2ABZ536676963667696 (WLg-ABOARD/N/CAT)

1 © 2014 Caterpillar Inc. Command for Underground Control Gp-Com 366-7696 (WLg-ABOARD/N/CAT) User Guide (English) 2 © 2014 Caterpillar Inc. Change History Date Edited By Version 27 February 2014 Nathan Williams Draft 1.0 Information in this document is subject to change without notice. While every effort has been made to ensure that the information contained within this document and the features and changes described are accurate, Caterpillar cannot accept any type of liability for errors in, or omissions arising from, the use of this information. This document and all related documentation are the property of Caterpillar and may not be reproduced, transferred, sold, or otherwise disposed of, without the written permission of the owners. 3 © 2014 Caterpillar Inc. Safety Warnings Este equipamento opera em caráter secundário, isto é, não tem direito a proteção contra interferência prejudicial, mesmo de estações do mesmo tipo, e não pode causar interferência a sistemas operando em caráter primário. La operación de este equipo está sujeta a las siguientes dos condiciones: (1) es posible que este equipo o dispositivo no cause interferencia perjudicial y (2) este equipo o dispositivo debe aceptar cualquier interferencia, incluyendo la que pueda causar su operación no deseada.” This telecommunication equipment conforms to NTC technical requirement. This device complies with Industry Canada licence-exempt RSS standard(s). Operation is subject to the following two conditions: (1) this device may not cause interference, and (2) this device must accept any interference, including interference that may cause undesired operation of the device. Le présent appareil est conforme aux CNR d'Industrie Canada applicables aux appareils radio exempts de licence. L'exploitation est autorisée aux deux conditions suivantes: (1) L'appareil ne doit pas produire de brouillage, et (2) L'utilisateur de l'appareil doit accepter tout brouillage radioélectrique subi, même si le brouillage est susceptible d'en compromettre le fonctionnement. 4 © 2014 Caterpillar Inc. Onboard Radio – Configure Warning Remote controlled machines operate in this area. Personal injury or death could result from entry to this area. Do not enter this area when the Area Isolation System red warning light is flashing. 1) Insert the battery disconnect switch key and move to the “ON” position. 2) Move the autonomous control switch to the “ON” position. 3) Move the autonomous control enable switch to the “AUTO” position. The machine is now in the autonomous mode with the onboard radio powered “ON”. Illustration 1 (1) Autonomous Control Switch in machine cabin (2) Autonomous Control Enable Switch in “Auto” Position 5 © 2014 Caterpillar Inc. Set the radio to Onboard. 1) Using a 2 meter RJ45 to M12 cable (363-3406) connect the remote laptop Ethernet port to the Automation Interface Control Module (AICM) Ethernet M12 connector. 2) Open the CAT Network Devices Manager (NDM) 6 © 2014 Caterpillar Inc. 3) Select the radio by single clicking in any column describing the product. Do not double click as this will direct you to the radios configuration pages which is not accessible when the radio has the status of a “Product with limited connectivity”. 7 © 2014 Caterpillar Inc. 4) Single click the “Essential Config.” menu 8 © 2014 Caterpillar Inc. 5) Select “ON-BOARD” from the “Role” drop down menu 9 © 2014 Caterpillar Inc. 6) Select “Apply Changes”. The “Status” bar will give an indication when the configuration changes have been successfully completed. Do not close the essential config window until the configuration changes have been successfully completed as this will cause a cancelation of the desired changes. 10 © 2014 Caterpillar Inc. Note: If the IP address is 0.0.0.0 then a DHCP server is not available. 11 © 2014 Caterpillar Inc. Offboard Radio – Configure Warning Remote controlled machines operate in this area. Personal injury or death could result from entry to this area. Do not enter this area when the Area Isolation System red warning light is flashing. Establish Ethernet connection to radio via remote laptop 1) Apply power to the radio from an appropriate 48VDC source. 2) Using a 2M RJ45 to M12 Ethernet cable (363-3406) connect the LAN port 1 or LAN Port 2 to a remote laptop. 3) Open the CAT Network Devices Manager (NDM) and observe the configuration of the radio on the network. If the radio is operating in the onboard configuration change to offboard configuration as follows: 1) Select the radio by single clicking in any column in the main menu describing the product. Do not double click as this will direct you to the radios configuration pages which is not accessible when the radio has a “Product with limited connectivity” status. 12 © 2014 Caterpillar Inc. 2) Single click the “Essential Config.” menu 13 © 2014 Caterpillar Inc. 3) Select OFF-BOARD from the drop down menu Do not close the essential config window until the configuration changes have been successfully completed as this will cause a cancelation of the desired changes. 14 © 2014 Caterpillar Inc. Note: If the IP address is 0.0.0.0 then a DHCP server is not available.

