MI7-IPMNIP4HPV/GPS Mobile Radio

I I P P 4 4 H H P P V V M M o o b b i i l l e e R R a a d d i i o o Owner’s Manual Date Prepared: August 7, 2002 Document Control #: DC-67 Version: C-1 (Special Release) Copyright 2002 IPMobileNet, Inc. 11909 East Telegraph Road  Santa Fe Springs, CA 90670-3785 Voice: (562) 946-9493 Fax: (562) 949-0223 TABLE OF CONTENTS IP4HPVGPS-MRFCCRpt.doc Page 2 SECTION 1: THEORY OF OPERATION................................................................................. 3 General Block Diagram................................................................................................ 3 General Block Diagram Definitions ..................................................................... 3 IP4HPV Mobile Radio Section Descriptions.............................................................. 5 Microcontroller .................................................................................................... 5 Support Circuitry ................................................................................... 5 Inputs/Outputs .................................................................................................... 5 Modem .............................................................................................................. 6 VLogic and Digital Ground ................................................................................. 6 Receiver 1 Front-End ......................................................................................... 7 Receiver 1 IF ...................................................................................................... 7 Transmit Modulation ........................................................................................... 7 Injection Synthesizer .......................................................................................... 8 Transmitter/TR Switch ........................................................................................ 8 Power and Analog Ground ................................................................................. 8 SECTION 2: FACTORY TEST PROCEDURE....................................................................... 10 Equipment List........................................................................................................... 10 Programming and Configuring Mobile Radio.......................................................... 11 Adjustment / Alignment Procedures........................................................................ 12 Receiver Injection ............................................................................................. 12 Receiver 1 ........................................................................................................ 12 Receiver 2 ........................................................................................................ 13 Transmit Data ................................................................................................... 14 Transmit Power Control .................................................................................... 14 Receive Data .................................................................................................... 15 Final Test .......................................................................................................... 15 Uplink Hardware Timing Verification ................................................................ 17 Downlink Hardware Timing Verification ............................................................ 19 SECTION 3: FCC LABEL...................................................................................................... 21 IP4 HPV Mobile Radio FCC Label Placement.......................................................... 21 IP4 HPV Mobile Radio FCC Label............................................................................. 21 APPENDIX A: IP4 HPV CIRCUIT BOARD DIAGRAM.......................................................... 44 APPENDIX B: IP4 HPV TEST DATA SHEET........................................................................ 45 SECTION 1: THEORY OF OEPRATION IP4HPVGPS-MRFCCRpt.doc Page 3  General Block Diagram General Block Diagram Definitions For increased data security, the modem supports the Federal Government developed Digital Encryption Standard (DES) data encryption and decryption protocols. This capability requires installation of third party, Internet Protocol (IP) compliant DES encryption and decryption software on the system. The IP4HPV mobile radio is comprised of two (2) circuit boards, the digital board and the RF board. The digital circuit board contains the following sections: Input/Output Circuitry associated with the radio’s DB9 data connector providing all the RS232 data and handshake functions, including the necessary level changes. Microcontroller Manages the operation of the radio, the modem, and determines which receiver provides a better signal from a given transmission. Also provides transmit time-out protection in the event a fault causes the radio to halt in the transmit mode. Modem Converts serial data into an analog audio waveform for transmission and analog audio from the receiver to serial data. Within a single chip it provides forward error detection and correction, bit interleaving for more robust data communications, and third generation collision detection and correction capabilities. Power Supply The power supply creates the various voltages required by the digital portion of the mobile radio. SECTION 1: THEORY OF OPERATION IP4HPVGPS-MRFCCRpt.doc Page 4 The RF circuit board contains the following sections: Transmit Processing Circuitry that amplifies the analog audio signal from the modem and uses it to modulate the voltage controlled oscillator (VCO) and 10 MHz reference oscillator in the injection synthesizer section. Modulating the VCO and reference oscillator simultaneously results in a higher quality FM signal. Injection Synthesizer Provides programmable, ultra stable signals f…

