RD60PW1C0010GSM Software Base Station

Vanu, Inc. One Cambridge Center, Cambridge MA 02142 t 617.864.1711 www.vanu.com Copyright © 2007 Vanu, Inc. Vanu Anywave® Base Station Subsystem Operator Guide Vanu, Inc. One Cambridge Center, Cambridge MA 02142 t 617.864.1711 www.vanu.com Copyright © 2007 Vanu, Inc. Copyright © 2007 Vanu, Inc. All rights reserved. The product described in this manual is covered by US patents US 6,584,146 B2, US 6,654,428 B1, US 6,876,864, US 6,889,354, US 7,139,967, and pending patents in the United States and other countries. Vanu, Inc., the VANU logo, Anywave, and “Where Software Meets the Spectrum” are trademarks or registered trademarks of Vanu, Inc. in the United States and other countries. The product described in this manual includes copyrighted software. This software is commercial software. “Brandywine,” “Intel,” “Powerwave,” “Protium,” and any other trademarked terms used in this manual are trademarks or registered trademarks of their respective owners. The terms of use of this software are set forth in detail in a related software license agreement. Except as otherwise set forth in such software license agreement, none of such copyrighted material may be modified, copied, distributed, performed, displayed, or reverse engineered. Anywave BSS Operator Guide i Vanu Anywave Base Station Subsystem Operator Guide Contents CHAPTER 1. Introducing the Vanu Anywave BSS............................................................ 2 Introduction ............................................................................................................................................................ 2 Manual Scope and Objectives ............................................................................................................................... 2 What makes Vanu Anywave BSS different? ......................................................................................................... 3 System Operator Role ........................................................................................................................................... 5 CHAPTER 2. BTS Components & Connections.............................................................. 6 Overview ................................................................................................................................................................ 6 BTS Server ............................................................................................................................................................ 7 BTS Server, Front View ..................................................................................................................................... 7 BTS Server, Front Panel Control Switches and LEDs ...................................................................................... 8 BTS Server, Back View ..................................................................................................................................... 9 RF Front End ....................................................................................................................................................... 10 Protium RF Front End Unit .............................................................................................................................. 10 Overview of Protium RF Front End Connections ............................................................................................ 11 Protium Duplexer Connections ........................................................................................................................ 11 Protium Up/Down Converter Connections....................................................................................................... 12 Protium Front-End LEDs.................................................................................................................................. 14 Power Shelf ......................................................................................................................................................... 15 Power Amplifier.................................................................................................................................................... 16 Power Amplifier, Front View ............................................................................................................................ 16 Power Amplifier, Back View............................................................................................................................. 17 Power Amplifier, Back View............................................................................................................................. 18 GPS Timing Source ............................................................................................................................................. 19 GPS 4 Timing Source Connections................................................................................................................. 19 GPS 4 Timing Source Indicator LEDs ............................................................................................................. 20 CHAPTER 3. Base Station Operation............................................................................ 21 Hardware ............................................................................................................................................................. 21 Appendix A: Acronym Glossary........................................................................................... 22 Index ....................................................................................................................................... 23 Anywave BSS Operator Guide ii Figures Figure 1: Hardware Architecture............................................................................................................................ 4 Figure 2: BTS Server Front View..............................................................…

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External photos - FCC ID: RD60PW1C0010 Figure 1: connections Figure 2: side-rear 1 External photos - FCC ID: RD60PW1C0010 Figure 3: side-front 2

FCC Label Location - RD60PW1C0010 Figure 1: Label location Figure 2: Label closeup 1

Internal Photos RD60PW1P0010 Figure 1: RF board back 1 Internal Photos RD60PW1P0010 Figure 2: RF front 2 Internal Photos RD60PW1P0010 Figure 3: daughercard back 3 Internal Photos RD60PW1P0010 Figure 4: daughercard front 4 Internal Photos RD60PW1P0010 Figure 5: main board back 5 Internal Photos RD60PW1P0010 Figure 6: main board front 6

