F8I-DIS190ABDigivance 1900 MHz Indoor Coverage Solution

ADCP-75-132 • Issue 2C • August 2006 Page 23 © 2006, ADC Telecommunications, Inc. 3.6 System Expansion Planning The DEU enables 6-way expansion of any optical port. This makes it possible to add more DRU’s without having to install additional DHU’s. Each DHU is equipped with six optical ports. If more than six DRU’s are required by the application, a DEU may be connected to one of the optical ports at the DHU which expands that port to six ports. If still more optical ports are required, then a second DEU may be connected to the DHU or a second DEU may be connected to the first DEU. The ability to cascade DEU’s in parallel or in series provides unlimited flexibility. It is physically possible to connect an unlimited number DRU’s to the DHU through the installation of DEU’s. The total number of DRU’s that can be served is limited by the cumulative noise effect caused by antenna combining. This number cannot be determined until the radius distance of coverage required at the DRU antenna is determined and the path loss attributed to the structure are known. The system design requires that the carrier to noise differential be greater than the customer’s desired signal to noise ratio. If it is likely that the system will be expanded in the future, locate the DHU in such a way that it can be used as a hub for an expanded system. It should be noted that a DEU can be used as an optical regenerator. A DRU may sometimes need to be located at a point that is beyond the distance limitation imposed by the optical fiber. The solution is to install a DEU at the maximum optical fiber length from the DHU. This provides an additional 500 m, 750 m, or 10 km (depending on the fiber type) of optical fiber length beyond the DEU for connecting the DRU. 3.7 DRU Antenna Options Various antennas, shown in Figure 12, are available from ADC for use with the DRU. All antennas include a 6-foot (1.8 m) long 50-ohm coaxial cable (equipped with SMA male connector) for connection to the DRU. The DRU is equipped with an SMA female connector for connecting the antenna cable. The DRU antennas are designed for unobtrusive mounting within an office environment. Each type of antenna provides a specific coverage pattern in order to accommodate the shape of the area where coverage is required. The ceiling-mount omni directional antenna is designed to mount in the center of the coverage area. The directional panel antenna is designed to mount vertically on one side of the coverage area or in the corner of the coverage area. The ceiling mount hallway antenna is designed to mount in the center of long corridors. Non-ADC antennas may also be used with the DRU to meet various application requirements, but must comply with equipment authorization for RF exposure compliance. Note: To comply with Maximum Permissible Exposure (MPE) requirements, antennas must be installed to provide at least 20 centimeters (8 inches) of separation from all persons per FCC 47 CFR part 2.1091 and IC RSS-102, Section 2.5.2. ADCP-75-132 • Issue 2C • August 2006 Page 24 © 2006, ADC Telecommunications, Inc. MOUNTING STUD LENGTH - 1.5 INCHES (38 mm) DIAMETER - 0.875 INCHES (22 MM) DIAMETER - 4.2 INCHES (106.7 MM) DEPTH - 0.91 INCH (23 MM) 2.4 INCHES (61 MM) 0.29 INCH (7.4 MM) 3 INCHES (75 MM) 5.5 INCHES (140 MM) 6 INCHES (152 MM) 1.4 INCHES (36 MM) 2.5 dBi GAIN CEILING-MOUNT OMNIDIRECTIONAL 4 dBi GAIN CEILING-MOUNT HALLWAY 8 dBi GAIN 90 DEGREE DIRECTIONAL PANEL (WALL/CORNER-MOUNT) 18079-A INCLUDES ADJUSTABLE MOUNTING BRACKET (NOT SHOWN) Figure 12. 1900 MHz DRU Antenna Options 3.8 External Alarm System Reporting Requirements The DHU provides normally open (NO) and normally closed (NC) form C dry alarm relay contacts for reporting minor and major alarms to an external alarm system. A minor alarm is defined as a high temperature condition. A major alarm is defined as any fault condition except high temperature. Connections to the alarm contacts are provided through a screw-type terminal strip. Category 3 or 5 cable should be used for the alarm wires. If an external alarm system is not in use, no alarm connections are required. 