NP4-5098-502ViPR Narrowband IP Modem

Viper‐100™ Viper‐200™ Viper‐400™ Viper‐900™ Narrowband IP Router User Manual PN 001‐5008‐000 Rev 8 Revised June 2010 REVISION HISTORY REV DATE REVISION DETAILS 0 Jan 11, 2008 Initial Release as 001-5008-000. 1 May 2008 Update Dual Port Viper information. 2 September 2008 Added information about SNMP. Updated Firmware Upgrade instructions. 3 December 2008 Added information about TCP Client Server Mode. Added information about Saving/Restoring User Configuration files. 4 April 2009 Added information about V1.5 Viper code release. Added information about TCP Proxy Feature. Added note to RF Acknowledgment section. Corrected Viper Power Cable Part in Accessory Table. Added specifications and part number for 900 MHz Viper. Updated RF Exposure Compliance requirements. Added section 2.10, Choosing an IP Addressing Scheme 5 July 2009 Added information about V1.6 Viper code release. Added information about Listen Before Transmit Disable feature. Added section about RF MAC override feature. Added section about the Periodic Reset feature. Added screen shot and information for the “Add Static Entry” function 6 September 2009 Added Listen Before Transmit Disable Feature (Previously Read: Added Listen Before Talk Disable Feature) 7 November 2009 Updated user manual for product name change from ViPR to Viper 8 June 2010 Added UL information. Added information and specifications for Viper-200 Added information about V1.7 Viper firmware Release Corrected radio firmware upgrade command line instructions errors in Section 13.3 that were introduced in revision 7 of the user manual. Added section about VPN Added section about Radius Updated SNMP section Updated screen captures and descriptions IMPORTANT NOTICE Because of the nature of wireless communication, transmission and reception of data can never be guaranteed. Data may be delayed, corrupted (i.e., have errors), or be totally lost. Significant delays or losses of data are rare when wireless devices such as the Viper are used in a normal manner with a well-constructed network. Viper should not be used in situations where failure to transmit or receive data could result in damage of any kind to the user or any other party, including but not limited to personal injury, death, or loss of property. CalAmp accepts no responsibility for damages of any kind resulting from delays or errors in data transmitted or received using Viper, or for the failure of Viper to transmit or receive such data. COPYRIGHT NOTICE © Copyright 2010 CalAmp. Products offered may contain software proprietary to CalAmp. The offer of supply of these products and services does not include or infer any transfer of ownership. No part of the documentation or information supplied may be divulged to any third party without the express written consent of CalAmp. RF EXPOSURE COMPLIANCE REQUIREMENTS The Viper radio is intended for use in the Industrial Monitoring and Control and SCADA markets. The Viper unit must be professionally installed and must ensure a minimum separation distance listed in the table below between the radiating structure and any person. An antenna mounted on a pole or tower is the typical installation and in rare instances, a 1/2- wave whip antenna is used. RF Exposure Antenna Gain 5 dBi 10 dBi 15 dBi Min Safety Distance (VHF @ max Power) 123cm 218.8cm 389cm Min Safety Distance (UHF @ max Power) 105.7cm 188cm 334.4cm Min Safety Distance (900 MHz @ max power) 63.8cm 115 cm 201.7 cm Note: It is the responsibility of the user to guarantee compliance with the FCC MPE regulations when operating this device in a way other than described above. The Viper radio uses a low power radio frequency transmitter. The concentrated energy from an antenna may pose a health hazard. People should not be in front of the antenna when the transmitter is operating. The installer of this equipment must ensure the antenna is located or pointed such that it does not emit an RF field in excess of Health Canada limits for the general population. Recommended safety guidelines for the human exposure to radio frequency electromagnetic energy are contained in the Canadian Safety Code 6 (available from Health Canada) and the Federal Communications Commission (FCC) Bulletin 65. Any changes or modifications not expressly approved by the party responsible for compliance (in the country where used) could void the user's authority to operate the equipment. REGULATORY CERTIFICATIONS The Viper radio is available in several different models each with unique frequency bands. Each model of Viper may have different regulatory approval as shown in the table below. UL Certification All models UL approved when powered with a listed Class 2 source. DECLARATION OF CONFORMITY FOR MODEL # 140-5048-400 This device (Viper model #140-5048-400) is a data transceiver intended for commercial and industrial use in all EU and EFTA member states. Česky [Czech] CalAmp tímto prohlašuje, že tento rádio je ve shodě se základními požadavky a dalšími příslušnými ustanoveními směrnice 1999/5/ES. Dansk [Danish] Undertegnede CalAmp erklærer herved, at følgende udstyr radio overholder de væsentlige krav og øvrige relevante krav i direktiv 1999/5/EF. Deutsch [German] Hiermit erklärt CalAmp, dass sich das Gerät radio in Übereinstimmung mit den grundlegenden Anforderungen und den übrigen einschlägigen Bestimmungen der Richtlinie 1999/5/EG befindet. Eesti [Estonian] Käesolevaga kinnitab CalAmp seadme raadio vastavust direktiivi 1999/5/EÜ põhinõuetele ja nimetatud direktiivist tulenevatele teistele asjakohastele sätetele. English Hereby, CalAmp, declares that this radio is in compliance with the essential requirements and other relevant provisions of Directive 1999/5/EC. Español [Spanish] Por medio de la presente CalAmp declara que el radio cumple con los requisitos esenciales y cualesquiera otras disposiciones aplicables o exigibles de la Directiva 1999/5/CE. Ελληνική [Greek] ΜΕ ΤΗΝ ΠΑΡΟΥΣΑ CalAmp ΔΗΛΩΝΕΙ ΟΤΙ ΡΑΔΙΌΦΩΝΟ ΣΥΜΜΟΡΦΩΝΕΤΑΙ ΠΡΟΣ ΤΙΣ ΟΥΣΙΩΔ…