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! !! ! IP4 HPV Mobile Radio Operational Description General Block Diagram General Block Diagram Definitions For increased data security, the modem supports the Federal Government developed Digital Encryption Standard (DES) data encryption and decryption protocols. This capability requires installation of third party, Internet Protocol (IP) compliant DES encryption and decryption software on the system. The IP4HPV mobile radio is comprised of two (2) circuit boards, the digital board and the RF board. The digital circuit board contains the following sections: Input/Output Circuitry associated with the radio’s DB9 data connector providing all the RS232 data and handshake functions, including the necessary level changes. Microcontroller Manages the operation of the radio, the modem, and determines which receiver provides a better signal from a given transmission. Also provides transmit time-out protection in the event a fault causes the radio to halt in the transmit mode. Modem Converts serial data into an analog audio waveform for transmission and analog audio from the receiver to serial data. Within a single chip it provides forward error detection and correction, bit interleaving for more robust data communications, and third generation collision detection and correction capabilities. Power Supply The power supply creates the various voltages required by the digital portion of the mobile radio. The RF circuit board contains the following sections: Transmit Processing Circuitry that amplifies the analog audio signal from the modem and uses it to modulate the voltage controlled oscillator (VCO) and 10 MHz reference oscillator in the injection synt hesizer section. Modulating t he VCO and reference oscillator simultaneously results in a higher quality FM signal. Injection Synthesizer Provides programmable, ultra stable signals for the radio. Synthesizer incorporates phase lock loop technology used for both receiving and transmitting. Injection In the receive mode, the synthesizer provides a local oscillator signal of 45 MHz above or below the selected receive channel frequency. Transmitter Consists of an exciter and power amplifier module. The transmitter covers the various frequency bands in segments. A different power amplifier module is required for each segment. The transmitter circuitry includes a T/R switch switching the antenna between transmitter and receiver 1 (TX/RX1). Receiver 1/Receiver 2 Required to support the mobile DRS; two (2) discrete receivers are tuned to the same channel and use two (2) antennas. The receivers are double-conversion superheterodyne with a first Intermediate Frequency (IF) of 45 MHz and a second IF frequency of 455 KHz. Each receiver consists of bandpass filters, an RF amplifier, a MMIC mixer, crystal filters, and a one-chip IF system. The injection synthesizer provides the first local oscillator signal. Outputs from each receiver include RSSI and analog audio for the baseband routing circuitry and modem. Power Supply Consists of circuitry that derives the various operating voltages for the RF portion of the mobile radio.

Page 1 of 1 Antenna Installation NOTE : Two (2) antennas are mounted and installed on the roof of the vehicle using specific measurements for distance. To mount and install the antennas, perform the following steps: Step 1 Install antennas (see sample drawing DT450-10-0201 and Fig. 11 below). The separation distance between the two (2) antennas is 19”. The preferred is 31.25”. The minimum distance of the RX2 antenna from the light bar is 3.2”. Observe correct separation between antennas (refer to the Mobile Antenna Distance Matrix for midpoint distance calculations on page 12) and minimum Near Field Exclusion Zone (NFEZ) for proper diversity reception operation. Step 2 Cut a mounting hole in the roof of the vehicle using an electric drill or hole saw. NOTE : The antenna-mounting hole provides ground connection to the antenna. Ensure that a metal-to-metal connection between the antenna shields exists. Figure 11 NOTE : Figure 11 represents the recommended front-to-rear antenna installation. The receiver antenna (RX2) should be the antenna nearest to the light bar. Step 3 All antenna mounts must be environmentally tight. Install or use O-rings to seal the antenna base to the rooftop of the vehicle. Step 4 Route the coaxial cables to the radio through one of the hollow spaces in the roof supports into the trunk compartment where the radio is mounted. NOTE: Both antennas should be checked and tested to ensure they are functioning properly. If these installation guidelines are followed, it is safe for persons to stand at a distance no less than 40 inches from the antennas. NOTE : The following test is performed without any power, thus can be performed immediately after the installation of the coax and antenna, following the installation of the N-type connector on the coax. To measure Return Loss, perform the following steps: Step 1 Select one of the following Antenna Analysts to perform the test: • 450 to 508 MHz installations, use the 140-525 Analyst • 806 to 960MHz installations, use the CellMate Analyst Step 2 Connect the antenna to be tested to the Antenna Analyst. Step 3 Turn on the Antenna Analyst and the Return Loss (RETL) is displayed in dB to the left of the Voltage Standing Wave Ratio (VSWR) curve. NOTE : The Return Loss Specification is –14 dBm or greater (with good antennas the typical range will be between –14 and –28). To measure the Voltage Standing Wave Ratio (VSWR) Reflected Power, perform the following steps: Step 1 After selecting the appropriate Analyst and connecting the antenna to be tested, press F1 to access the Analyst Menu. Step 2 Press F1 again to access the Display (DSPLY) menu, which lists the modes. Step 3 Press F2 to select the VSWR display mode. Plotting will resume and the VSWR value is highlighted. NOTE : The VSWR Reflected Power Specification is 1.6 watts or less. To measure Insertion Loss of an unterminated length of coax, perform the following steps: Step 1 Connect the antenna to be tested to the appropriate Antenna Analyst. Step 2 Turn on the Antenna Analyst and the Return Loss is displayed in dB to the left of the VSWR curve. NOTE : To switch from the RETL mode to VSWR mode, refer back to the previous set of instructions. Step 3 Divide the result by two (2). 1 2