3.9 Maintenance Requirements The Digivance ICS requires no regular maintenance to insure continuous and satisfactory operation. Maintenance, as it applies to the Digivance ICS, primarily involves diagnosing and correcting service problems as they occur. Faults and failures arising from within the Digivance ICS will generate an external alarm response which includes lighting an LED indicator(s) and closing or opening a set of alarm contacts. When an alarm is reported, it will be necessary to isolate the source ADCP-75-132 • Issue 2C • August 2006 Page 25 © 2006, ADC Telecommunications, Inc. of the problem by observing the LED indicators on each unit and then performing various tests to isolate the problem. Once the source of the fault is isolated, the appropriate action can be taken to correct the problem. The only unit components that can be replaced are the cooling fans which are mounted in the DHU and the DEU and the modular optical transceivers. The failure of any other component within a unit will require replacement of the unit. Basic trouble-shooting procedures are provided in Section 6 of this manual. 3.10 System Design Recommendations Follow a systematic process when designing an in-building coverage solution. The following sub sections outline the four phases of the in-building coverage solution design process. System design and planning services are available from ADC if required. Refer to Section 7 of this manual for additional information. 3.10.1 Phase One – Initial Evaluation Qualify the Installation: Confirm that there are no extenuating circumstances that would prevent a successful installation such as: extreme cellular system issues (blocking, severe interference, site problems, etc.), building issues, power issues, or safety issues (site should not present any hazards or conditions that would make operation of the equipment …

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ADCP-75-132 • Issue 2C • August 2006 Page 48 © 2006, ADC Telecommunications, Inc. 6 SYSTEM MAINTENANCE PROCEDURES This section explains the alarm reporting system, provides a method for isolating and troubleshooting faults, and provides procedures for replacing the modular transceivers and the DHU or DEU cooling fans. The Digivance ICS requires no regular maintenance to insure continuous and satisfactory operation. Maintenance, as it applies to the Digivance ICS, primarily involves diagnosing and correcting service problems as they occur. When an alarm is reported, it will be necessary to follow a systematic troubleshooting procedure to locate the problem. Once the source of the problem is isolated, the appropriate corrective action can be taken to restore service. The only unit components that can be replaced are the cooling fans that mount in the DHU and DEU and the modular optical transceivers. The failure of any other component within a unit will require replacement of that unit. 6.1 Tools and Materials The following tools and materials are required in order to complete the procedures in this section: • ESD wrist strap • IR filtering safety glasses • Optical loopback device (such as Stratos Lightwave LC5 series) and LC duplex adapter • Optical power meter • Magnification device for inspecting LC connectors • Laser light source • Multimeter • Cell phone • RJ-45 circuit access tool (such as the Harris 8-wire Banjo Adapter) • Medium and small size flat-bladed screwdrivers • TORX screwdriver (T10) 6.2 Fault Detection and Alarm Reporting Detection of a fault by the Digivance ICS will generate an external alarm response. LED indicators are provided on the front panel of the various units to indicate when a fault is detected. In addition to LED indicators, the DHU also provides normally open (NO) and normally closed (NC) dry alarm contacts for reporting minor and major alarms to an external alarm system. A minor alarm is defined as a high temperature condition. A major alarm is defined as any fault condition except high temperature. When the DHU alarm contacts are connected to an external alarm system, detection of a fault will generate an alarm at the Network Operations Center (NOC). However, various types of faults may not generate an alarm response. In this case, the first indication of a problem will probably be from cell phone users reporting a loss of service or poor service. Whenever a problem is reported, whether by a external alarm system or by a call from a user, refer to Subsection 6.3 to isolate and correct the fault. ADCP-75-132 • Issue 2C • August 2006 Page 49 © 2006, ADC Telecommunications, Inc. 6.3 Fault Isolation and Troubleshooting Fault isolation and troubleshooting guidelines are provided in Tables 11, 12, 13, and 14. When an alarm is reported, determine the type of alarm generated (minor or major) and then check the LED indicators on the DHU and note any that are red, yellow, or off. If any of the Port 1–6 OK/NOK LED indicators on the DHU are red or yellow, also check the LED indicators on the connected DEU’s and/or DRU’s and note if any are red or yellow. Start the troubleshooting process at the DHU and then work toward the unit where the alarm originated. The troubleshooting tables are organized according to unit type. Locate the problem in the appropriate table, check out the suggested possible causes, and take corrective action as required. Figure 25 shows two basic ICS system configurations. The troubleshooting tables list possible causes for various problems. If the cause of a particular problem is specific to either of the two system configurations shown in Figure 25, the type of system configuration (1 or 2) will be referenced in the table. 17962-A FWD REV DRU FWD REV DRU FWD REV DIGITAL EXPANSION UNITDIGITAL HOST UNIT DIGITAL HOST UNIT (2) (1) Figure 25. ICS System Basic Configurations Table 11. DHU Fault Isolation and Troubleshooting Guidelines Alarm Type LED LED COLOR Minor UNIT Yellow Problem : The DHU is overheating. POSSIBLE CAUSE CORRECTIVE ACTION/COMMENTS 1. Air intake or exhaust openings to DHU chassis blocked. 2. Ambient temperature > 50º C/122º F. 3. Faulty fan. 1. Remove cause of air-flow blockage. 2. Reduce ambient temperature. 3. Replace fan (see Subsection 6.5). Alarm Type LED LED COLOR Major UNIT Red Problem : The DHU detects an internal circuitry fault. POSSIBLE CAUSE CORRECTIVE ACTION/COMMENTS 1. Faulty DHU. 1. Replace DHU. (Continued) ADCP-75-132 • Issue 2C • August 2006 Page 50 © 2006, ADC Telecommunications, Inc. Table 11. DHU Fault Isolation and Troubleshooting Guidelines (Continued) Alarm Type LED LED COLOR Major OVERDRIVE Red Problem: Forward path RF input level too high. POSSIBLE CAUSE CORRECTIVE ACTION/COMMENTS 1. Incorrect attenuation in forward path RF coaxial link. 1. Adjust attenuation at RIU or HPCP. Alarm Type LED LED COLOR Minor OK/NOK Yellow Problem: The DHU is receiving a minor alarm signal from the DEU. POSSIBLE CAUSE CORRECTIVE ACTION/COMMENTS 1. The connected DEU is overheating (2). 1. Check DEU UNIT indicator and then refer to the appropriate troubleshooting section for procedures. Alarm Type LED LED COLOR Major OK/NOK Blinking Red Problem: The DHU is not receiving an optical signal from the DRU or DEU. POSSIBLE CAUSE CORRECTIVE ACTION/COMMENTS 1. Forward and reverse path optical fibers reversed between DHU and DRU (1); or between DHU and DEU (2). 2. Faulty reverse path optical fiber between DHU and DRU (1). 3. Faulty optical receive port at DHU or faulty optical transmit port at DRU (1). 4. Faulty forward or reverse path optical fiber between DHU and DEU (2). 1. Check fiber connections for correct polarity and reverse connectors at either unit if mismatched. 2. Clean optical connector and then test optical fiber. Repair or replace if faulty (see Subsection 6.4.2). 3. Make sure transceiver is fully plugged in and then test optical port. Replace optical transceiver if port is faulty (see Subsection 6.4.1). 4. Clean optical c…

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To Base Station Optical Fiber Block Diagram 1900 MHz Digital Host Unit D To A Converter RF FILTER SAW FILTER 6 WAY DIGITAL COMBINER LASER RX (1 OF 6) 161 MHz Analog Baseband Spectrum Digital Baseband Spectrum Reverse Synthesizer Forward Synthesizer Baseband LO and Reference Compsite Digital Baseband Spectrum 161 MHz IF Spectrum From Base Station SAW FILTER A To D Converter 6 WAY DIGITAL SPLITTER LASER TX (1 OF 6) Optical Fiber Band 1 1930 - 1950 MHz Band 2 1945 - 1970 MHz Band 3 1950 - 1975 MHz Band 41965 - 1990 MHz Band 1 1850 - 1870 MHz Band 2 1865 - 1890 MHz Band 3 1870 - 1895 MHz Band 41885 - 1910 MHz Controller Band Select 142 MHz 142 MHz Forward Synthesizer Reverse Synthesizer BAND 117762019 BAND 217962039 BAND 318012044 BAND 418162059 IF Spectrum Duplexer External Antenna Analog Baseband Spectrum Optical Fiber To Digital Host Unit or Digital Expansion Unit Digital Baseband Spectrum Baseband LO and Reference LASER RX D TO A Converter SAW FILTER RF FILTER Reverse Synthesizer Optical Fiber From Digital Host Unit Or Digital Expansion Unit Forward Synthesizer Power AMP Block Diagram 1900 MHz Digital Remote Unit Digital Baseband Spectrum LASER TX A To D Converter SAW FILTER LNA Band 1 1850 - 1870 MHz Band 2 1865 - 1890 MHz Band 3 1870 - 1895 MHz Band 41885 - 1910 MHz Band 1 1930 - 1950 MHz Band 2 1945 - 1970 MHz Band 3 1950 - 1975 MHz Band 41965 - 1990 MHz Controller Band Select Switch Forward Synthesizer Reverse Synthesizer BAND 117762019 BAND 217962039 BAND 318012044 BAND 418162059 IF Spectrum 161 MHz IF Spectrum 161 MHz