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Calamp Wireless Networks Corporation Waseca, Minnesota Calamp Wireless Networks Corporation hereby requests that our grant for NP4-5098-502 list frequencies outside of the FCC allocated Part 24, 90 and Part 101 frequencies. Calamp Wireless Networks Corporation acknowledges that it is a violation of FCC rules if the device operates on unauthorized frequencies. The device is professionally installed and it is up to the installer to determine if the device operates on authorized frequencies. The device was tested and complies with the more stringent standard between Part 24, 90 and Part 101 across the frequency range 928-960MHz. Chris Ludewig Director of Engineering

Attn: Reviewing Engineer August 4, 2010 Federal Communications Commission 7435 Oakland Mills Road Columbia, MD 21046 RE: CONFIDENTIALITY REQUEST FOR Viper RADIO TRANSCEIVER FCC ID: NP4-5098-502 To Whom It May Concern: This letter serves as an official request for confidentiality under FCC Rule Secton 0.457 and 0.459. We have requested the item listed below as items 1 – 4, required to be submitted with this application be withheld from public review. 1. Circuit Schematics Attachment entitled: #11 Viper LED Display Board Schematic.pdf Attachment entitled: #11 Viper Modem Schematic.pdf Attachment entitled: #11 Viper 900 RF Schematic.pdf 2. Bills of materials Attachment entitled: #12 Viper LED Display Board BOM.pdf Attachment entitled: #12 Viper Modem BOM.pdf Attachment entitled: #12 Viper 900 RF BOM.pdf 3. Block Diagrams Attachment entitled: #10 Viper LED Display Board Block Diagram.pdf Attachment entitled: #10 Viper Modem Block Diagram.pdf Attachment entitled: #10 Viper RF Block Diagram.pdf 4. Circuit Description Attachment entitled: #5 Viper Circuit Description.pdf This request is based on the fact that these are proprietary trade secrets of Dataradio. Dataradio does not make this information available to the public. Releasing this information gives competitors an unfair advantage of our proprietary research and development efforts. Sincerely, Chris Ludewig Director of Engineering

General Information The following report has been generated for FCC Certification of Calamp Wireless Networks Corporation Model 140-5098-502, 900 MHz Transceiver. Unless otherwise noted, all of the measurements were conducted following the procedures set forth in the TIA/EIA-603-C standards. Trade Name: Viper 900 SC Model Number: 140-5098-502 Manufacturer: Calamp Wireless Networks Corporation, Waseca, MN 56093 FCC ID Number: FCC ID: NP4-5098-502 FCC Rules and Regulations: FCC Part 24, 90, 101 Frequency Range: 928-960 MHz Serial Number (s): FEP #1 Transmitter: Type of Emissions: 3K30F1D 8K50F1D 3K55F1D 8K08F1D 8K20F1D 17K8F1D 8K30F1D 17K0F1D 16K5F1D 33K3F1D 16K8F1D 34K0F1D 3K20F1D 36K0F1D 3K45F1D 33K0F1D Maximum Power Ratings: 10 Watts Number of Channels: 32 Input Impedance: 50 Ohms, Nominal Voltage Requirement: 10-30 Vdc