Duty Cycle The maximum duty cycle of our IP4HPV radio product during transmission is 50%. The radio is designed with a Transmit/Receive port. The firmware in the radio requires a send and acknowledgment cycle. Thus during the transmission of a message the maximum duty cycle is 50%. The operating duty cycle is considerable less due to the fact that the radio is running in the 50% duty factor mode only during message transmission. Depending on traffic and network availability the average radio is in the transmission mode for less that 2% of the operating time. Thus, the operating duty cycle is typically less than 1%.

Response to FCC Correspondence Number 5339 1. The power meter used to measure the RF output power has an average detector. 2. The max expected antenna gain is 3 dB. 3. The typical antenna installatino instructions have been unloaded. 4. The duty factor information has been uploaded.

IP4 HPV Mobile Radio FCC Label IP4HPV Mobile Radio FCC Label Placement IP4HPV Mobile Radio FCC Label 400 – 512 MHz DIVERSITY MOBILE DATA FCCID: M17-IPMNIP4 Serial No. Model: IP4HP V FCC ID : M17-IPMNIP4 Serial No. Model: IP4HP V

! !! ! IP4 HPV Mobile Radio Operational Description General Block Diagram General Block Diagram Definitions For increased data security, the modem supports the Federal Government developed Digital Encryption Standard (DES) data encryption and decryption protocols. This capability requires installation of third party, Internet Protocol (IP) compliant DES encryption and decryption software on the system. The IP4HPV mobile radio is comprised of two (2) circuit boards, the digital board and the RF board. The digital circuit board contains the following sections: Input/Output Circuitry associated with the radio’s DB9 data connector providing all the RS232 data and handshake functions, including the necessary level changes. Microcontroller Manages the operation of the radio, the modem, and determines which receiver provides a better signal from a given transmission. Also provides transmit time-out protection in the event a fault causes the radio to halt in the transmit mode. Modem Converts serial data into an analog audio waveform for transmission and analog audio from the receiver to serial data. Within a single chip it provides forward error detection and correction, bit interleaving for more robust data communications, and third generation collision detection and correction capabilities. Power Supply The power supply creates the various voltages required by the digital portion of the mobile radio. The RF circuit board contains the following sections: Transmit Processing Circuitry that amplifies the analog audio signal from the modem and uses it to modulate the voltage controlled oscillator (VCO) and 10 MHz reference oscillator in the injection synt hesizer section. Modulating t he VCO and reference oscillator simultaneously results in a higher quality FM signal. Injection Synthesizer Provides programmable, ultra stable signals for the radio. Synthesizer incorporates phase lock loop technology used for both receiving and transmitting. Injection In the receive mode, the synthesizer provides a local oscillator signal of 45 MHz above or below the selected receive channel frequency. Transmitter Consists of an exciter and power amplifier module. The transmitter covers the various frequency bands in segments. A different power amplifier module is required for each segment. The transmitter circuitry includes a T/R switch switching the antenna between transmitter and receiver 1 (TX/RX1). Receiver 1/Receiver 2 Required to support the mobile DRS; two (2) discrete receivers are tuned to the same channel and use two (2) antennas. The receivers are double-conversion superheterodyne with a first Intermediate Frequency (IF) of 45 MHz and a second IF frequency of 455 KHz. Each receiver consists of bandpass filters, an RF amplifier, a MMIC mixer, crystal filters, and a one-chip IF system. The injection synthesizer provides the first local oscillator signal. Outputs from each receiver include RSSI and analog audio for the baseband routing circuitry and modem. Power Supply Consists of circuitry that derives the various operating voltages for the RF portion of the mobile radio.

2.1033(c)(9) TUNE-UP PROCEDURE There is no tune-up procedure required over the power range or at specific operating power levels because the unit is software controlled.