Mailing Address: P.O. Box 1101, Minneapolis, Minnesota 55440-1101 World Headquarters: Minneapolis, Minnesota USA +1.952.938.8080 www.adc.com October 29, 2006 Attn: Mr. Timothy Johnson RE: ADC Telecommunications Inc. FCC ID: F8I-DIS190AB 1) Application appears to only be submitted for GSM, TDMA and CDMA. However marketing information also suggests EDGE. Note that the FCC considers this different modulations (G7W for Edge) and tests such as power and single carrier conducted spurious should be performed for each modulation type. Please review the attached procedures. ADC - New EDGE test data has been added to the FCC and IC report. New reports submitted. New 731 page submitted with EDGE included. 2) Output power within the 731 and the application shows 262 mW (24.2 dBm) for CDMA, but the manual page 26 and advertising literature appears to suggest an output power of 16.5 dBm. This appears to be a large unexpected difference. Please explain. ADC – The test data that was originally submitted did not take into account the amount of peak to average rating sufficient enough for CDMA modulation. In order not to clip the signal, the input needed to be reduced to produce a quality signal. The new data shows sufficient signal levels to sustain a quality CDMA signal at a reduced output power. 3) RF exposure information mentioned in the RF exposure exhibit could not be found in the users manual. Please explain where this may be found or provide updated exhibits. ADC – Page where reference is noted, is included. Attached - “Pages from Instruction Manual” 4) The application does not appear to contain information regarding both DC voltages AND currents applied into the several elements of the final radio frequency amplifying device for normal operation over the power range been provided? (2.1033(c)(8)). ADC – New Frequency Tolerance test data supplied with the included testing of the frequency range of the Remote Unit. Additional note added to the report for the power supply utilized in the Remote. Also, the information was and is listed on the Conducted Emission Limits cover page for the Remote Unit. Digital Remote Unit (DRU): Range: 34-48 VDC Tested @: 48 VDC Tested @: 350 mA 5) FYI....In the future, please do not label RF exposure exhibits with SAR in the file name unless SAR is actually performed. The FCC has commented to TCB’s on this fact before. ADC – Noted. Mailing Address: P.O. Box 1101, Minneapolis, Minnesota 55440-1101 World Headquarters: Minneapolis, Minnesota USA +1.952.938.8080 www.adc.com 6) Proposed Grant Comments (FYI): Power output is conducted for a single carrier. The antenna installation and operating configurations of this transmitter, including antenna gain and cable loss must satisfy MPE categorical Exclusion Requirements of §2.1091. The antenna(s) used for this transmitter must be installed to provide a separation distance of at least 20 cm from all persons and must not be co-located or operating in conjunction with any other antenna or transmitter. Users and installers must be provided with antenna installation instructions and transmitter operating conditions for satisfying RF exposure compliance. ADC – Noted. For IC: 7) For IC labeling, the device appears to be covering a model GHVIH3110000000000. However according to labeling information, this appears to be the host unit and not the remote TX part of the system. However the device being certified is the remote unit. Therefore this model should not require Certification. Please review. ADC – Correct, just the remote portion is being certified. Attached is a new “FCC-IC ID Label Drawing” with the Host information removed. The Host is ancillary. 8) If relevant, This application appears to be for multiple models under an existing family approval. Therefore, please include a list of all models to be included in the family and sufficient information to show that each of the devices can be approved under one Certification Number. ADC – Only this Remote unit is approved for this Certification Number. 9) Maximum gain of antenna appears incorrect on the IC form. Other information suggests this should be dBd. ADC – dBi has been switched to dBd. New EDGE data has been added.