Calamp Wireless Networks Corporation Waseca, Minnesota ENGINEERING STATEMENT OF Dale E Jordan The application consisting of the attached engineering exhibit and associated FCC form 731 has been prepared in support of a request for Certification for Viper 900 Transceiver. The transceiver will be identified by the FCC number NP4-5098-502. The transceiver operates pursuant to Part(s) 24, 90 and 101 of the Rules and Regulations. EXISTING CONDITIONS Calamp has completed assembly of a final engineering prototype of the Viper 900 Transceiver. The units utilized for these type acceptance measurements were obtained from the final engineering prototype. The transceiver is designed to operate on frequencies ranging from 928 to 960 MHz. The frequency tolerance of the transceiver is 1.0 parts per million. A Digitally Controlled Crystal Oscillator (DCXO) operating at 23.04 MHz controls the frequency stability of the transceiver. PROPOSED CONDITIONS It is proposed to certify the Viper 900 Transceiver for operation in the band of frequencies previously outlined. The applicant anticipates marketing the device for use in wireless transmission of data. PERFORMANCE MEASUREMENTS All Certification measurements were conducted in accordance with Section 2.1033 of 47 CFR 2008 of the Rules and Regulations. Equipment performance measurements were made in the engineering laboratory and on the FCC certified test range at Calamp in Waseca, Minnesota. All measurements were made and recorded by myself or under my direction. The performance measurements were made between March 1, 2010 and August 4, 2010. CONCLUSION Given the results of the Viper 900 Transceiver measurements contained herein, the applicant requests that the Certification be granted for the Viper 900 Transceiver as tested for data communications. 8/4/10 Electrical Engineer, Calamp Wireless Networks Corporation

Viper Tune Up Procedure The radio will be connected to an automatic testing station where a software program will tune all the radio parameters. The following instructions summarize the procedure for tuning the output power. The tuning program will key up the radio at four points across the band and sets the power to 10W. Power control is achieved by controlling the voltage on the first stage of the transmitter, which controls the RF drive to the following stages. The power output is programmable by using a digital to analog converter (DAC) on the RF board. This DAC is controlled by the on-board microprocessor. Once the DAC value is determined for these four frequencies the processor interpolates the DAC value for frequencies in between the calibrated frequencies. This ensures equal power output across the entire RF band. The tuning program then will tune the radio at four points across the band at 1W by following the same procedure. The processor interpolates the DAC value for power values between the calibrated powers. Note: Deviation is a preprogrammed set value for all radios.

RF Exposure Compliance Requirements Viper Analog Telemetry Radio Modem FCC Rule: 1.1307, 1.1310, 2.1091 (b) (d), 2.1093 Description of Compliance: The Viper will be professionally installed in the SCADA (Supervisory Control And Data Acquisition) market and will be mounted with a fixed RTU (Remote Terminal Unit). A minimum separation distance listed in the table below must be maintained between the radiating structure and any person to classify as a mobile under FCC MPE regulations. Antenna Gain vs. Recommended Safety Distance Antenna Gain 5 dBi 10 dBi 15 dBi Min Safety Distance (max power) 63.8cm 115 cm 201.7 cm Note: It is the responsibility of the user to guarantee compliance with the FCC MPE regulations when operating this device in a way other than described above. The calculation for the more stringent specification, a General Population/Uncontrolled Mobile device according to section 2.1091(b) and section 1.1310 Note 2 is shown below: Limits for General Population/Uncontrolled Exposure: Frequency Range (MHz) Electric Field Strength (V/m) Magnetic Field Strength (A/m) Power Density (mW/cm 2 ) Averaging Time (mins) 0.3-1.34 614 1.63 *(100) 30 1.34-30 824/f 2.19/f *(180/f2) 30 30-300 27.5 0.073 0.2 30 300-1500 --- --- f (MHz)/1500 (MHz) 30 1500-100000 --- --- 1.0 30 Environmental Specification: f(MHz)/(1500 mW/cm 2 ) 928 MHz/(1500 MHz mW/cm 2 ) = 0.62 mW/cm 2 (worst case) S = (PG)/(4πR 2 ) (OET Bulletin 65) Where: S = Power Density (mW/cm 2 ) P = Power input to the antenna (mW) G = Power Gain of the antenna in the direction of interest relative to an isotropic radiator R = Distance to the center of radiation of the antenna (cm) Distance Calculation for 5dBi antenna: R = √((PG)/(4πS)) Antenna Gain: 5.0 dBi 10 (5 dBi/10) = 3.16 Power input to the Antenna: 40.0dBm = 10 (40.0dBm/10) = 10000 mW R = √((10000mW*3.16)/(4π*0.62 mW/cm 2 )) = 63.8 cm (Minimum Distance) Distance Calculation for 10dBi antenna: R = √((PG)/(4πS)) Antenna Gain: 10.0 dBi 10 (10 dBi/10) = 10 Power input to the Antenna: 40.0dBm = 10 (40.0dBm/10) = 10000 mW R = √((10000mW*10)/(4π*0.62 mW/cm 2 )) = 113 cm (Minimum Distance) Distance Calculation for 15dBi antenna: R = √((PG)/(4πS)) Antenna Gain: 15.0 dBi 10 (15dBi/10) = 31.6 Power input to the Antenna: 40.0dBm = 10 (40.0dBm/10) = 10000 mW R = √((10000mW*31.6)/(4π*0.62 mW/cm 2 )) = 201.7 cm (Minimum Distance)

