RV7-SC4121802.11 BASED, SINGLE BAND FIXED WIRELESS NODE

SkyPilot SkyConnector Outdoor Installation Contents About This Guide 5 Audience and Purpose 6 How This Guide Is Organized 6 Conventions Used in This Guide 7 Chapter 1 Introduction 9 Solution Overview 10 Mesh Network 10 SkyGateway 12 SkyExtender Devices 12 SkyConnector and SkyAccess DualBand 13 Chapter 2 The SkyConnector Outdoor Installation Kit 15 Kit Contents 16 What Else You Need 16 Chapter 3 Installing a SkyConnector 19 Planning your Installation 20 Cabling the SkyConnector 21 Powering on the SkyConnector 23 Optimizing Location 26 Monitoring SkyConnector Status 28 Mounting the SkyConnector 29 Configuring the SkyConnector 31 Accessing the Command-Line Interface 32 Troubleshooting 33 Appendix A Grounding Guidelines 35 General Grounding Strategy 35 Making Connections “Gas-Tight” 36 Checking Cold-Water Pipe Integrity 37 Measuring Resistance 37 Adding Surge Protection 37 Grounding Checklist 38 Appendix B FCC Statements 39 About This Guide This guide explains how to install and set up a SkyPilot™ SkyConnector™ Outdoor to provide wireless network access to users of a SkyPilot wireless mesh network. It assumes administrator-level knowledge of IP networks and a familiarity with configuring wireless devices. Chapter Highlights • Audience and purpose • How this guide is organized • Conventions used in this guide SkyPilot SkyAccess DualBand Installation 6 Audience and Purpose This guide provides directions for installing and setting up a SkyPilot SkyConnector Outdoor device that can provide access to users of a SkyPilot wireless mesh network. This guide assumes administrator-level knowledge of IP networks and a familiarity with configuring wireless devices. How This Guide Is Organized This guide is organized as follows: • Chapter , “ 1,” provides an overview of the SkyPilot Networks solution, describes the SkyPilot devices, and then illustrates how they combine to form a mesh network. • Chapter , “2,” provides the information you need before you begin your installation. • Chapter , “ 3,” provides instructions for the physical installation of the SkyConnector Outdoor as well as background information about configuration and references to associated procedures. • Appendix , “ A,” provides direction on protecting your SkyPilot device with proper grounding and surge protection. • Appendix , “ Error! Reference source not found.,” provides the FCC radio frequency interference statements for the SkyConnector Outdoor. • Appendix , “ C” provides technical specifications for the SkyConnector Outdoor. SkyPilot SkyAccess DualBand Installation 7 Conventions Used in This Guide This section describes the text and syntax conventions used throughout this guide. Text Conventions This guide uses the following text conventions: • Italic is used to introduce new terms. • Bold is used to indicate what you click or type in a graphical user interface (for example, commands names or text being entered). In examples showing user interaction with the command-line interface, bold is used to indicate user input as opposed to command output. • A monospace font is used for code elements (variable names, data values, function names, and so forth), command lines, scripts, and source code listings. • Italic-monospace is used for replaceable elements and placeholders within code listings. Syntax Conventions This guide uses the following conventions when showing syntax: • Angle brackets, “<“ and “>”, enclose mandatory elements. You must enter these elements. For example: ping <IP-address> • Square brackets, “[“ and “]”, enclose optional elements. You can omit these elements. For example: show filter [filter-table-number] Square brackets are also used to show the current value of parameters in the output of some commands. • A vertical bar, “|”, separates choices. For example: show bridge [cache | port] SkyPilot SkyAccess DualBand Installation 9 Introduction This chapter provides an overview of the SkyPilot Networks solution, describes the SkyPilot devices, and then illustrates how they combine to form a mesh network. Chapter Highlights • Solution overview • Mesh network • SkyGateway • SkyExtender devices • SkyConnector 1 SkyPilot SkyAccess DualBand Installation 10 Solution Overview SkyPilot Networks delivers a wireless, end-to-end broadband solution that seamlessly supports high-capacity, high-coverage mesh networks. Designed for managed-access networks and service providers, the SkyPilot network takes broadband wireless the “last mile” with a cost- effective, robust infrastructure solution. Based on a high-performance architecture that deploys intelligent antenna arrays, the SkyPilot network delivers a dynamic broadband solution with significant advantages for business and home users. SkyPilot