Occupied Bandwidth of Test Patterns Results:Pass Test:Occupied Bandwidth of Bit Patterns Test Standard:FCC 2.1049 Test Date:Feb 5 2007 Test Engineer:Byron Kubert Test Details: TestOccupied BandwidthPassed 2second-drop-outs.data178.69Pass cch-channel-seven-dummy.data236.92Pass oneburst.data38.15Pass page-drop-outs.data148.58Pass randomburst.data254.99Pass squarewave.data36.14Pass tch-probe-eight-channels.data224.88Pass tch-probe-four-channels.data234.91Pass tch-probe-one-channel.data234.91Pass zero-end-tch-probe-eight-channels.data234.9Pass zeroburst.data38.14Pass The following bit patterns were sent to the device, and passed the occupied bandwidth test. Test Patterns : 2 second drop out random data interrupted with 2 second periods of no data. This simulates a temporary cable disconnect. cch-channel-seven-dummy.data valid control channel data in timeslot 0 and seven dummy bursts in the other seven timeslots. oneburst.data 156 ones. page drop out blocks of 512 zeros interspersed with the data every 512 samples randomburst.data about 125000 random bits. squarewave.data i156 bits in a 0 0 1 1 0 0 1 1 pattern. This pattern will push the GSMK modulator from +pi/2 to -pi/2, its maximum values. tch-probe-eight-channels.data valid framed traffic channel data in timeslots 0-7. tch-probe-four-channels.data valid framed traffic channel data in timeslot 0-3 and four dummy bursts in the other four timeslots. tch-probe-one-channel.data valid framed traffic channel data in timeslot 0 and seven dummy bursts in the other timeslots. zero-end-tch-probe-eight-channels.data valid framed traffic channel data in timeslots 0-7 for the first half of the file, and then an equal number of zeros in the second half of the file. zeroburst.data 56 zeros. 1 Occupied Bandwidth of Test Patterns Figure 1: 2second-drop-outs.png 2 Occupied Bandwidth of Test Patterns Figure 2: cch-channel-seven-dummy.png 3 Occupied Bandwidth of Test Patterns Figure 3: oneburst.png 4 Occupied Bandwidth of Test Patterns Figure 4: page-drop-outs.png 5 Occupied Bandwidth of Test Patterns Figure 5: randomburst.png 6 Occupied Bandwidth of Test Patterns Figure 6: squarewave.png 7 Occupied Bandwidth of Test Patterns Figure 7: tch-probe-eight-channels.png 8 Occupied Bandwidth of Test Patterns Figure 8: tch-probe-four-channels.png 9 Occupied Bandwidth of Test Patterns Figure 9: tch-probe-one-channel.png 10 Occupied Bandwidth of Test Patterns Figure 10: zero-end-tch-probe-eight-channels.png 11 Occupied Bandwidth of Test Patterns Figure 11: zeroburst.png 12