Figure 1: Chassis Top Figure 2: Front Chassis Figure 3: Rear Chassis Figure 4: Chassis RH Side Figure 5: LH Side Chassis

MODEL: WLg-ABOARD/N/CAT FCC ID: 2ABZ5-3667696 IC: 11820A-3667696 SN : xxxxxxxx / REV MEXICO: RCPCAWL14-0905 N26789 RoHS COMPLIANT ACKSYS Q.C.PASSED MADE IN FRANCE MODEL NAME: WLg-ABOARD/N/CAT CAT P/N: 3667696 FACTORY SETTINGS Firmware Rel: x.y.z Firmware Type: CAT Mode:Offboard WiFi mode:802.11g Radio Channel: 6 (Default) SSID:“DASCAT” (Default) IP Address:DHCP THAILAND: This telecommunication equipment conforms to technical standard NTC TS 1012-2551 CHILE: 2748 INDONESIA: 28332/SDPPI/2013

Figure 1: Chassis Bottom Figure 2: Lid Removed Figure 1: Power Supply LM5576 Figure 2: RH Side View Figure 3: LH Side View Figure 4: Side View Rear

Maximum Permissible Exposure calculations The MPE distance will be calculated for the worst case of a 100% transmitter duty cycle. For an isotropic radiator the surface area of a sphere can be used to determine the area over which the transceiver energy is radiated. Surface area of a sphere = 4 * π * radius2 In the case where there is an antenna gain, the worst case energy density is increased by the antenna gain. In this case, the exposure level for a controlled environment can be calculated as follows: MPE distance =((output power*duty cycle*10*(antenna gain/10))/(4* π*Exposure Limit [mW/cm2]))1/2 In the case of 5 dBi Omni antenna MPE distance = ((267 mW * 1 * 3.16) /( 4 * 3.14 * 1)) 1/2 = 8.2 cm In the case of 3 dBi Omni antenna MPE distance = ((267 mW * 1 * 1.99) /( 4 * 3.14 * 1)) 1/2 = 6.5 cm

Multi-band Indoor / Microcell Antenna 800-2500 MHz DAS-M1 The DAS-M1 antenna is a revolutionary solution for indoor/outdoor distributed antenna systems. With multi-band coverage from 800-2500 MHz and a ground independent design, the applications are limitless. The DAS-M1 is a discrete, lightweight design for mounting on ceilings as a part of a multi-band distributed antenna system. It can also be “inverted” and mounted outdoors for wireless payphone, microcellular or picocellular applications, maintaining an IP66 ingress rating as the antenna includes multiple sealing gaskets. Features: n Easy to install on metallic or non-metallic surfaces n Excellent PIM characteristics n Multi band design offers one solution for CDMA, GSM, 3G, PCS, DECT, WLAN and Bluetooth applications n Strong omnidirectional performance Copyright RF Industries Pty Ltd 2011. Subject to change without notice. P-40798-52rfi.com.au1 Mechanical Electrical VSWR Typical VSWR Response (SMD20-41-DIN) Frequency (MHz) H Plane at ¼ wave antenna to mast spacing Peak gain at 0 O of 2dBd VSWR Typical VSWR Response (SMD2, 22, 24) Frequency (MHz) H Plane at ¼ wave antenna to mast spacing Peak gain at 0 O of 2dBd Model NoDAS-M1 ConstructionAll silver plated brass construction with Geloy ASA radome Dimensions mm H x D90 x 160 Weight kg0.05 TerminationSilver plated N-Type female connector Suggested MountingCeiling or external. Complete with all gaskets to maintain IP66 Model NoDAS-M1 Nominal Gain dBi1.62.03.3 Frequency MHz800 - 9601710 - 22002400 - 2500 Tuned Bandwidth Entire specific band VSWR (Return Loss)<2.0:1 Nominal Impedance Ω50 Vertical Beamwidth°958050 Input Power W50W H Plane at ¼ wave antenna to mast spacing Peak gain at 0 O of 2dBd 1 1.1 1.2 1.3 1.4 1.5 1.6 1.7 1.8 1.9 2 0 -80 +80 1 1.1 1.2 1.3 1.4 1.5 1.6 1.7 1.8 1.9 2 0 -400 +400