wireless devices are simple to install and easily fit into any type of wireless environment—metropolitan, business, or home. The auto-discovery and rapid provisioning features of a SkyPilot wireless mesh network can greatly reduce deployment and maintenance costs. Multiple topology options and network scalability create intriguing options for rapidly expanding a metro Wi-Fi customer base. SkyPilot devices’ multiple antenna configurations work within mixed-use environments of municipal applications and broadband Internet access, supporting public-private partnerships such as public safety services. Mesh Network The typical configuration for a SkyPilot network is a mesh topology, which uses SkyExtenders to extend range and add network flexibility. In a mesh configuration, subscribers can either connect directly to the SkyGateway or connect indirectly via SkyExtenders (see Figure ). In addition to adding range, a mesh network allows connections from locations where obstructions prevent line-of-sight access to a SkyGateway hub. Mesh networks are ideal for dense subscriber environments, for filling in coverage “holes,” and for reaching subscribers in areas where RF communication is obstructed by hills, trees, buildings, or other obstacles. SkyPilo…

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System Architecture and Protocol Guide – 9-05 1 © 2005 SkyPilot Networks, Inc. Technical Overview System Architecture and Protocol Guide System Architecture and Protocol Guide – 9-05 2 © 2005 SkyPilot Networks, Inc. Table of Contents Introduction .................................................................................................................................... 3 System Components ................................................................................................................. 3 Network Topologies....................................................................................................................... 4 Point-to-Point/Multipoint ............................................................................................................ 4 Mesh .......................................................................................................................................... 4 RF Management ............................................................................................................................. 7 Eight-way Antenna Array........................................................................................................... 7 Spectral Management ............................................................................................................... 8 Link Management ...................................................................................................................... 9 Per-link Data Rates for Different Modulation Types .................................................................. 9 SkyPilot Synchronous Mesh Protocol...................................................................................... 10 Quality of Service ......................................................................................................................... 12 Security Provisions...................................................................................................................... 14 Traffic Filtering ......................................................................................................................... 14 VLANs...................................................................................................................................... 15 Encryption and Authentication................................................................................................. 15 Network Management .................................................................................................................. 16 System Architecture and Protocol Guide – 9-05 3 © 2005 SkyPilot Networks, Inc. Introduction The SkyPilot Carrier-Class Broadband Wireless System supports an innovative architecture offering point-to-point, point-to- multipoint and mesh topologies. Automatic network discovery and connectivity allows an operator to quickly build a network offering high levels of coverage and redundancy. The system implements a sophisticated and flexible Layer 2 network. Rate control and packet prioritization enables multiple service offerings, including high-quality voice over IP (VoIP) support. Packet filtering combined with wireless link encryption provides very high levels of security. Full authentication and management of subscriber nodes is supported, with each network element providing an SNMP Agent and a Command Line Interface (CLI). Software images are upgraded over the air. This document provides a