Report Number 3112039BOX-001 Page 2 of 86 1.0 Job Description 1.1 Client Information This EUT has been tested at the request of: Company: Vanu, Inc. One Cambridge Center Cambridge, MA 02142 Contact: Byron Kubert Telephone: Fax: Email: 617-864-1711 xt.274 N/A [email protected] 1.2 Equipment Under Test Equipment Type: GSM Basestation Model Number(s): GSM Basestation Serial number(s): 1074 Manufacturer: Vanu, Inc. EUT receive date: 01/02/2007 EUT received condition: Prototype in Good Condition Test start date: 01/02/2007 Test end date: 01/09/2007 1.3 Test Plan Reference: Tested according to the standards listed, IC SRSP-503, RSS-Gen Issue 1 September 2005, and ANSI C63.4:2003. 1.4 Test Configuration 1.4.1 Block Diagram Turntable Remote Remote AC Location Mains DL 380 Server GSM Basestation 50-Ohm load AC Mains Ethernet, Serial Cables to DL 380 Server Coaxial Cable to Brandywine GPS8 Laptop Brandywin e GPS8 Ethernet Coaxial Cable to Basestation Ethernet and Serial Cable to Basestation Report Number 3112039BOX-001 Page 3 of 86 1.4.2. Cables: Cable Shielding Connector Length (m) Qty. EUT AC Mains None Plastic/IEEE 2 1 Serial Cable Braid Metal/DB9 2 1 Ethernet Cable None Plastic RJ-45 10 1 Coaxial Cable Braid Metal/BNC 10 1 1.4.3. Support Equipment: Name: Model No.: Serial No.: Brandywine Communications GPS8 1611 Name: Model No.: Serial No.: Dell Monitor 2001fp cn0c0646-4663353r0t6L Name: Model No.: Serial No.: HP Computer XW3100 usv33805t5 Name: Model No.: Serial No.: Dell Keyboard RT7D20 CN-D4N4S437172-3c2-1778 Name: Model No.: Serial No.: Dell Mouse 0w1668 LZE35117935 1.5 Mode(s) of Operation: The EUT was activated from 120V/60Hz power and transmitted GSM carriers on low, mid, and high channels across the EUT passband. Bursts of random data were fed to the modulator. Three-tone intermodulations were also used during spurious emissions testing. EUT passband: 869 – 894 MHz Channels Tested: Channel A: 869.2 MHz Channel B: 882.2 MHz Channel C: 893.8 MHz Report Number 3112039BOX-001 Page 4 of 86 2.0 Test Summary TEST STANDARD RESULTS FCC Part 22 Subpart H IC RSS-132 Issue 2 September 2005 SUB-TEST TEST PARAMETER COMMENT Effective Radiated Power FCC 2.1046, 22.913 Effective Radiated Power must not exceed 500 Watts (57 dBm) Pass Occupied Bandwidth (26 dB Bandwidth) FCC 2.1049 Emission must stay within assigned band of operation. Pass Spurious Conducted Emissions FCC 2.1051, FCC Part 22 Subpart H 22.917, IC RSS-132 Section 4.5 Emissions outside the passband must not exceed –13 dBm when measured in a 100 kHz measurement bandwidth, except in the 1 MHz block edges above and below the band of operation, where compliance is based on a measurement bandwidth equal to 1% of the emission bandwidth. Pass Spurious Radiated Emissions FCC 2.1053, FCC Part 22 Subpart H 22.917, IC RSS-132 Section 4.5, 4.6, FCC Part 15 Subpart B 15.109, IC RSS-Gen Sections 4.8, 6.0 Emissions outside the passband must not exceed –13 dBm when measured in a 100 kHz measurement bandwidth, except in the 1 MHz block edges above and below the band of operation, where compliance is based on a measurement bandwidth equal to 1% of the emission bandwidth. Pass Frequency Stability FCC 2.1055, FCC Part 22 Subpart H 22.355, IC RSS-132 Section 4.3 The fundamental frequency must not deviate by more than ±1.5 PPM over temperature and voltage. Pass REVISION SUMMARY – The following changes have been made to this Report: Date Project No. Project Handler Page(s) Item Description of Change Report Number 3112039BOX-001 Page 5 of 86 3.0 Sample Calculations The field strength is calculated by adding the Antenna Factor and Cable Factor, and subtracting the Amplifier Gain (if any) from the measured reading. The basic equation with a sample calculation is as follows: FS = RA + AF + CF - AG Where FS = Field Strength in dBμV/m RA = Receiver Amplitude (including preamplifier) in dBμV CF = Cable Attenuation Factor in dB AF = Antenna Factor in dB AG = Amplifier Gain in dB In the following table(s), the reading shown on the data table reflects the preamplifier gain. An example for the calculations in the following table is as follows. Assume a receiver reading of 52.0 dBμV is obtained. The antenna factor of 7.4 dB and cable factor of 1.6 dB is added. The amplifier gain of 29 dB is subtracted, giving a field strength of 32 dBμV/m. This value in dBμV/m was converted to its corresponding level in μV/m. RA = 52.0 dBμV AF = 7.4 dB/m CF = 1.6 dB AG = 29.0 dB FS = 32 dBμV/m Level in μV/m = [10( 32 dBμV/m)/20] = 39.8 μV/m The following is how net line-conducted readings were determined: NF = RF + LF + CF + AF Where NF = Net Reading in dBμV RF = Reading from receiver in dBμV LF = LISN Correction Factor in dB CF = Cable Correction Factor in dB AF = Attenuator Loss Factor in dB To convert from dBμV to μV or mV the following was used: UF = 10 (NF / 20) where UF = Net Reading in μV Example: NF = RF + LF + CF + AF = 28.5 + 0.2 + 0.4 + 20.0 = 49.1 dBμV UF = 10 (48.1 dBμV / 20) = 254 μV/m Report Number 3112039BOX-001 Page 6 of 86 3.1 Measurement Uncertainty Compliance of the product is based on the measured value. However, the measurement uncertainty is included for informational purposes. The expanded uncertainty (k = 2) for radiated emissions from 30 to 1000 MHz has been determined to be: ±3.5 dB at 10m, ±3.8 dB at 3m The expanded uncertainty (k = 2) for mains conducted emissions from 150 kHz to 30 MHz has been determined to be: ±2.6 dB The expanded uncertainty (k = 2) for telecom port conducted emissions from 150 kHz to 30 MHz has been determined to be: ±3.2 for ISN and voltage probe measurements ±3.1 for current probe measurements Report Number 3112039BOX-001 Page 7 of 86 3.2 Site Description Test Site(s): 2 Our OATS are 3m and 10m sheltered emissions measurement ranges located in a light commercial environment in Boxborough, Massachusetts. They meet the technical requirements of ANSI C63.4-2003 and CISPR 22:1993/EN 55022:1994 for radiated and conducted emission measurements. T…

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Report Number 3112039BOX-001 Page 81 of 86 Setup Photos Report Number 3112039BOX-001 Page 82 of 86 Report Number 3112039BOX-001 Page 83 of 86 Report Number 3112039BOX-001 Page 84 of 86