Pacific Satellite Pty LtdNational Sales: 1800 001 081 12 George Road, PO Box 100Phone: 61 2 4982 0855 Salamander Bay, NSW 2317Fax: 61 2 4982 0566 AUSTRALIAwww.pacsat.com.au [email protected] OMN2405B 2.4GHz 5dBi Omni Antenna Data Sheet 051709 Main Features • High-quality, 5 dBi omni-directional base station antenna • Collinear construction for excellent horizontal circularity/null-free coverage • Broad vertical beam width (25 degrees) • Rugged aluminium and fibreglass construction • Vertically polarised • Stainless steel mounting hardware included • Tube mount to provide improved weather protection to plug (see picture) • Designed & manufactured in Australia • 24-month warranty Electrical Specifications Typical Radiation Pattern Frequency 2400 - 2500MHz Antenna type Collinear Minimum gain 5dBi Electronic beam-tilt -1 ̊ Vertical beam-width 25 ̊ Horizontal beam-width 360 ̊± 0.5dB Return loss 20dB Impedance 50 Ohms Maximum power 200 Watts Standard polarization Vertical VSWR <1:1.5 Mechanical Specifications Standard connector N-Female Mass 0.8kg Length 650mm Radome diameter 35mm Mast diameter 30mm - 60mm Survival wind rating 220kmph Wind loading 4kg at 200kmph Operating temperature -20 ̊C to 70 ̊C Standards compliance AS1471

For Caterpillar Underground Mining Building P, 2-8 Hopkinson St Burnie, Tasmania 7320 AUSTRALIA P.O. Number Date Received Date Tested Test Personnel Specification 4600250214 February 27, 2014 March 10, 2014 through April 8, 2014 Mark Longinotti - FCC "Code of Federal Regulations" Title 47, Part 15, Subpart C, Sections 15.207 and 15.247 for Digital Modulation Intentional Radiators Operating within the band 2400-2483.5MHz - FCC “Code of Federal Regulations” Title 47, Part15, Subpart 15B, Section 15.107 and 15.109 for Receivers - Industry Canada RSS-210 - Industry Canada RSS-GEN Test Report By: Mark Longinotti EMC Engineer Requested By: Nathan Williams Caterpillar Underground Mining Approved By: Raymond J. Klouda Registered Professional Engineer of Illinois - 44894 Engineering Test Report No. 1302370-01 Measurement of RF Interference from an WLg-ABOARD/N/CAT WiFi Access Point and Bridge Transceiver El ite Electronic Engineering Inc. 1516 Centre Circle Downers Grove, IL 60515 Tel : (630) 495-9770 Fax: (630) 495-9785 www.elitetest.com Engineering Test Report No. 1302370-02 Page 2 of 355 TABLE OF CONTENTS PARAGRAPH DESCRIPTION OF CONTENTS PAGE NO. TABLE OF CONTENTS ............................................................................................................................................. 2 1. INTRODUCTION ........................................................................................................................................... 5 1.1 Scope of Tests .......................................................................................................................................... 5 1.2 Purpose ..................................................................................................................................................... 5 1.3 Deviations, Additions and Exclusions ....................................................................................................... 5 1.4 EMC Laboratory Identification .................................................................................................................. 5 1.5 Laboratory Conditions ............................................................................................................................... 5 2. APPLICABLE DOCUMENTS ....................................................................................................................... 6 3. EUT SETUP AND OPERATION ................................................................................................................... 