description of the SkyPilot system architecture and protocols. The hardware components are described along with details of network topologies and routing, spectral and link management, network-wide synchronization, quality of service, security provisions, and network management. System Components The SkyPilot Carrier-Class Broadband Wireless System has four hardware components that together support a highly flexible wireless network architecture: • SkyGateway The SkyGateway provides an interface between the wireless network and the Internet or other Local/Wide Area Network (LAN/WAN). The SkyGateway links directly to SkyExtenders and/or SkyConnectors as customer premises equipment (CPE) in point-to-point/multipoint configurations, or indirectly via multiple SkyExtender hops in a full mesh network topology. The SkyGateway has a compact, lightweight, fully integrated mechanical design with a 10/100Base-T interface and an integral GPS receiver to provide a highly accurate system timing source. • SkyExtender The SkyExtender enables a network operator to expand coverage and increase system capacity. The SkyExtender can link directly to a SkyGateway and/or one or more SkyExtenders and/or SkyConnectors. The SkyExtender hardware is identical to that of the SkyGateway, with the software image differentiating functionality. The 10/100Base-T Ethernet interface may be used to provide a subscriber interface, allowing the SkyExtender to perform double-duty as CPE that extends the network’s reach from the SkyGateway(s). • SkyExtender DualBand The SkyExtender DualBand has the same backhaul features as a SkyExtender, and adds an integral Wi-Fi access point to afford service providers with greater flexibility when deploying wireless access solutions in HotZones or HotRegions. As the name implies, the SkyExtender DualBand has separate radios for backhaul (at 5 GHz) and access (industry-standard IEEE 802.11b/g at 2.4 GHz). The separation of access from backhaul enables the use of multiple non-overlapping channels when deploying a “honeycomb” of Wi-Fi cells, thus enhancing throughput, subscriber density, network capacity and scalability. • SkyConnector The SkyConnector comes in both outdoor and indoor variants, and provides an interface between a subscriber and the wireless SkyPilot network. The link may be indirect via a SkyExtender or direct to a SkyGateway. The subscriber interface is standard 10/100Base-T Ethernet. The SkyConnector is fully integrated and houses a single antenna with a 28° horizontal cov…

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2055 Laurelwood Road FL 2 • Santa Clara, CA 95054 • Tel 408.764.8000 • Fax 408.764.8001 • www.skypilot.com Product Label drawing Product model Number: ___SP-4300 ____ Product Description: SkyConnector –single band 5.26 to 5.32GHz SPN - Drawing Number: 501-00039-01 Template= 676-00016-01 Approvals Engineering: Manufacturing: DATE: March 12, 2008 DATE:

SkyPilot Networks Inc. SkyConnector Patch Antenna SPN – 500-00248-01 - 5.15 to 5.35 GHz Antenna Patterns 14 April 2005 SkyPilot Networks Inc. Confidential 4/14/2005 Page 1 of 4 1.0 SkyConnector Azimuth Pattern The SkyConnector unit employs a panel antenna structure. The antenna azimuth beam width is approximately 30 degrees with the mean gain across the beam width at 16.5 dBi. The data and plot of antenna pattern in the azimuth direction is given in Table 1 and Figure 1 respectively. Azimuth Gain Azimuth Gain AzimuthGain AzimuthGain [Degs] [dBi] [Degs] [dBi] [Degs] [dBi] [Degs] [dBi] 0 16.5 90 -7.2 180 -26.2 270 -5.9 5 16.2 95 -7.9 185 -25.9 275 -5 10 15.8 100 -9 190 -30.7 280 -4.6 15 14.4 105 -9.4 195 -41.2 285 -5.2 20 11.6 110 -11.4 200 -27.5 290 -7.2 25 9.1 115 -13 205 -23.6 295 -8.7 30 5 120 -15.8 210 -18.6 300 -13.7 35 -2.5 125 -18.8 215 -15.5 305 -16.4 40 -11.2 130 -25.2 220 -16.8 310 -10.8 45 -10.9 135 -21.1 225 -18.5 315 -9.4 50 -10.7 140 -16.6 230 -26.1 320 -12.5 55 -17.1 145 -18.2 235 -21.7 325 -6.5 60 -30.1 150 -18.6 240 -13.5 330 1.6 65 -14.2 155 -21.8 245 -12.5 335 5.9 70 -9.7 160 -25.5 250 -12.2 340 9.9 75 -7.7 165 -24.3 255 -11.6 345 13 80 -7.2 170 -21.5 260 -9 350 15.3 85 -7.2 175 -27.3 265 -6.8 355 16 Table 1.- Skyconnector Azimuth Data 14 April 2005 SkyPilot Networks Inc. Confidential 4/14/2005 Page 2 of 4 Single Sector -50 -40 -30 -20 -10 0 10 20 Single Sector Figure 1.