5473A Clouds Rest Road : Mariposa, CA 95338 : Phone 209-966-5420 : Fax 209-742-6133 Maximum Permissible Exposure Calculations Date of Report: Jan 08, 2003 Calculations prepared for: IP Mobile Net 11909 East Telegraph Road Santa Fe Springs, CA 90670 Calculations prepared by: Eddie Wong 110 N. Olinda Place Brea, CA 9283 Model Number: IP4HPV-GPS FCC Identification: MI7-IPMNIP4H Fundamental Operating Frequency: 509-512MHz Maximum Rated Output Power: 40.00 Watts Measured Output Power: 34.00 Watts Typical Antenna gain: 3dBi In accordance with 47CFR2.1093(d)(2), source based time averaging is allowed for this type of device: Source Based Time Averaging = 20LOG(ON time/TOTAL time) = 20LOG(389mS/(389+310 = 699mS) = -5.09dB Therefore the Output = 46.02dBm (40.00W) - 5.09dB + 3dBi = 43.93dBm (24.717W EIRP) MPE Limit in accordance with 1.1310(b): Limits for general population/uncontrolled exposure MPE Limit for 509 MHz = 509/1500 = 0.3393 mW/cm 2 (3.339W/M 2 ) MPE Limit for 512 MHz = 512/1500 = 0.3413 mW/ cm 2 Power Output (Watts EIRP) Power Density Limit (mW/cm 2 ) Minimum Distance (Meters) 24.717 0.3393 0.7616 Power Density (W/M 2 ) = (EIRP) / (d 2 * 4 * π) The typical vehicle used by police was measured, and a separation distance of 1 meter was found to be an appropriate distance. Under normal operating conditions, the antenna will maintain a separation of 1 meter from all persons. As can be seen from the MPE results, this device passes the limits specified in 1.1310 at a distance of 0.7616 Meters at the rated power of 40W.

5473A Clouds Rest Road : Mariposa, CA 95338 : Phone 209-966-5420 : Fax 209-742-6133 Maximum Permissible Exposure Calculations Date of Report: Jan 31, 2003 Calculations prepared for: IP Mobile Net 11909 East Telegraph Road Santa Fe Springs, CA 90670 Calculations prepared by: Eddie Wong 110 N. Olinda Place Brea, CA 9283 Model Number: IP4HPV-GPS FCC Identification: MI7-IPMNIP4H Fundamental Operating Frequency: 509-512MHz Maximum Rated Output Power: 40.00 Watts Measured Output Power: 34.00 Watts In accordance with 47CFR2.1093(d)(2), source based time averaging is allowed for this type of device: Source Based Time Averaging = 10LOG(ON time/TOTAL time) = 10LOG(389mS/(389+310 = 699mS) = -2.54dB Therefore the Power Output = 46.02dBm (40.00W) – 2.54dB = 43.48dBm (22.284W) At measured Power Output = 45.31(34.00W) - 2.54dB = 42.77dBm (18.92W) MPE Limit in accordance with 1.1310(b): Limits for general population/uncontrolled exposure MPE Limit for 509 MHz = 509/1500 = 0.3393 mW/cm 2 (3.339W/M 2 ) MPE Limit for 512 MHz = 512/1500 = 0.3413 mW/ cm 2 Power Output (Watts) Power Density Limit (mW/cm 2 ) Minimum Distance (Meters) Rated power of 40W 22.28 0.3393 1.0 Measured power of 34W (Also this power listed on Grant) 18.92 0.3393 0.6663 Antenna gain = 3 dBi = linear gain of 2 with reference to an isotropic antenna. Power Density (W/M 2 ) = (30 * P t * G) / (d 2 * Zo) P t = Power Delivered to the Antenna G = Antenna Gain d = Distance in meters Zo = Impedance of Free Space The typical vehicle used by police was measured, and a separation distance of 1 meter was found to be an appropriate distance. Under normal operating conditions, the antenna will maintain a separation of 1 meter from all persons. As can be seen from the MPE results, at rated power, this device passes the limits specified in 1.1310 at a distance of 1.0 Meter. 3 dBi gain = 10 Log G G = antilog (3/10) = ratio of 2 over Isotropic. D = 1.0 meter. 377x .339.3 2 x 28.22 x 30 d=