6 3.1 General Description .................................................................................................................................. 6 3.1.1 Power Input .............................................................................................................................. 6 3.1.2 Peripheral Equipment ............................................................................................................... 6 3.1.3 Interconnect Cables ................................................................................................................. 6 3.1.4 Grounding ................................................................................................................................. 6 3.2 Software .................................................................................................................................................... 7 3.3 Operational Mode ..................................................................................................................................... 7 3.4 EUT Modifications ..................................................................................................................................... 7 4. TEST FACILITY AND TEST INSTRUMENTATION ..................................................................................... 8 4.1 Shielded Enclosure ................................................................................................................................... 8 4.2 Test Instrumentation ................................................................................................................................. 8 4.3 Calibration Traceability ............................................................................................................................. 8 4.4 Measurement Uncertainty ......................................................................................................................... 8 5. TEST PROCEDURES ................................................................................................................................... 8 5.1 Receiver .................................................................................................................................................... 8 5.1.1 Requirements ........................................................................................................................... 8 5.2 Transmitter ................................................................................................................................................ 9 5.2.1 FCC 15C, §15.247 (DTS) ......................................................................................................... 9 5.2.1.1 Powerline Conducted Emissions ........................................................................... 9 5.2.1.1.1 Requirements ............................................................................................................ 9 5.2.1.2 6dB Bandwidth ....................................................................................................... 9 5.2.1.2.1 Requirements ............................................................................................................ 9 5.2.1.2.2 Procedures ................................................................................................................ 9 5.2.1.2.3 Results ........................................................…