- Skyconnector Azimuth Pattern 14 April 2005 SkyPilot Networks Inc. Confidential 4/14/2005 Page 3 of 4 1.4 SkyConnector Elevation Pattern The elevation beam width of the SkyConnector antenna is approximately 8 degrees total. The data and plot of antenna pattern in the azimuth direction is given in Table 2 and Figure 2 respectively. Note that in Figure 2, the horizon or 0 degrees is in the vertical direction. Angle, deg Gain, dBi Angle, deg Gain, dBi Angle, deg Gain, dBi Angle, deg Gain, dBi 0 16.5 90 -16.3 180 -26.2 270 -16.4 5 13.2 95 -16.9 185 -25.8 275 -15.8 10 1 100 -17.5 190 -25.3 280 -15.2 15 2.8 105 -18 195 -24.9 285 -14.7 20 -2.3 110 -18.6 200 -24.4 290 -14.1 25 -4.9 115 -19.2 205 -23.9 295 -13.5 30 -5.6 120 -19.7 210 -23.4 300 -13 35 -19.7 125 -20.3 215 -22.8 305 -12.4 40 -8.7 130 -20.9 220 -22.1 310 -11.8 45 -11.2 135 -21.4 225 -21.5 315 -11.3 50 -11.8 140 -22.1 230 -20.9 320 -8.4 55 -12.4 145 -22.7 235 -20.3 325 -19 60 -12.9 150 -23.3 240 -19.8 330 -6.1 65 -13.5 155 -23.9 245 -19.2 335 -4.5 70 -14.1 160 -24.4 250 -18.6 340 -2.8 75 -14.6 165 -24.9 255 -18.1 345 3 80 -15.2 170 -25.3 260 -17.5 350 0.9 85 -15.8 175 -25.8 265 -16.9 355 12.1 Table 2.- Skyconnector Elevation Data 14 April 2005 SkyPilot Networks Inc. Confidential 4/14/2005 Page 4 of 4 elevation pattern -30 -25 -20 -15 -10 -5 0 5 10 15 20 elevation data Figure 2.- Skyconnector Elevation Pattern 14 April 2005 SkyPilot Networks Inc. Confidential

SkyPilot SkyAccess/SkyConnector U-NII Band Transmit Power Control (TPC) Contents CONTENTS.................................................................................................................................... 3 OVERVIEW................................................................................................................................ 4 FUNCTIONALITY........................................................................................................................... 4 SkyPilot SkyAccess/SkyConnector TPC 4 Overview SkyAccess DualBand and SkyConnector units (hereafter referred to generically as SkyConnectors) operating in the U-NII bands of 5.25-5.35 GHz and 5.47-5.725 GHz employ a Transmit Power Control (TPC) mechanism which reduces the EIRP below the 30 dBm mean value by 6 dB to comply with the FCC’s part 15 requirements. This document provides a description of the method and algorithms utilized to satisfy the TPC requirements. Functionality The SkyPilot system implements several separate functions that provide the TPC functionality regulators have specified. SkyPilot’s system implements four (4) separate mechanisms that match the intent of TPC. 1. Use of directional antennas: with directional antennas, each a narrow 45° beam, the SkyPilot system efficiently utilizes the spectrum and helps avoid interference. Since the SkyPilot system does not meaningless “spray” the spectrum in all 360°, the spectrum can be reused by other unlicensed users. 2. Antenna switching: the directional antennas on the SkyPilot system are not used all the time. Instead, these antennas are used periodically through the use of an antenna switching system. The SkyPilot system transmits packets only on one specific 45° at a time and then switches to transmit on another 45° sector in the next time frame. By switching directional antennas, the SkyPilot system furthers the ability to reuse the unlicensed frequency. 1 SkyPilot SkyAccess/SkyConnector TPC 5 3. Configurable output power control: the SkyPilot system allows administrators to select amongst several different power levels. This gives control to the operators in the unlicensed spectrum to be “good neighbors” when other users are operating in the same spectrum. 4. Automatic modulation control: the SkyPilot system operates under an automatic modulation rate control (from 6 to 54 Mbps) algorithm that automatically selects the highest, most reliable rate possible on continuous basis. This process ensures the optimal transmission type for all conditions and minimizes the time to transmit a given data packet while also ensuring that the minimum the power level is utilized. a. Link Optimization: SkyPilot’s link optimization algorithm initially tests all mod rates (6 to 54 Mbps) and determines which rate satisfies our link criteria based upon received signal power levels and packet error rates. The highest modulation rates are reduced by 6 dB to ensure that the shortest transmit times and minimum power levels have been attempted before moving to more robust modulation rates and higher power levels in more challenging environments. b. Dynamic Modulation Control: SkyPilot’s Dynamic Modulation Control continuously monitors link statistics to ensure maximum link efficiency from both a modulation rate and power level. If the link can support a higher order modulation rate and lower transmit power level, SkyPilot’s algorithm will increase the modulation rate so as to increase channel efficiency. Hysterisis is employed to prevent the system from switching back and forth between modulation rates too quickly and thereby increasing system instability. The combination of these four mechanisms demonstrates the intent of SkyPilot Networks to meet the intent of Transmit Power Control regulations.