Page 1 of 69 Report No.: FC02-067A ADDENDUM TO FC02-067 FOR THE HPV/GPS MOBILE RADIO, IP4HPV FCC PART 90 AND PART 15 SUBPART B SECTIONS 15.107, 15.109 AND 15.111 CLASS B COMPLIANCE DATE OF ISSUE: AUGUST 30, 2002 PREPARED FOR: IP MobileNet, Inc. 16842 Von Karman Avenue, Suite 200 Irvine, CA 92606 PREPARED BY: Mary Ellen Clayton CKC Laboratories, Inc. 5473A Clouds Rest Mariposa, CA 95338 P.O. No.: 002179-00 W.O. No.: 79240 Date of test: July 30 - August 16, 2002 Report No.: FC02-067A This report contains a total of 69 pages and may be reproduced in full only. Partial reproduction may only be done with the written consent of CKC Laboratories, Inc. The results in this report apply only to the items tested, as identified herein. Page 2 of 69 Report No.: FC02-067A TABLE OF CONTENTS Administrative Information ............................................................................................. 3 Summary of Results......................................................................................................... 4 Conditions for Compliance.............................................................................................. 4 Approvals......................................................................................................................... 4 Equipment Under Test (EUT) Description...................................................................... 5 Equipment Under Test..................................................................................................... 5 Peripheral Devices ........................................................................................................... 5 2.1033(c)(3) User’s Manual ............................................................................................ 6 2.1033(c)(4) Type of Emissions ...................................................................................... 6 2.1033(c)(5) Frequency Ranges ...................................................................................... 6 2.1033(c)(6) Operating Power ......................................................................................... 6 2.1033(c)(7) Maximum Power Rating............................................................................. 6 2.1033(c)(8) DC Voltages ............................................................................................... 6 2.1033(c)(9) Tune-Up Procedure .................................................................................... 6 2.1033(c)(10) Schematics and Circuitry Description ...................................................... 6 2.1033(c)(11) Label and Placement................................................................................. 6 2.1033(c)(12) Submittal Photos....................................................................................... 6 2.1033(c)(13) Modulation Information ........................................................................... 6 2.1033(c)(14)/2.1046/90.205(h) - RF Power Output....................................................... 7 2.1033(c)(14)/2.1047(b) - Modulation - Audio Frequency Response............................. 9 2.1033(c)(14)/2.1047(b) - Modulation Limiting Response ............................................. 9 2.1033(c)(14)/2.1049(i)/90.209/90.210 - Occupied Bandwidth...................................... 9 2.1033(c)(14)/2.1051/ - Spurious Emissions at Antenna Terminal................................. 16 2.1033(c)(14)/2.1053/90.210- Field Strength of Spurious Radiation.............................. 22 2.1033(c)(14)/2.1055/90.205(h)/90.213 - Frequency Stability and Voltage Variations . 29 90.214 – Transient Frequency Behavior.......................................................................... 31 15.107 – AC Conducted Emissions................................................................................. 37 15.109 – Radiated Emissions .......................................................................................... 49 15.111 – Radiated Emissions .......................................................................................... 64 Page 3 of 69 Report No.: FC02-067A CKC Laboratories, Inc. has received Certificates of Accreditation from the following agencies: A2LA (USA); DATech (Germany); BSMI (Taiwan); Nemko (Norway); and GOST (Russia). CKC Laboratories, Inc has received test site Registration Acceptance from the following agencies: FCC (USA); VCCI (Japan); and Industry Canada. CKC Laboratories, Inc. has received Letters of Acceptance through an MRA for the following agencies: ACA/NATA (Australia); SABS (South Africa); SWEDAC (Sweden); Radio Communications Agency (RA); HOKLAS (Hong Kong); Bakom (Swiss); BIPT (Belgium); Denmark Telestyrelsen; RvA (Netherlands); SEE (Luxembourg) SITTEL (Bolivia); and UKAS (UK). ADMINISTRATIVE INFORMATION DATE OF TEST: July 30 - August 16, 2002 DATE OF RECEIPT: July 30, 2002 PURPOSE OF TEST: To demonstrate the compliance of the HPV/GPS Mobile Radio, IP4HPV with the requirements for FCC Part 90 and Part 15 Subpart B Sections 15.107, 15.109 and 15.111 devices. The purpose of Addendum A is to revise the voltage variation data and put it with the frequency stability data. TEST METHOD: ANSI C63.4 (1992) and FCC Part 90 FREQUENCY RANGE TESTED: 450 kHz – 5.6 GHz MANUFACTURER: IP MobileNet, Inc. 16842 Von Karman Avenue, Suite 200 Irvine, CA 92606 REPRESENTATIVE: Bobby Amin, Technical Ops Manager TEST LOCATION: CKC Laboratories, Inc. 110 Olinda Place, Brea, CA 92621 5473A Clouds Rest, Mariposa, CA 95338 Page 4 of 69 Report No.: FC02-067A SUMMARY OF RESULTS As received, the IP MobileNet, Inc. HPV/GPS Mobile Radio, IP4HPV was found to be fully compliant with the following standards and specifications: United States ! FCC Part 90 and Part 15 Subpart B Sections 15.107, 15.109 and 15.111 Class B using: ! ANSI C63.4 (1992) and FCC Part 90 method CONDITIONS FOR COMPLIANCE No modifications to the EUT were necessary to comply. APPROVALS QUALITY ASSURANCE:TEST PERSONN…

