB
Receive audio
3=TxA, 6=TxB
Transmit audio
1, 2 Bidirectional contact (default) 1=+10V, 2=0V 1=Power, 2=Open 1=Load, 2=Open
M (PTT) output options
7=0V, 8=+10V 7, 8 Bidirectional (default) 7=Open, 8=2mA 7=Open, 8=ExtGnd
E (Busy) input options
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Appendix B
E-Lead (Busy) Input Options The options available for the E-Lead (Busy) inputs are configured using the configuration interface. A configuration diagram of each option is shown in Figure 92. Individual options may be configured for each available port.
Figure 92. E-Lead (Busy) configuration using components
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Technical Reference
M-Lead (PTT) Output Options The options available for the M-Lead (PTT) outputs are configured using the configuration interface. A configuration diagram of each option is shown in Figure 93. Individual options may be configured for each available port.
Figure 93. M-Lead (PTT) configuration using components
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Glossary
Refer to the list below for 619DSRI terms and definitions. Adaptive DPCM (ADPCM)
A variant of DPCM that varies the size of the quantization step, to allow further reduction of the required bandwidth for a given signal-to-noise ratio (SNR or S/N).
Advanced Encryption Standard (AES)
Also known as Rijndael and is a block cipher adopted as an encryption standard by the U.S. government. It has been analyzed extensively and is now used worldwide
Busy
Indicates incoming audio from line inputs (transceivers, base stations, and phone lines). Sometimes referred to as COR (Carrier Operated Relay) or Busy.
Class ‘A’, ‘B’ and ‘C’ Addresses
IP or Internet addresses can be grouped into 3 classes: Class ‘A’, ‘B’ and ‘C’. The different classes allow for more or less computers on a network. The value of the first number in the IP address determines which class the address belongs to and how many computers are allowed on that network
Class ‘A’
Addresses in the range: 1.0.0.0 - 126.255.255.255. Addresses in this range are used as global addresses on the Internet, and are usually allocated by a global registry.
Class ‘B’
Addresses in the range: 128.0.0.0 - 191.255.255.255 Addresses in this range allow for up to 65532 hosts on a network and are typically used for large organizations
Class ‘C’
Addresses in the range: 192.0.0.0 - 223.0.0.0. Addresses in this range allow for up to 254 hosts on a network and are typically used for LANs. In addition certain address ranges are reserved for private use and are normally those that an organisation will use for its internal networks. These private use network addresses are: 10.0.0.0 - 10.255.255.255, 72.16.0.0 - 172.31.255.255, 192.168.0.0 192.168.255.255 Note: Each of the Class ‘A’, ‘B’ and ‘C’ address ranges shown above provides a private use set of addresses. Typically, small LANs will use addresses in the 192.168.0.1 - 192.168.0.255 range.
Codec
A device or program capable of performing encoding and decoding on a digital data stream or signal. The word codec may be a combination of any of the following: Compressor-Decompressor, Coder-Decoder, or Compression/Decompression. Codecs (in the modern, software sense) encode a stream or signal for transmission, storage or encryption and decode it so that it is in a format suitable for viewing or for radio. The codecs used in the 619DSRI are audio codecs and provide data compression to decrease the amount of bandwidth required to transmit the audio data.
COR/COS
Refers to Carrier Operated Relay/Carrier Operated Squelch and is used in the same way that Busy is used.
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CTCSS
Continuous Tone Coded Squelch System.
Data Encryption Standard (DES)
A block cipher with a key length of 56 bits. It is the least secure of the algorithms supported because it uses a short key.
Differential (or Delta) Pulse-Code Modulation (DPCM)
encodes the PCM values as differences between the current and the previous value. For audio this type of encoding reduces the number of bits required per sample by about 25% compared to PCM.
Domain Name System (DNS)
Stores and associates various sorts of information with so-called domain names; most importantly, it serves as the 'phone book' for the Internet: it translates humanreadable computer hostnames, e.g. omnitronics.com.au, into the IP addresses that networking equipment needs for delivering information. It also stores other information such as the list of mail exchange servers that accept e-mail for a given domain. In providing a worldwide keyword-based redirection service, DNS is an essential component of contemporary Internet use.