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Engineering Test Report No. 1302370-02 Page 283 of 355 Manufacturer : Caterpillar Underground Mining Model No. : WLg-ABOARD/N/CAT Specification : FCC-15.247 Spurious Radiated Emissions in Restricted Bands Date : March 10, 2014 through April 1, 2014 Mode : Tx @ 2437MHz (Ch. 6), 802.11b, 11Mb/sec, Main Notes : Tested with PacSat OMN2405B on Main Antenna Port Notes : Test Distance is 3 meters Notes : Maximized Average Readings Average Average Average Meter CBL Ant Pre Duty Total Total Limit Freq. Ant Reading Fac Fac Amp CycledBuV/m uV/m uV/m Margin MHz Pol (dBuV) Ambient (dB) (dB) (dB) (dB) at 3m at 3 m at 3 m (dB) 4874.00 H 47.6 Ambient 3.7 34.4 -40.2-29.2 16.4 6.6 500.0 -37.6 4874.00 V 47.7 Ambient 3.7 34.4 -40.2-29.2 16.5 6.7 500.0 -37.5 7311.00 H 47.8 Ambient 4.7 35.4 -39.8-29.2 18.9 8.9 500.0 -35.0 7311.00 V 47.7 Ambient 4.7 35.4 -39.8-29.2 18.8 8.8 500.0 -35.1 12185.00 H 48.9 Ambient 6.1 39.0 -39.5-29.2 25.3 18.4 500.0 -28.7 12185.00 V 48.3 Ambient 6.1 39.0 -39.5-29.2 24.7 17.2 500.0 -29.3 19496.00 H 30.2 Ambient 2.2 40.4 -27.8-29.2 15.8 6.2 500.0 -38.2 19496.00 V 29.6 Ambient 2.2 40.4 -27.8-29.2 15.2 5.8 500.0 -38.8 Average Total (dBuV/m) = Meter Reading (dBuV) + Cable Factor (dB) + Antenna Factor (dB) + Pre Amp Gain (dB) + Duty Cycle Correction Factor (dB) Average Total uV/m = 10^((Average Total (dBuV/m))/20) Engineering Test Report No. 1302370-02 Page 284 of 355 Manufacturer : Caterpillar Underground Mining Model No. : WLg-ABOARD/N/CAT Specification : FCC-15.247 Spurious Radiated Emissions in Restricted Bands Date : March 10, 2014 through April 1, 2014 Mode : Tx @ 2462MHz (Ch. 11), 802.11b, 11Mb/sec, Main Notes : Tested with PacSat OMN2405B on Main Antenna Port Notes : Test Distance is 3 meters Notes : Maximized Peak Readings in a 1MHz bandwidth Peak Peak Peak Meter CBL Ant Pre Total Total Limit Freq. Ant Reading Fac Fac Amp dBuV/m uV/m uV/m Margin MHz Pol (dBuV) Ambient(dB) (dB) (dB) at 3m at 3 m at 3 m (dB) 4924.00 H 48.2 Ambient3.7 34.5 -40.2 46.2 204.2 5000.0-27.8 4924.00 V 48.5 Ambient3.7 34.5 -40.2 46.5 211.3 5000.0-27.5 7386.00 H 47.5 Ambient4.7 35.4 -39.8 47.9 247.2 5000.0-26.1 7386.00 V 47.9 Ambient4.7 35.4 -39.8 48.3 258.8 5000.0-25.7 12310.00 H 48.5 Ambient6.1 38.9 -39.4 54.1 508.0 5000.0-19.9 12310.00 V 48.3 Ambient6.1 38.9 -39.4 53.9 496.4 5000.0-20.1 19696.00 H 28.2 Ambient2.2 40.4 -27.8 43.0 141.2 5000.0-31.0 19696.00 V 28.1 Ambient2.2 40.4 -27.8 42.9 139.1 5000.0-31.1 22158.00 H 30.2 Ambient2.2 40.6 -28.5 44.6 169.2 5000.0-29.4 22158.00 V 30.8 Ambient2.2 40.6 -28.5 45.2 181.5 5000.0-28.8 Peak Total (dBuV/m) = Meter Reading (dBuV) + Cable Factor (dB) + Antenna Factor (dB) + Pre Amp Gain (dB) Peak Total uV/m = 10^((Peak Total (dBuV/m))/20) Engineering Test Report No. 1302370-02 Page 285 of 355 Manufacturer : Caterpillar Underground Mining Model No. : WLg-ABOARD/N/CAT Specification : FCC-15.247 Spurious Radiated Emissions in Restricted Bands Date : March 10, 2014 through April 1, 2014 Mode : Tx @ 2462MHz (Ch. 11), 802.11b, 11Mb/sec, Main Notes : Tested with PacSat OMN2405B on Main Antenna Port Notes : Test Distance is 3 meters Notes : Maximized Average Readings Average Average Average Meter CBL Ant Pre Duty Total Total Limit Freq. Ant Reading Fac Fac Amp CycledBuV/m uV/m uV/m Margin MHz Pol (dBuV) Ambient (dB) (dB) (dB) (dB) at 3m at 3 m at 3 m (dB) 4924.00 H 48.2 Ambient 3.7 34.5 -40.2-29.2 17.0 7.1 500.0 -36.9 4924.00 V 48.5 Ambient 3.7 34.5 -40.2-29.2 17.3 7.4 500.0 -36.6 7386.00 H 47.5 Ambient 4.7 35.4 -39.8-29.2 18.7 8.6 500.0 -35.3 7386.00 V 47.9 Ambient 4.7 35.4 -39.8-29.2 19.1 9.0 500.0 -34.9 12310.00 H 48.5 Ambient 