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5473A Clouds Rest Road : Mariposa, CA 95338 : Phone 209-966-5420 : Fax 209-742-6133 Maximum Permissible Exposure Calculations Date of Report: Aug 28, 2002 Calculations prepared for: IP Mobile Net 11909 East Telegraph Road Santa Fe Springs, CA 90670 Calculations prepared by: Eddie Wong 110 N. Olinda Place Brea, CA 9283 Model Number: IP4HPV-GPS FCC Identification: MI7- IP MNIP4H Fundamental Operating Frequency:509-512MHz Maximum Rated Output Power:40.00 Watts Measured Output Power:34.00 Watts In accordance with 47CFR2.1093(d)(2), source based time averaging is allowed for this type of device: Source Based Time Averaging = 20LOG(ON time/TOTAL time) = 20LOG(389mS/(389+310 = 699mS) = -5.09dB Therefore the Power Output = 46.02dBm (40.00W) - 5.09dB = 40.93dBm ( 12.39W ) MPE Limit in accordance with 1.1310(b): Limits for general population/uncontrolled exposure MPE Limit for 509 MHz = 509/1500 = 0.3393 mW/c m 2 (3.339W/M 2 ) MPE Limit for 512 MHz = 512/1500 = 0.3413 mW/ cm 2 Power Output (Watts) Power Density Limit (mW/cm 2 ) Minimum Distance (Meters) 12.390.33930.295 Power Density (W/M 2 ) = (30 * P t * G) / (d 2 * Zo) P t = Power Delivered to the AntennaG = Antenna Gain d = Distance in metersZo = Impedance of Free Space The typical vehicle used by police was measured, and a separation distance of 1 meter was found to be an appropriate distance. Under normal operating conditions, the antenna will maintain a separation of 1 meter from all persons. As can be seen from the MPE results, this device passes the limits specified in 1.1310 at a distance of 0.295 Meters ( 11.61 Inches).

PHOTOGRAPH SHOWING RF POWER FC 90.210(h) PHOTOGRAPH SHO WING DIRECT CONNECT TESTING PHOTOGRAPH SHOWING RADIATED EMISSIONS FCC 90.210 PHOTOGRAPH SHOWING RADIATED EMISSIONS FCC 90.210 PHOTOGRAPH SHOWING FREQUENCY STABILITY PHOTOGRAPH SHO WING TRANSIENT FREQUENCY BEHAVIOR PHOTOGRAPH SHO WING MAINS CONDUCTED EMISSIONS Mains Conducted Emissions - Front View - RS232 PHOTOGRAPH SHO WING MAINS CONDUCTED EMISSIONS Mains Conducted Emissions - Back View - RS232 PHOTOGRAPH SHO WING MAINS CONDUCTED EMISSIONS Mains Conducted Emissions - Front View - UTP PHOTOGRAPH SHO WING MAINS CONDUCTED EMISSIONS Mains Conducted Emissions - Back View – UTP PHOTOGRAPH SHOWING RADIATED EMISSIONS FCC 90.210 Radiated Emissions - Loop Antenna PHOTOGRAPH SHOWING RADIATED EMISSIONS Radiated Emissions - Front View - RS232 PHOTOGRAPH SHOWING RADIATED EMISSIONS Radiated Emissions - Back View - RS232 PHOTOGRAPH SHOWING RADIATED EMISSIONS Radiated Emissions - Front View - UTP PHOTOGRAPH SHOWING RADIATED EMISSIONS Radiated Emissions - Back View - UTP PHOTOGRAPH SHOWING CONDUCTED EMISSIONS FCC 15.111 PHOTOGRAPH SHOWING CONDUCTED EMISSIONS FCC 15.111