Dynamic Host Configuration Protocol (DHCP)
A set of rules used by communications devices such as a computer router or network adapter to allow the device to request and obtain an IP address from a server which has a list of addresses available for assignment. DHCP is a protocol used by networked computers (clients) to obtain IP addresses and other parameters such as the default gateway, subnet mask and IP addresses of DNS servers from a DHCP server. It facilitates access to a network because these settings would otherwise have to be made manually for the client to participate in the network. The DHCP server ensures that all IP addresses are unique, e.g., no IP address is assigned to a second client while the first client's assignment is valid (its lease has not expired). Thus IP address pool management is done by the server and not by a human network administrator.
DTMF
Dual Tone Multi-Frequency
Encryption
The process of obscuring information to make it unreadable without special knowledge.
FIFS
First In First Served
FSK
Frequency Shift Keying
Gateway
A default gateway is used by a host when an IP packet's destination address belongs to some place outside the local subnet (thus requiring more than one hop of Ethernet communication). The default gateway address is usually an interface belonging to the LAN's border router or firewall.
GSM
The first digital speech coding standard used in GSM (Global System for Mobile Communications) digital mobile phone system. The bit rate of the codec is 13kbit/s.
G.711
This is an ITU-T standard for audio companding. It is primarily used in telephony. G.711 is a standard that represents 8 bit compressed pulse code modulation (PCM) samples for signals of voice frequencies, sampled at the rate of 8000 samples/second. A G.711 encoder will create a 64kbit/s bit-stream. There are two main algorithms defined in the standard, mu-law algorithm (used in North America & Japan) and a-law algorithm (used in Europe and the rest of the world). Both are logarithmic, but the later a-law was specifically designed to be simpler for a computer to process. The standard also defines a sequence of repeating code values which defines the power level of 0dB.
G.726
G.726 is ITU-T speech codec operating at bit rates of 16-40kbit/s. The most commonly used mode is 32kbit/s, since this is half of the rate of G.711, thus increasing the usable network capacity by 100%. G.726 is based on ADPCM
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Glossary
technology. HTML
Short for HyperText Markup Language, is the predominant markup language for the creation of web pages It provides a means to describe the structure of text-based information in a document. HTML is written in the form of labels (known as tags), surrounded by angle brackets < and >.
Internet Protocol (IP)
This is a data-oriented protocol used by source and destination hosts for communicating data across a packet-switched network such as the internet.
Jitter Buffer
Used to counter jitter introduced by packet networks so that a continuous play-out of audio (or video) transmitted over the network can be assured. The maximum jitter that can be countered by a de-jitter buffer is equal to the buffering delay introduced before starting the play-out of the media-stream.
Mean Opinion Score (MOS)
Provides a numerical measure of the quality of human speech at the destination end of the circuit. The scheme uses subjective tests (opinionated scores) that are mathematically averaged to obtain a quantitative indicator of the system performance.
Multicast
A protocol for efficiently sending to multiple receivers at the same time over TCP/IP networks, by employing a multicast address. Traditional techniques for sending IP packets include Unicasting and Broadcasting. Unicast transmissions are point-to-point only. If you want to send a packet to ten different destination devices then you must transmit ten copies of the same packet. This floods the network with unnecessary traffic. Broadcast transmissions overcome this problem by sending just one copy of a packet (i.e. point to multipoint). However, broadcast transmissions cannot easily traverse a WAN and they end up being processed by all devices on a network, regardless of whether the device needs the ‘packetized’ data or not. Multicasting overcomes these problems. Using multicasting, the IPR110Plus sends one copy of a packet to a group of receivers that want to receive it.
Network Address Translation (NAT)
Involves re-writing the source and/or destination addresses of IP packets as they pass through a router or firewall. Most systems using NAT do so in order to enable multiple hosts on a private network to access the Internet using a single public IP address. In a typical configuration, a local network uses one of the designated ‘private’ IP address sub-nets (such as 192.168.x.x or 10.x.x.x), and a router on that network has a private address (such as 192.168.0.1) in that address space. The router is also connected to the Internet with a single ‘public’ address (known as ‘overloaded’ NAT) or multiple ‘public’ addresses assigned by an ISP.