REPORT NO: 07U11219-4 DATE: FEBRUARY 08, 2008 FCC ID: RV7-SC4121 IC: 5550A-SC4121 Page 84 of 93 COMPLIANCE CERTIFICATION SERVICES FORM NO: CCSUP4031B 47173 BENICIA STREET, FREMONT, CA 94538, USA TEL: (510) 771-1000 FAX: (510) 661-0888 This report shall not be reproduced except in full, without the written approval of CCS. 10. MAXIMUM PERMISSIBLE EXPOSURE FCC RULES §1.1310 The criteria listed in Table 1 shall be used to evaluate the environmental impact of human exposure to radio-frequency (RF) radiation as specified in §1.1307(b), except in the case of portable devices which shall be evaluated according to the provisions of §2.1093 of this chapter. REPORT NO: 07U11219-4 DATE: FEBRUARY 08, 2008 FCC ID: RV7-SC4121 IC: 5550A-SC4121 Page 85 of 93 COMPLIANCE CERTIFICATION SERVICES FORM NO: CCSUP4031B 47173 BENICIA STREET, FREMONT, CA 94538, USA TEL: (510) 771-1000 FAX: (510) 661-0888 This report shall not be reproduced except in full, without the written approval of CCS. IC RULES IC Safety Code 6, Section 2.2.1 (a) A person other than an RF and microwave exposed worker shall not be exposed to electromagnetic radiation in a frequency band listed in Column 1 of Table 5, if the field strength exceeds the value given in Column 2 or 3 of Table 5, when averaged spatially and over time, or if the power density exceeds the value given in Column 4 of Table 5, when averaged spatially and over time. REPORT NO: 07U11219-4 DATE: FEBRUARY 08, 2008 FCC ID: RV7-SC4121 IC: 5550A-SC4121 Page 86 of 93 COMPLIANCE CERTIFICATION SERVICES FORM NO: CCSUP4031B 47173 BENICIA STREET, FREMONT, CA 94538, USA TEL: (510) 771-1000 FAX: (510) 661-0888 This report shall not be reproduced except in full, without the written approval of CCS. CALCULATIONS Given E = √ (30 * P * G) / d and S = E ^ 2 / 3770 where E = Field Strength in Volts/meter P = Power in Watts G = Numeric antenna gain d = Distance in meters S = Power Density in milliwatts/square centimeter Combining equations, rearranging the terms to express the distance as a function of the remaining variables, changing to units of Power to mW and Distance to cm, and substituting the logarithmic form of power and gain yields: d = 0.282 * 10 ^ ((P + G) / 20) / √ S where d = MPE distance in cm P = Power in dBm G = Antenna Gain in dBi S = Power Density Limit in mW/cm^2 Rearranging terms to calculate the power density at a specific distance yields S = 0.0795 * 10 ^ ((P + G) / 10) / (d^2) The power density in units of mW/cm^2 is converted to units of W/m^2 by multiplying by a factor of 10. REPORT NO: 07U11219-4 DATE: FEBRUARY 08, 2008 FCC ID: RV7-SC4121 IC: 5550A-SC4121 Page 87 of 93 COMPLIANCE CERTIFICATION SERVICES FORM NO: CCSUP4031B 47173 BENICIA STREET, FREMONT, CA 94538, USA TEL: (510) 771-1000 FAX: (510) 661-0888 This report shall not be reproduced except in full, without the written approval of CCS. LIMITS From FCC §1.1310 Table 1 (B), the maximum value of S = 1.0 mW/cm^2 From IC Safety Code 6, Section 2.2 Table 5 Column 4, S = 10 W/m^2 RESULTS NOTE: For mobile or fixed location transmitters, the minimum separation distance is 20 cm, even if calculations indicate that the MPE distance would be less. ModeBandMPEOutputAntennaFCC PowerIC Power DistancePowerGainDensityDensity (cm)(dBm)(dBi)(mW/cm^2)(W/m^2) WLAN5 GHz20.011.3616.500.121.21