Page 1 of 102 CalAmp Wireless Networks Corporation 299 Johnson Avenue, Suite 110 Waseca, MN 56093-0833 USA Phone: 507-833-8819 Fax: 507-833-6748 FCC Part 24/90/101 Certification Application FCC Form 731 For The Viper VHF RADIO MODEM FCC ID: NP4-5098-502 Page 2 of 102 TABLE OF CONTENTS Page # Test 1: Transmitter Rated Output Power 3 Test 2: Transmitter Spurious and Harmonic Output 4 Test 3: Frequency Stability with Variation in Supply Voltage 8 Test 4: Frequency Stability with Variation in Ambient Temperature 10 Test 5: Transmitter Occupied Bandwidth – Mask D 12 6.25 kHz Quarter Channel Mask E 15 12.5 kHz Half Channel Mask D, 101.111(a)(5), 24.133(a)(2) 24 25 kHz Full Channel Mask G, 101.111(a)(6), 24.133(a)(1) 50 50 kHz Full Channel Mask G, 101.111(a)(6), 24.133(a)(1) 78 Test 6: Field Strength of Spurious Radiation 96 Calibration Information 102 Page 3 of 102 NAME OF TEST: Transmitter Rated Power Output RULE PART NUMBER: FCC: 2.1046 (a) (c), 24.132, 101.113 (a) TEST RESULTS: See results below TEST CONDITIONS: Standard Test Conditions TEST EQUIPMENT: 50-Ohm Atten, Bird Electronics Model 50-A-FFN-20 (20dB, 50W) 50-Ohm Atten, Bird Electronics Model 10-A-MFN-10 (10dB, 10W) Power Supply, Instek Model GPS-2303 Digital Multimeter, Fluke 8012A Power Meter, Model HP8901B with Sensor Module HP 11722A TEST SET-UP: TEST RESULTS: Frequency ( MHz ) DC Voltage at Final ( Vdc ) DC Current into Final ( Adc ) DC Power into Final ( W ) RF Power Output ( W ) 928.1 14.0 2.51 35.1 10.0 928.1 8.0 0.90 7.2 1.0 TEST UNIT ATTENUATOR POWER METER POWER SUPPLY DIGITAL MULTIMETER Page 4 of 102 NAME OF TEST: Transmitter Spurious and Harmonic Outputs RULE PART NUMBER: FCC: 2.1051, 90.210 (c,3)(d,3)(e,3), 101.111(5)(6), 24.133; MINIMUM STANDARDS: For 10 Watts: 43+10Log 10 (10 Watts) = -53.0 dBc or -65 dBc, whichever is the lesser attenuation. For 1 Watt: 55+10Log 10 (1 Watt) = -43 dBc or –65 dBc, whichever is the lesser attenuation. TEST RESULTS: Meets minimum standards ( see data on following pages ) TEST CONDITIONS: Standard Test Conditions, 25 C RF Voltage measured at antenna terminals TEST PROCEDURE: TIA/EIA – 603-C TEST EQUIPMENT: 50-Ohm Atten, Bird Electronics Model 50-A-FFN-20 (20dB, 50W) 50-Ohm Atten, Bird Electronics Model 10-A-MFN-10 (10dB, 10W) Power Supply, Instek Model GPS-2303 Spectrum Analyzer, HP8563E Power Meter, Model HP 437B Power Meter Reference Generator, Agilent E8257D High Pass Filter, Mini Circuits VHP-16 TEST SET-UP: MEASUREMENT PROCEDURE: 1. The transmitter carrier output frequency is 928.000, 944.000, and 960.000. The reference oscillator frequency is 23.040 MHz. The power amplifier has voltage levels at 14.0 Volts and 8.0 Volts for 10 watts and 1 watt, respectively. 2. The carrier reference was established on the spectrum analyzer with the filter by-pass in place. Then the spectrum was scanned from DC to 2 Fc. Finally, the high pass filter was inserted to null the carrier fundamental and extend the range of the spectrum analyzer for harmonic measurements above 2 Fc. 3. At each spurious frequency, generation substitution was used to establish the true spurious level. 