Netmask
A network mask, also known as a subnet mask, netmask or address mask, is a bit mask used to show how much of an IP address identifies the sub network the host is on and how much identifies the host.
Pulse-Coded Modulation (PCM)
A digital representation of an analog signal where the magnitude of the signal is sampled regularly at uniform intervals and then quantized.
Real Time Protocol (RTP)
Defines a standardised packet format for delivering audio and video over the Internet. It can be used in both multicast and unicast applications. It is built on top of User Datagram Protocol.
Simple Network Management Protocol (SNMP)
is the network management protocol used almost exclusively in TCP/IP networks. SNMP provides a means to monitor and control network devices, and to manage configurations, collection of statistics, performance and security.
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Side-tone
Sound that is picked up by the telephone's mouthpiece and introduced (at low level) into the earpiece of the same handset, acting as feedback. Side-tone provides users with confidence that the handset is actually working.
Transmission Control Protocol (TCP)
TCP is one of the core protocols of the Internet protocol suite. Using TCP, programs on networked computers can create connections to one another, over which they can send data. The protocol guarantees that data sent by one end-point will be received in the same order by the other, and without any pieces missing.
Time To Live (TTL)
This determines the number of network routers that will pass on the data packets from this unit. This value limits how far the message will be sent. Typically as a router passes on a data packet, it will decrease the TTL information in the data packet, once the TTL reaches zero, the message will no longer get forwarded.
Unicast
The sending of information packets to a single destination.
User Datagram Protocol (UDP)
UDP is one of the core protocols of the Internet protocol suite. Using UDP, programs on networked computers can send short messages known as Datagram to one another. UDP does not provide the reliability and ordering guarantees that TCP does; Datagram may arrive out of order or go missing without notice. However, as a result, UDP is faster and more efficient for many light weight or timesensitive purposes.
Voice Operated Switch (VOX)
VOX is a switch that operates when sound over a certain threshold is detected. It is usually used to turn on a transmitter when someone speaks and turn it off when they stop speaking. It is used instead of a push-to-talk button.
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Glossary
Index
A alarm reporting codes about, 72 device identity, 72 format of, 72 precode, 72 sending, 72 suffix code, 72 alarm status codes description of, 35, 73 displaying, 35, 73 alarms acknowledging, 72 conditions, 71 configuring, 71 reporting, 72 reporting codes. See alarm reporting codes status codes. See alarm status codes status of, 35, 73 types of, 71 audio bridge. See audio bridging audio bridging matrix, 13 overview, 13 programmable routing matrix, 14 routing of audio, 13 audio bridging matrix. See audio bridging audio delay enabling, 84 setting, 84 audio matrix DTMF and selcall, 49 dynamically changing, 60 remote control of, 49 audio path overview, 17 auxiliary I/O, 16
B base configuration, 57 bridging matrix, 13 Busy to PTT Control Matrix, 58
C change events listing of, 60 Change Password menu, 39 commands DTMF, 57
selcall, 57 configuration backing up, 42, 91 base, 57 changing, 8 current status, 30 default, 57 dynamic switching of, 63 dynamically altering, 14 Input Control page, 62 loading, 8 mapping inputs to outputs, 57 optional, 10, 57 overlaying, 63 overlays, invoking, 14 primary, 57 restoring, 43 saving, 60 secondary, 57 selecting, 58 types of, 58 configuration interface accessing, 19, 25 Configuration Status area, 30 control buttons, 30 exiting, 33 logging on, 27 network settings, 24 Network Settings page, 36 overview, 25 password, 27, 39 Radio Diagnostics page, 87 Save and Restore page, 42 SRI Matrix page, 57 System Status page, 34 upgrading the firmware, 12 user accounts, 26 user interface, 30 user name, 27 using, 26 Configuration page, 57 CTCSS steering, 14