FCC CFR47 PART 15 SUBPART E INDUSTRY CANADA RSS-210 ISSUE 7 CERTIFICATION TEST REPORT FOR 802.11 BASED, SINGLE BAND FIXED WIRELESS NODE MODEL NUMBER: SP-4300 FCC ID: RV7-SC4121 IC: 5550A-SC4121 REPORT NUMBER: 07U11219-4 ISSUE DATE: FEBRUARY 08, 2008 Prepared for SKYPILOT NETWORKS INC. 2055 LAURELWOOD ROAD 2 nd FLOOR SANTA CLARA, CA 95054-2747 Prepared by COMPLIANCE CERTIFICATION SERVICES 47173 BENICIA STREET FREMONT, CA 94538, U.S.A. TEL: (510) 771-1000 FAX: (510) 661-0888 REPORT NO: 07U11219-4 DATE: FEBRUARY 08, 2008 FCC ID: RV7-SC4121 IC: 5550A-SC4121 Page 2 of 93 COMPLIANCE CERTIFICATION SERVICES FORM NO: CCSUP4031B 47173 BENICIA STREET, FREMONT, CA 94538, USA TEL: (510) 771-1000 FAX: (510) 661-0888 This report shall not be reproduced except in full, without the written approval of CCS. Revision History Rev. Issue Date Revisions Revised By -- 02/08/08 Initial Issue T. Chan REPORT NO: 07U11219-4 DATE: FEBRUARY 08, 2008 FCC ID: RV7-SC4121 IC: 5550A-SC4121 Page 3 of 93 COMPLIANCE CERTIFICATION SERVICES FORM NO: CCSUP4031B 47173 BENICIA STREET, FREMONT, CA 94538, USA TEL: (510) 771-1000 FAX: (510) 661-0888 This report shall not be reproduced except in full, without the written approval of CCS. TABLE OF CONTENTS 1. ATTESTATION OF TEST RESULTS.................................................................................... 5 2. TEST METHODOLOGY ........................................................................................................ 6 3. FACILITIES AND ACCREDITATION.................................................................................... 6 4. CALIBRATION AND UNCERTAINTY .................................................................................. 6 4.1. MEASURING INSTRUMENT CALIBRATION ............................................................... 6 4.2. MEASUREMENT UNCERTAINTY................................................................................ 6 5. EQUIPMENT UNDER TEST ................................................................................................. 7 5.1. DESCRIPTION OF EUT................................................................................................ 7 5.2. MAXIMUM OUTPUT POWER....................................................................................... 7 5.3. DESCRIPTION OF AVAILABLE ANTENNAS............................................................... 7 5.4. SOFTWARE AND FIRMWARE..................................................................................... 7 5.5. WORST-CASE CONFIGURATION AND MODE .......................................................... 7 5.6. DESCRIPTION OF TEST SETUP................................................................................. 8 6. TEST AND MEASUREMENT EQUIPMENT ....................................................................... 10 6.1. 802.11a MODE IN THE 5.2 GHz BAND...................................................................... 11 6.1.1. 26 dB and 99% BANDWIDTH ............................................................................. 11 6.1.2. OUTPUT POWER ............................................................................................... 15 6.1.3. AVERAGE POWER ............................................................................................ 20 6.1.4. PEAK POWER SPECTRAL DENSITY................................................................ 21 6.1.5. CONDUCTED SPURIOUS EMISSIONS............................................................. 26 7. RADIATED TEST RESULTS .............................................................................................. 33 7.1. LIMITS AND PROCEDURE ........................................................................................ 33 7.2. RADIATED EMISSIONS ............................................................................................. 35 7.2.1. TRANSMITTER RADIATED SPURIOUS EMISSIONS ....................................... 35 7.2.2. TRANSMITTER ABOVE 1 GHZ FOR 5250 TO 5350 MHz BAND ...................... 38 7.2.3. RECEIVER ABOVE 1 GHz FOR 20 MHz BANDWIDTH IN THE 5 GHz BAND .. 