4. The spectrum was scanned to the 10 th harmonic of the highest internally generated frequency. Filter By-Pass TEST UNIT ATTENUATORS HIGH PASS FILTER POWER SUPPLY SPECTRUM ANALYZER REFERENCE GENERATOR POWER METER Page 5 of 102 Tuned Frequency 928.025 MHz Tuned Frequency 928.025 MHz Power 10.0 Watts Power 1.0 Watts 40.0 dBm 30.0 dBm Min Specification -53.0 dBc Min Specification -43.0 dBc Worse Case -85.5 dBc Worse Case -77.2 dBc Spurious Relative to Spurious Relative to Frequency (MHz) Harmonic Carrier (dBc) Frequency (MHz) Harmonic Carrier (dBc) 1856.050 2 -85.5 1856.050 2 -88.5 2784.075 3 -90.0 2784.075 3 -97.2 3712.100 4 -119.5 3712.100 4 -109.5 4640.125 5 -101.0 4640.125 5 -102.7 5568.150 6 -109.7 5568.150 6 -99.7 6496.175 7 -103.3 6496.175 7 -111.3 7424.200 8 -118.3 7424.200 8 -108.3 8352.225 9 -108.5 8352.225 9 -106.5 9280.250 10 -115.3 9280.250 10 -105.3 10208.275 11 -87.2 10208.275 11 -77.2 11136.300 12 -111.0 11136.300 12 -101.0 12064.325 13 -109.5 12064.325 13 -99.5 12992.350 14 -113.7 12992.350 14 -103.7 13920.375 15 -116.2 13920.375 15 -106.2 14848.400 16 -103.0 14848.400 16 -93.0 15776.425 17 -106.5 15776.425 17 -96.5 16704.450 18 -113.7 16704.450 18 -103.7 17632.475 19 -98.0 17632.475 19 -88.0 18560.500 20 -96.0 18560.500 20 -86.0 Page 6 of 102 Tuned Frequency 944.1 MHz Tuned Frequency 944.1 MHz Power 10.0 Watts Power 1.0 Watts 40.0 dBm 30.0 dBm Min Specification -53.0 dBc Min Specification -43.0 dBc Worse Case -88.0 dBc Worse Case -78.0 dBc Spurious Relative to Spurious Relative to Frequency (MHz) Harmonic Carrier (dBc) Frequency (MHz) Harmonic Carrier (dBc) 1888.200 2 -93.5 1888.200 2 -95.2 2832.300 3 -91.7 2832.300 3 -99.2 3776.400 4 -120.5 3776.400 4 -110.5 4720.500 5 -106.8 4720.500 5 -104.8 5664.600 6 -114.7 5664.600 6 -104.7 6608.700 7 -104.0 6608.700 7 -113.0 7552.800 8 -113.5 7552.800 8 -108.5 8496.900 9 -110.2 8496.900 9 -100.2 9441.000 10 -114.8 9441.000 10 -104.8 10385.100 11 -97.4 10385.100 11 -87.4 11329.200 12 -109.0 11329.200 12 -99.0 12273.300 13 -117.3 12273.300 13 -107.3 13217.400 14 -117.5 13217.400 14 -107.5 14161.500 15 -108.5 14161.500 15 -98.5 15105.600 16 -101.7 15105.600 16 -91.7 16049.700 17 -112.2 16049.700 17 -102.2 16993.800 18 -104.2 16993.800 18 -94.2 17937.900 19 -88.0 17937.900 19 -78.0 18882.000 20 -93.0 18882.000 20 -83.0 Page 7 of 102 Tuned Frequency 959.975 MHz Tuned Frequency 959.975 MHz Power 10.0 Watts Power 1.0 Watts 40.0 dBm 30.0 dBm Min Specification -53.0 dBc Min Specification -43.0 dBc Worse Case -86.0 dBc Worse Case -76.0 dBc Spurious Relative to Spurious Relative to Frequency (MHz) Harmonic Carrier (dBc) Frequency (MHz) Harmonic Carrier (dBc) 1919.950 2 -92.8 1919.950 2 -82.8 2879.925 3 -91.2 2879.925 3 -81.2 3839.900 4 -119.8 3839.900 4 -109.8 4799.875 5 -102.7 4799.875 5 -92.7 5759.850 6 -115.5 5759.850 6 -105.5 6719.825 7 -103.5 6719.825 7 -93.5 7679.800 8 -114.5 767…

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