Digivance ICS 1900 MHz Digital Remote Unit Front View Digivance ICS 1900 MHz Digital Remote Unit Right View Digivance ICS 1900 MHz Digital Remote Unit Left View Digivance ICS 1900 MHz Digital Remote Unit Rear View Digivance ICS 1900 MHz Digital Remote Unit Top View Digivance ICS 1900 MHz Digital Remote Unit Bottom View Digivance ICS 1900 MHz Digital Remote Unit Open Top View

Digivance ICS 1900 MHz Digital Remote Unit Location of FCC ID Label

INFORMATION ON THIS DOCUMENT IS PROPRIETARY TO ADC AND SHALL NOT BE USED, COPIED, REPRODUCED OR DISCLOSED IN WHOLE OR IN PART WITHOUT WRITTEN CONSENT OF ADC TITLE ICS 1900 MHz FCC / IC Identification Label TOLERANCE UNLESS .XX NA OTHERWISE SPECIFIED .XX NA DRAWING NUMBER None A REV DO NOT SCALE DRAWING ENGR. Mark F. Miska SIZE A SHEET 1 OF 1 REV ECO DWN DATE A MFM 10-16-2006 DGVIXXXXXXXXXXXXXX FCC ID: F8I-DIS190AB IC: 1208G-DIS190AB 2 1.500 REF R.075 (4) DIE CUT LABEL .750 REF 1,4 NOTES: 1 PRINTING TYPE: TRANSFER METHOD. COLOR: BLACK TEXT 8 PT ARIAL NON-BOLD LOCATED APPROXIMATELY AS SHOWN. 2 PRINTING TYPE: TRANSFER METHOD. COLOR: BLACK TEXT 6 PT ARIAL NON-BOLD LOCATED APPROXIMATELY AS SHOWN. MATERIAL: ADC PART NUMBER 1215140 3 4 DGVIR3300000000000 - Digital Remote Unit

Digivance ICS 1900 MHz Digital Host Unit Location of Part 15 Label

Digivance ICS 1900 MHz Digital Remote Unit PCB – Top View Digivance ICS 1900 MHz Digital Remote Unit PCB – Top View 1 Digivance ICS 1900 MHz Digital Remote Unit PCB – Top View 2 Digivance ICS 1900 MHz Digital Remote Unit PCB – Bottom View Digivance ICS 1900 MHz Digital Remote Unit PCB – Bottom View 1 Digivance ICS 1900 MHz Digital Remote Unit PCB – Bottom View 2

ADCP-75-132 • Issue 2C • August 2006 Page 23 © 2006, ADC Telecommunications, Inc. 3.6 System Expansion Planning The DEU enables 6-way expansion of any optical port. This makes it possible to add more DRU’s without having to install additional DHU’s. Each DHU is equipped with six optical ports. If more than six DRU’s are required by the application, a DEU may be connected to one of the optical ports at the DHU which expands that port to six ports. If still more optical ports are required, then a second DEU may be connected to the DHU or a second DEU may be connected to the first DEU. The ability to cascade DEU’s in parallel or in series provides unlimited flexibility. It is physically possible to connect an unlimited number DRU’s to the DHU through the installation of DEU’s. The total number of DRU’s that can be served is limited by the cumulative noise effect caused by antenna combining. This number cannot be determined until the radius distance of coverage required at the DRU antenna is determined and the path loss attributed to the structure are known. The system design requires that the carrier to noise differential be greater than the customer’s desired signal to noise ratio. If it is likely that the system will be expanded in the future, locate the DHU in such a way that it can be used as a hub for an expanded system. It should be noted that a DEU can be used as an optical regenerator. A DRU may sometimes need to be located at a point that is beyond the distance limitation imposed by the optical fiber. The solution is to install a DEU at the maximum optical fiber length from the DHU. This provides an additional 500 m, 750 m, or 10 km (depending on the fiber type) of optical fiber length beyond the DEU for connecting the DRU. 3.7 DRU Antenna Options Various antennas, shown in Figure 12, are available from ADC for use with the DRU. All antennas include a 6-foot (1.8 m) long 