57 7.2.4. WORST-CASE RADIATED EMISSIONS BELOW 1 GHz................................... 58 8. DYNAMIC FREQUENCY SELECTION ............................................................................... 60 8.1. OVERVIEW ................................................................................................................. 60 8.1.1. LIMITS ................................................................................................................. 60 REPORT NO: 07U11219-4 DATE: FEBRUARY 08, 2008 FCC ID: RV7-SC4121 IC: 5550A-SC4121 Page 4 of 93 COMPLIANCE CERTIFICATION SERVICES FORM NO: CCSUP4031B 47173 BENICIA STREET, FREMONT, CA 94538, USA TEL: (510) 771-1000 FAX: (510) 661-0888 This report shall not be reproduced except in full, without the written approval of CCS. 8.1.2. TEST AND MEASUREMENT SYSTEM .............................................................. 63 8.1.3. DESCRIPTION OF EUT...................................................................................... 67 8.2. 5250-5350 MHz BAND................................................................................................ 69 8.2.1. TEST CHANNEL AND METHOD ........................................................................ 69 8.2.2. PLOTS OF RADAR WAVEFORM, AND WLAN TRAFFIC.................................. 69 8.2.3. SLAVE DEVICE CONFIGURATION - CHANNEL MOVE TIME AND CHANNEL CLOSING TRANSMISSION TIME....................................................................................... 71 8.2.4. NON-OCCUPANCY PERIOD.............................................................................. 78 9. AC POWER LINE CONDUCTED EMISSIONS ................................................................... 80 10. MAXIMUM PERMISSIBLE EXPOSURE ........................................................................ 84 11. SETUP PHOTOS ...............................................................…

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REPORT NO: 07U11219-4 DATE: FEBRUARY 08, 2008 FCC ID: RV7-SC4121 IC: 5550A-SC4121 Page 88 of 93 COMPLIANCE CERTIFICATION SERVICES FORM NO: CCSUP4031B 47173 BENICIA STREET, FREMONT, CA 94538, USA TEL: (510) 771-1000 FAX: (510) 661-0888 This report shall not be reproduced except in full, without the written approval of CCS. 11. SETUP PHOTOS ANTENNA PORT CONDUCTED RF MEASUREMENT SETUP ANTENNA PORT CONDUCTED PHOTO REPORT NO: 07U11219-4 DATE: FEBRUARY 08, 2008 FCC ID: RV7-SC4121 IC: 5550A-SC4121 Page 89 of 93 COMPLIANCE CERTIFICATION SERVICES FORM NO: CCSUP4031B 47173 BENICIA STREET, FREMONT, CA 94538, USA TEL: (510) 771-1000 FAX: (510) 661-0888 This report shall not be reproduced except in full, without the written approval of CCS. RADIATED RF MEASUREMENT SETUP RADIATED FRONT PHOTO REPORT NO: 07U11219-4 DATE: FEBRUARY 08, 2008 FCC ID: RV7-SC4121 IC: 5550A-SC4121 Page 90 of 93 COMPLIANCE CERTIFICATION SERVICES FORM NO: CCSUP4031B 47173 BENICIA STREET, FREMONT, CA 94538, USA TEL: (510) 771-1000 FAX: (510) 661-0888 This report shall not be reproduced except in full, without the written approval of CCS. RADIATED BACK PHOTO REPORT NO: 07U11219-4 DATE: FEBRUARY 08, 2008 FCC ID: RV7-SC4121 IC: 5550A-SC4121 Page 91 of 93 COMPLIANCE CERTIFICATION SERVICES FORM NO: CCSUP4031B 47173 BENICIA STREET, FREMONT, CA 94538, USA TEL: (510) 771-1000 FAX: (510) 661-0888 This report shall not be reproduced except in full, without the written approval of CCS. DFS MEASUREMENT SETUP DFS PHOTO REPORT NO: 07U11219-4 DATE: FEBRUARY 08, 2008 FCC ID: RV7-SC4121 IC: 5550A-SC4121 Page 92 of 93 COMPLIANCE CERTIFICATION SERVICES FORM NO: CCSUP4031B 47173 BENICIA STREET, FREMONT, CA 94538, USA TEL: (510)…

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