D default configuration changing, 57 resetting to, 12 using, 57 DHC technology, 14 DHCP server 619DSRI – Product Manual
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local addressing, 38 using, 38 Diagnostic I/O, 16 digital CTCSS, 18 Digital Smart Radio Interface. See DSRI DSRI about, 1 back panel, 1 configuring, 36 connecting to, 19 default address of, 19, 26 discovering, 26 features, 2 firmware upgrading, 91 functional overview, 15 input control of, 62 multi-function display, 8 resetting to defaults, 12 restarting, 32, 38 startup sequence, 8 Universal Plug and Play (UPnP), 26 DTMF change event, 14 command format, 54 commands, 57 Echo option, 54 encoder/decoder, 16 invoking secondary configuration, 83 level of, 76 port level, 78 reception of, 60 relay control, 70 remote control using, 44, 49, 54 System Split function, 82 TX level gain, 78 Dynamic Hub Control (DHC) technology, 14 dynamic switching, 63
E E&M configuration options, 105 E-Lead (Busy) input options, 106 M-Lead (PTT) output options, 107 edit mode, 9, 11
F factory default configuration, 91 firmware file extension of, 91 revision of, 5 upgrading, 12, 91 version of, displaying, 91 Firmware Upgrade page accessing, 91 firmware version of, displaying, 91 Firmware Upload menu, 91
H heartbeat Active Period option, 74 114
Index
Always Enabled option, 74 duration, 75 enabling, 74 function, 74 interval, 75 options, 74 schedule, 74
I in-band keying tones, 15 about, 18 input control functions of, 62 Input Control page, 62 input qualification, 62
L LCD start-up sequence, 8 limited user account logging in, 29 Limited user account, 41 Limited User account, 26 LINK indicator, 19 local addressing, 38
M MENU button operation of, 8 using, 8 menu mode, 5, 8, 9, 10 menu system about, 5 accessing, 10 navigating, 10 M-Lead (PTT) output options, 107 modes of operation about, 9 edit mode, 11 menu mode, 5, 8, 10 normal mode, 9 multicast addressing, 38 multi-function display overview, 8 startup screens, 8
N navigating menus, 10 network connecting to, 19 network configuration advanced settings, 37 DHCP, 38 gateway address, 37 local name, 38 netmask, 37 network settings, 36 saving, 38 static IP address, 36 Network Configuration page
about, 30 Network menu, 36 selecting, 29 network settings, saving, 31, 33 normal mode, 9
O optional configuration, 57 options, software control, 46 overlay mode, 46, 55 overwrite mode, 46
P password changing, 39 configuration manager, 39 limited user account, 39, 41 supervisor account, 39 technician account, 39 technician user account, 40 port functions Busy Switching option, 64 input control mode, 63 No Function option, 64 options, 63 Rx Signaling option, 64 rx signaling options, 63 ports configuration of, 62 precode. See alarm reporting codes primary configuration, 57 programmable routing matrix. See audio bridging PTT timeout, 82
R Radio Diagnostics configuration page, 87 Radio Diagnostics menu, 87 Radio Diagnostics page accessing, 87 real-time clock about, 16, 34 using, 74 reporting codes. See alarm reporting codes resetting configuration to defaults, 12 Rx Signaling options, 64
S Save / Restore menu, 42 secondary configuration, 57 selcall 3-digit precode, 52 about, 18 change event, 14 commands, 46, 51, 52, 57
decoder, 16 function, 46 function tone, 52 number of tones, 46 precode, 46, 51 qualifier tone, 52 reception of, 60 relay control, 70 remote control using, 44, 49, 51 System Split function, 82 selcall reporting codes. See alarm reporting codes software control options, 46 specifications, 99 startup sequence, 8 sub-audible CTCSS External CTCSS option, 70 Fast Output option, 64 Follow Input option, 70 functions of, 18 mixing audio with, 70 RX signaling, 64 subnet mask, 37 suffix code. See alarm reporting codes Supervisor account, 26, 39 supervisor user account about, 28 logging in, 28 System Split feature, 57 system split function, 82 System Status menu selecting, 34 system status page, 34 System Status page current status, 34 real-time clock, 34 system version information, 34
T Technician account, 26 technician user account logging in, 28 Technician user account, 40 Timing page audio delay enabling, 84 setting, 84 PTT timeout, 82 system split function, 82 tone generator about, 16 confirmation tones, 16 PTT tail tones, 16
U upgrading firmware, 12, 91
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