50-ohm coaxial cable (equipped with SMA male connector) for connection to the DRU. The DRU is equipped with an SMA female connector for connecting the antenna cable. The DRU antennas are designed for unobtrusive mounting within an office environment. Each type of antenna provides a specific coverage pattern in order to accommodate the shape of the area where coverage is required. The ceiling-mount omni directional antenna is designed to mount in the center of the coverage area. The directional panel antenna is designed to mount vertically on one side of the coverage area or in the corner of the coverage area. The ceiling mount hallway antenna is designed to mount in the center of long corridors. Non-ADC antennas may also be used with the DRU to meet various application requirements, but must comply with equipment authorization for RF exposure compliance. Note: To comply with Maximum Permissible Exposure (MPE) requirements, antennas must be installed to provide at least 20 centimeters (8 inches) of separation from all persons per FCC 47 CFR part 2.1091 and IC RSS-102, Section 2.5.2.

TÜV AMERICA INC 19333 Wild Mountain Road Taylors Falls MN 55084 Tel: (651) 638-0297 Fax: (651) 638-0298Rev. 080806 TEST RESULT SUMMARY FCC Part 24 MANUFACTURER'S NAME ADC Inc. NAME OF EQUIPMENT Digivance®Indoor Coverage Solution In-building wireless communication system MODEL NUMBER(S) TESTED DGVIH3110000000000 DGVIR3300000000000 MANUFACTURER'S ADDRESS P.O. Box 1101 Minneapolis, MN 55440-1101 TEST REPORT NUMBER WC604235 Rev A TEST DATE(S) 21 July 2006 at TUV 24 - 26 July 2006 at ADC According to testing performed at TÜV America Inc, the above-mentioned unit is in compliance with the applicable electromagnetic compatibility (EMC) portions of the requirements defined in FCC CFR 47 Part 24. It is the manufacturer's responsibility to assure that additional production units of this model are manufactured with identical electrical and mechanical characteristics. Any modifications necessary for compliance made during testing on the above mentioned date(s) must be implemented in all production units for compliance to be maintained. TÜV America Inc, as an independent testing laboratory, declares that the equipment tested as specified above conforms to the applicable EMC requirements of FCC CFR 47 Part 24 “Personal Communications Services” Subpart E “Broadband PCS” Sections 24.232 “Power and antenna height limits”, 24.235 “Frequency stability”, 24.238 “Emission limitations for Broadband PCS equipment”. Date: 18 October 2006 Location: Taylors Falls MN Joe C. Sausen Joel T. Schneider USA EMC Senior Technician Senior EMC Engineer Not Transferable Test Report WC604235 Rev A1 of 163 TÜV AMERICA INC 19333 Wild Mountain Road Taylors Falls MN 55084 Tel: (651) 638-0297 Fax: (651) 638-0298Rev. 080806 EMC TEST REPORT Test Report File No. : WC604235 Rev A Date of issue: 18 October 2006 Model / Serial No(s) Tested : DGVIH3110000000000 / --- DGVIR3300000000000 / --- Product Type : Digivance® Indoor Coverage Solution In-building wireless communication system Applicant : ADC Inc. Manufacturer : ADC Inc. License holder : ADC Inc. Address : P.O. Box 1101 Minneapolis, MN 55440-1101 Test Result : „ Positive † Negative Test Project Number References : WC604235 Rev Total pages including Appendices : 162 TÜV America Inc reports apply only to the specific samples tested under stated test conditions. It is the manufacturer's responsibility to assure that additional production units of this model are manufactured with identical electrical and mechanical components. TÜV