F8I-DNXSMR1ADigivance� NXD SMR 900 MHz System

ADCP-75-210 • Issue 1 • November 2006 Page 9 © 2006, ADC Telecommunications, Inc. 1.6.2Fiber Optic Cable Entry A nylon connector is provided on the rear of the RAN cabinet for routing a fiber optic cable into the cabinet. The cord connector provides cable strain relief and a watertight seal at the fiber optic cable entry point. As the connector nut is tightened, a soft neoprene bushing compresses to tightly grip the cable without applying excessive force to the fibers. The connector accommodates cables of a diameter in the range .38 to .50 inches (.97 to 1.27 cm). In a typical installation, the connectorized end of a multi-fiber OSP cable is routed into the cabinet through the cord connector and the individual fibers are connected to the optical transceiver on the Synchronous Interface Card (SIF). Excess slack is stored inside the cabinet. The stub end of the cable is routed to an external splice enclosure (not provided) for splicing to the outside plant fiber optic cable. 1.6.3Antenna Cable Connections Five N-type plugs are provided on the rear of the RAN cabinet for connecting the antenna coaxial cables. On the inside of the cabinet, coaxial jumper cables (included with the cabinet) are used for connecting to the antenna port on the appropriate multiplexer. 1.6.4AC Power Wiring Entry and Grounding The NXD RAN uses 240 VAC power. A one inch (2.54 cm), 90 degree rigid elbow conduit fitting is provided on the rear of the cabinet. The conduit should be routed to an external junction box (not provided). It is suggested that an external AC outlet (not provided) be installed near the cabinet to power test equipment and power tools. The AC source should supply 50/60 Hz, single-phase power through a circuit breaker rated at 20 Amps. 1.6.5Ventilation Ventilation openings are provided in the front door of the RAN cabinet to permit entry of air for cooling. A filter removes dirt particles so that only clean air enters the cabinet. The heated air exits the cabinet through the rear side. The four PAAs are each equipped with three cooling fans that pull air through the module and exhaust it to the rear of the cabinet. A fan assembly at the top of the RAN chassis forces the air out the rear side of the cabinet. Note: If the installer has a larger cable, the manufacturer (Hubbell Inc.) makes bushings that fit this connector in the following size ranges: .500-.625, .625-.750, .750-.875, .875- 1.00, 1.00-1.125 inches. ADCP-75-210 • Issue 1 • November 2006 Page 10 © 2006, ADC Telecommunications, Inc. 1.7RAN Chassis and Electronic Modules The RAN chassis, shown in Figure 6, is a standard Compact PCI (cPCI) shelf capable of housing 21 industry standard cPCI circuit cards (called “electronic modules” in this manual). The backplane supports the basic cPCI functions and it has been extended to allow the routing of DIF TM , reference clocks and I2C signals between I2C modules. The RAN chassis also houses cooling fans within the Fan Access Panel on the top of the chassis. Ta b l e 3 identifies the electronic modules using the callout reference numbers from Figure 6. Figure 6. RAN Chassis Table 3. RAN Chassis Electronic Modules REF #MODULE NAMEFOR DETAILS REFER TO 1cPCI Power SuppliesSection 1.7.1 on Page 12 2Central Processing Unit (CPU)Section 1.7.2 on Page 13 3System Interface (STF2)Section 1.7.3 on Page 14 4Synchronous Interface (SIF)Section 1.7.4 on Page 15 21282-A 12367891045 ADCP-75-210 • Issue 1 • November 2006 Page 11 © 2006, ADC Telecommunications, Inc. Figure 7 is a schematic showing the data flow in the RAN chassis. As shown, data flows in two directions, from the Hub through the RAN to the antenna, and from the antenna through the RAN back to the Hub. In each direction, data conversion occurs, with optical data “upconverted” to RF data in the up direction in the schematic, and RF data “downconverted” to optical data in the down direction. In an up direction, the RUC module converts Digitized Intermediate Frequency (DIF) data into PCS, Cellular, and SMR frequency RF bands. The RF signals are amplified and then transmitted from the RF antenna. In the down direction, the RDC module converts PCS, Cellular, and SMR frequency bands into DIF data. The overall series of events is managed by the CPU using an Ethernet connection to the chassis backplane. Figure 7. RAN Chassis Schematic 5Small Form-Factor Pluggable Optical Transceiver (SFP)Section 1.7.5 on Page 17 6RAN Down Converter (RDC or RDC2)Section 1.7.6 on Page 17 7RAN Up Converter (RUC2.X or RUC3)Section 1.7.7 on Page 19 8800 MHz Multi-CouplerSection 1.7.9 on Page 20 91900 MHz Multi-CouplerSection 1.7.10 on Page 22 10Fan Access PanelSection 1.7.8 on Page 20 Table 3. RAN Chassis Electronic Modules REF #MODULE NAMEFOR DETAILS REFER TO SIF MPLX RF RF Pri Div Pri Div Pri Div 1900 MUL 800 MUL DIF DIF RF 1900-P1900-D800-P800-D DIF RUC RDC CPU Ethernet Fiber Fiber 6 6 3 3 MCPA RAN HUB MB ANT RAN = Radio Access Node DIF = Digital Intermediate Frequency SIF = Synchronous Interface RUC = RAN Up Converter MCPA = Munti-Carrier Power Amplifier MPLX = Multi-plexer/Combiner MB ANT = Multi Band Antenna MUL = Multi-Coupler RDC = RAN Down Converter 21294-A ADCP-75-210 • Issue 1 • November 2006 Page 12 © 2006, ADC Telecommunications, Inc. 1.7.1cPCI Power Supply Modules The Compact PCI (cPCI) Power Supply Modules provide +/-12V, 5V, and 3.3V DC power to the cPCI backplane for use by the cPCI electronic modules. Each RAN requires one power supply module. Two modules can be used to provide redundancy if desired. These modules are hot swappable. Figure 8 shows the cPCI Power Supply Module faceplate. Ta bl e 4 describes the faceplate components called out in the figure. Figure 8. cPCI Power Supply Module Faceplate CPU Table 4. cPCI Power Supply Module Faceplate Ref # DESIGNATIONDEVICEFUNCTIONAL DESCRIPTION 1PWR GOODSingle-color LED (green) Power Good. Turns green when module has power 2FAU LTSingle-color LED (red) Fault. Turns red when module has insufficient power to perform …

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ADCP-75-210 • Issue 1 • November 2006 Page 49 © 2006, ADC Telecommunications, Inc. 2. Install the compression nut and an appropriate sized split ring and bushing over the cable end. Note that the beveled side of the split ring should face toward the compression nut. 3. Insert the end of the cable into the fiber entry opening on the bottom of the cabinet and pull the cable into the cabinet. 4. Connect fiber to the LC receptor located on the SIF electronic module. For location, refer to Figure 11 on Page 16. 5. Pull back any excess fiber from within the NXD cabinet. 6. Tighten the compression nut on the fiber entry connector body to secure the cable. 7. Seal all connections. 2.7.5Installing AC Power Prime power for the RAN is 240 VAC, 20 Amps, single phase. A separate service disconnect and lightning arrestor for each RAN must be installed with proper grounding. An electric meter is optional depending on local agreements. A non-connectorized #14 AWG 3-wire power cable is provided with the RAN cabinet for the AC power connections. The power cable is connected to a wiring harness within the cabinet and is approximately 20 feet (6 meters) long. The stub end of the cable must be routed out of the cabinet through conduit to an external junction box (not provided). At the junction box, the power cable must be connected to the AC power system wiring. The RAN electrical input fitting is located on the right rear of the cabinet, labeled “AC.” The AC power cable provides three wire leads for Line, Neutral, and Ground connections. All AC wires must be run within conduit. The interface at the RAN is a 1 in. (2.54 cm) 90 degree receptor elbow. For installation of AC power, the following materials are required (customer provided): • Electrical conduit • Conduit fittings • Connector sealant material The following tools are required to perform this procedure: • Wire cutters • Wire strippers • Conduit cutter • Conduit bender Note: The fiber should not have armored jacketing which may be a source for Electro- Magnetic Interference (EMI). Note: Power interfacing for the RAN must be performed by a licensed electrician. ADCP-75-210 • Issue 1 • November 2006 Page 50 © 2006, ADC Telecommunications, Inc. Use the following procedure to install the AC power wiring: 1. Install outdoor conduit between the the AC power junction box and the AC power fitting (rigid 90 degree receptor elbow) on the back of the cabinet. 2. Use a UL approved outdoor conduit connector (not provided) to connect the conduit to the AC power junction box. 3. Route the AC power cable through the conduit to the AC junction box. 4. Install the required AC power supply wires between the AC junction box and the AC circuit breaker box (by the junction box not within the RAN). 5. Strip off the insulation from the AC power cable wire leads and from the AC supply wires and connect the AC power cable wires to the AC supplier cable. 6. Connect the AC power to the AC wiring harness. 7. At the AC circuit breaker box, connect the AC power supply load wire(s) to a 20 Amp circuit breaker. 8. Place the circuit breaker in the ON position and then test the connectorized AC power cable within the cabinet for proper voltage levels and correct polarity. 9. Place the circuit breaker in the OFF position when testing is complete. 2.7.6Installing Backup Batteries (Extended or Glitch) Backup batteries for the RAN may be either two-hours-extended or five minutes glitch. The batteries will need to be installed and under charge before they will be able to provide full service. Battery storage life is one year in an environmentally controlled area. Batteries should be checked prior to installation. Each battery should measure 12.6 V or greater across terminals. Any battery that measures less should not be used. Refer to the battery manufacturer’s manual for specific information including charging recommendations, tests, and maintenance. 