6.1 38.9 -39.4-29.2 25.0 17.7 500.0 -29.0 12310.00 V 48.3 Ambient 6.1 38.9 -39.4-29.2 24.8 17.3 500.0 -29.2 19696.00 H 28.2 Ambient 2.2 40.4 -27.8-29.2 13.8 4.9 500.0 -40.1 19696.00 V 28.1 Ambient 2.2 40.4 -27.8-29.2 13.7 4.9 500.0 -40.3 22158.00 H 30.2 Ambient 2.2 40.6 -28.5-29.2 15.4 5.9 500.0 -38.6 22158.00 V 30.8 Ambient 2.2 40.6 -28.5-29.2 16.0 6.3 500.0 -38.0 Average Total (dBuV/m) = Meter Reading (dBuV) + Cable Factor (dB) + Antenna Factor (dB) + Pre Amp Gain (dB) + Duty Cycle Correction Factor (dB) Average Total uV/m = 10^((Average Total (dBuV/m))/20) Engineering Test Report No. 1302370-02 Page 286 of 355 Manufacturer : Caterpillar Underground Mining Model No. : WLg-ABOARD/N/CAT Specification : FCC-15.247 Spurious Radiated Emissions in Restricted Bands Date : March 10, 2014 through April 1, 2014 Mode : Tx @ 2412MHz (Ch. 1), 802.11g, 54Mb/sec, Diversity Notes : Tested with RFI Model No. DAS-M1 on Main Antenna Port and Auxiliary Antenna Port Notes : Test Distance is 3 meters Notes : Maximized Peak Readings in a 1MHz bandwidth Peak Peak Peak Meter CBL Ant Pre Total Total Limit Freq. Ant Reading Fac Fac Amp dBuV/m uV/m uV/m Margin MHz Pol (dBuV) Ambient(dB) (dB) (dB) at 3m at 3 m at 3 m (dB) 4824.00 H 48.4 Ambient3.7 34.4 -40.1 46.3 207.2 5000.0-27.7 4824.00 V 49.5 Ambient3.7 34.4 -40.1 47.4 235.2 5000.0-26.6 12060.00 H 48.8 Ambient6.1 39.0 -39.6 54.2 514.2 5000.0-19.8 12060.00 V 48.8 Ambient6.1 39.0 -39.6 54.2 514.2 5000.0-19.8 14472.00 H 48.1 Ambient6.6 39.5 -39.9 54.3 521.2 5000.0-19.6 14472.00 V 48.3 Ambient6.6 39.5 -39.9 54.5 533.4 5000.0-19.4 19296.00 H 27.8 Ambient2.2 40.4 -27.9 42.5 132.7 5000.0-31.5 19296.00 V 28.9 Ambient2.2 40.4 -27.9 43.6 150.8 5000.0-30.4 Peak Total (dBuV/m) = Meter Reading (dBuV) + Cable Factor (dB) + Antenna Factor (dB) + Pre Amp Gain (dB) Peak Total uV/m = 10^((Peak Total (dBuV/m))/20) Engineering Test Report No. 1302370-02 Page 287 of 355 Manufacturer : Caterpillar Underground Mining Model No. : WLg-ABOARD/N/CAT Specification : FCC-15.247 Spurious Radiated Emissions in Restricted Bands Date : March 10, 2014 through April 1, 2014 Mode : Tx @ 2412MHz (Ch. 1), 802.11g, 54Mb/sec, Diversity Notes : Tested with RFI Model No. DAS-M1 on Main Antenna Port and Auxiliary Antenna Port Notes : Test Distance is 3 meters Notes : Maximized Average Readings Average Average Average Meter CBL Ant Pre Duty Total Total Limit Freq. A…

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Engineering Test Report No. 1302370-02 Page 18 of 355 Figure 3 Test Setup for Radiated Emissions, 802.11b and 802.11g Diversity Modes, – 30MHz to 1GHz, Horizontal Polarization Test Setup for Radiated Emissions, 802.11b and 802.11g Diversity Modes, – 30MHz to 1GHz, Vertical Polarization Engineering Test Report No. 1302370-02 Page 19 of 355 Figure 4 Test Setup for Radiated Emissions, 802.11b and 802.11g Diversity Modes, – 1GHz to 18GHz, Horizontal Polarization Test Setup for Radiated Emissions, 802.11b and 802.11g Diversity Modes, – 1GHz to 18GHz, Vertical Polarization Engineering Test Report No. 1302370-02 Page 20 of 355 Figure 5 Test Setup for Radiated Emissions, 802.11b and 802.11g Main Modes, – 30MHz to 1GHz, Horizontal Polarization Test Setup for Radiated Emissions, 802.11b and 802.11g Main Modes, – 30MHz to 1GHz, Vertical Polarization Engineering Test Report No. 1302370-02 Page 21 of 355 Figure 6 Test Setup for Radiated Emissions, 802.11b and 802.11g Main Modes, – 1GHz to 18GHz, Horizontal Polarization Test Setup for Radiated Emissions, 802.11b and 802.11g Main Modes, – 1GHz to 18GHz, Vertical Polarization