America Inc shall have no liability for any deductions, inferences or generalizations drawn by the client or others from TÜV America Inc issued reports. This report is the confidential property of the client. As a mutual protection to our clients, the public and ourselves, extracts from the test report shall not be reproduced except in full without our written approval. This report shall not be used by the client to claim product endorsement by NVLAP, NIST, or any agency of the US government. TÜV America Inc and its professional staff hold government and professional organization certifications and are members of AAMI, ACIL, AEA, ANSI, IEEE, NARTE, and VCCI. Test Report WC604235 Rev A1 of 162 TÜV AMERICA INC 19333 Wild Mountain Road Taylors Falls MN 55084 Tel: (651) 638-0297 Fax: (651) 638-0298Rev. 080806 REVISION RECORD REVISION TOTAL NUMBER OF PAGES DATE DESCRIPTION 136 08 August 2006 Initial Release A 162 18 October 2006 Note – revisions reference original report page numbers. Revisions include: ƒ Page 2: Revision of directory. ƒ Page 3: Added DC supply voltage. ƒ Page 4: Corrected Mimimum Margin of Compliace Statement to 23.17 dBm at 1962.5 MHz (EDGE Band BEF). ƒ Pages 5-6: Replace Conducted Output Power Data. ƒ Pages 8-11: Replaced Frequency Tolerence Data. ƒ Page 13-16: Replaced page 14 and added a Occupied Bandwidth datasheet. ƒ Page 19-20: Replaced page 18 and added Band Edge Data. ƒ Page 21; Deleted blank page. ƒ Page 47: Replaced. ƒ Pages 59-60: Added Intermodulation Data. ƒ Pages 77-78: Added Intermodulation Data. ƒ Pages 95-96: Added Intermodulation Data. ƒ Pages 113-114: Added Intermodulation Data. Test Report WC604235 Rev A2 of 162 TÜV AMERICA INC 19333 Wild Mountain Road Taylors Falls MN 55084 Tel: (651) 638-0297 Fax: (651) 638-0298Rev. 080806 D I R E C T O R Y Documentation Page(s) Revision History 2 Directory 3 Test Regulations, Environmental conditions, Power supply 4 Test Results and Data: FCC Power and antenna height limits 24.232 5 - 7 Frequency stability 24.235 8- 12 Emission limitations for Broadband PCS equipment 24.238 13 - 144 Test area diagram 145 Test setup drawings & photos 145 - 148 Test Operation Mode, Configuration of the device 149 Deviations From Standard, General Remarks, Summary 150 Appendix A Constructional Data Form and Block Diagrams 151 - 160 Appendix B Measurement Protocol 161 - 162 Sign Explanations: † - not applicable „ - applicable Test Report WC604235 Rev A3 of 162 TÜV AMERICA INC 19333 Wild Mountain Road Taylors Falls MN 55084 Tel: (651) 638-0297 Fax: (651) 638-0298Rev. 080806 EMC TEST REGULATIONS: The tests were performed according to the following regulations : † - EN 55014-2: 1997 + Amendment A1: 2001 - Category __ † - EN 55024: 1998 + Amendments A1: 2001 + A2: 2003 † - EN 60601-1-2: 2001 † - EN 61000-6-1: 2001 † - EN 61000-6-2: 2001 † - EN 61326: 1997 + Amendments A1: 1998 + A2: 2001 + A3: 2003 † - EN 61800-3: 1996 + Amendment A11: 2000 † - ETS 300 683: 1997 † - ETSI EN 301 489-3 V1.4.1: 2002 † - EN 300 330-2 V1.1.1 (2001-06) † - FCC Part 15 Subpart C Section 15.209 „ - FCC Part 24 † - IC RSS-210 Issue 6 † - IC RSS-Gen Issue 1 ENVIRONMENTAL CONDITIONS IN THE LAB TUV ADC Temperature: 22 °C Temperature: 26 °C Relative Humidity: 30 % Relative Humidity: 22 % Atmospheric pressure: 98.0 kPa Atmospheric pressure: 98.6 kPa POWER SUPPLY UTILIZED Power supply system : 1 phase, 60 Hz, 120 V Internal Remote Power, Supplied From Host Unit : 48 VDC Test Report WC604235 Rev A4 of 162 TÜV AMERICA INC 19333 Wild Mountain Road…

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