2.7.6.1Battery Safety Rules For safety purposes, observe the following DO’s and DON’T’s when installing the batteries or performing battery tests and maintenance: • DO use qualified personnel only for battery maintenance • DO follow all battery and charger manufacturer maintenance instructions Note: All electrical work must comply with local codes and requirements. A locally licensed electrical contractor is best qualified to perform this work. For operation at less than 20 Amps, consult with ADC Technical Service. Danger: Use extreme caution when working with high voltage AC power. Ensure all power is disconnected before working on power circuits. Note: A reducer fitting must be provided to accommodate any size change to the conduit. ADCP-75-210 • Issue 1 • November 2006 Page 51 © 2006, ADC Telecommunications, Inc. • DO wear protective equipment (face shield, goggles, gloves) when working with or around battery systems. • DO use proper lifting techniques when working with batteries. • DO use insulated tools when working on batteries. • DO remove all rings and metal watchbands before working on batteries. • DON’T service batteries individually. Replace pack as a unit. • DON’T replace a defective pack with an alternate type. Use only the replacement packs provided by ADC. • DON’T lift batteries by their terminals. • DON’T place tools, unconnected cables, or metal objects to rest on top of the batteries. • DON’T use any chemical cleaners (ammonia, bleach, etc.) to clean batteries. • DON’T remove vent caps or add anything to sealed, maintenance-free batteries. • DON’T smoke, cause sparks, or carry an open flame near any battery system. • DON’T approach any energized battery system that shows signs of over-charging or over discharging (severe swelling, cover deformation, vent caps popping off). Disconnect and isolate the battery system from all charging and discharging circuitry before approaching the system. • DON’T circumvent any device installed by the battery or charger manufacturer for the purpose of protecting the battery system. These devi…

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ADCP-75-210 • Issue 1 • November 2006 Page 64 © 2006, ADC Telecommunications, Inc. 3. Slide the RDC module into the designated slot within the RAN chassis. 4. Lock the IEL handles on the top and bottom of the RDC module into the chassis and tighten the handle screws. 5. Using an SMA coaxial cable (1955000P081), connect one end to the PRI IN port on the RDC module and the other end to the appropriate P OUT port on the C/MCPLR or P/ MCPLR module. Each P OUT port is associated with a different band. 6. Using an SMA coaxial cable (1955000P081), connect one end to the DIV IN port on the RDC module and the other end to the appropriate D OUT port on the C/MCPLR or P/ MCPLR module. Each D OUT port is associated with a different band. For more information on these ports, refer to the sections identified in the note above. 21235-AX Figure 44. Installing an RDC Module 4.1.6Installing a RAN Up Converter (RUC2.X or RUC3) Module The RAN Up Converter (RUC2.X or RUC3) module may be installed into either of two slots in the RAN chassis, depending on the band for which the module will be used. One module is required for each two bands. The two slots are: • Slot 11 (labeled RUC A2): used for first and second bands • Slot 14 (labeled RUC A5): used for third and fourth bands Note: For more information on the C/MCPLR module ports, see Section 1.7.9, 800 MHz Multicoupler (C/MCPLR), on page 20. For more information on the P/MCPLR module ports, see Section 1.7.10, 1900 MHz Multicoupler (P/MCPLR), on page 22. ADCP-75-210 • Issue 1 • November 2006 Page 65 © 2006, ADC Telecommunications, Inc. Use the following procedure to install an RUC2.X or RUC3 module (Figure 45): 1. Identify the designated chassis slot for the RUC module. This will be Slot 11 or 14. For more information, see introductory text above. 2. Remove the RUC module from the anti-static packaging and orient for installation. 3. Slide the RUC module into the designated slot within the RAN cPCI chassis. 4. Lock the IEL handles on the top and bottom of the RUC module into the cPCI chassis and tighten handle screws. 21233-AX Figure 45. Installing an RUC Module 5. Using cable 1955000P079, connect the CH1/3 connector on the RUC module to either of the following as appropriate: – RF IN port on PAA1 if RUC module is in slot A2 – RF IN port on PAA3 if RUC module is in slot A5 6. Using cable 1955000P079, connect the CH 2/4 connector on the RUC module to either of the following as appropriate: – RF IN port on PAA2 if RUC module is in slot A2 – RF IN port on PAA4 if RUC module is in slot A5 Note: For a description of the module including function, controls, and indicators, refer to Section 1.7.7 on Page 19. For a RAN chassis interconnection diagram, refer to Figure 39 on Page 58. ADCP-75-210 • Issue 1 • November 2006 Page 66 © 2006, ADC Telecommunications, Inc. 7. Using cable 1001475P001, connect the PA CTL1/3 connector on the RUC module to either of the following as appropriate: – CNTL port on PAA1 if RUC module is in slot A2 – CNTL port on PAA3 if RUC module is in slot A5 8. Using cable 1001475P001, connect the CTL 2/4 connector on the RUC module to either of the following as appropriate: – CNTL port on PAA2 if RUC module is in slot A2 – CNTL port on PAA4 if RUC module is in slot A5 4.2Installing cPCI Chassis Air Baffles The air baffles for the RAN chassis are used in all empty chassis slots. This is done to maintain airflow around the chassis modules. Use the following procedure to install air baffles: 1. Identify designated RAN Chassis cPCI slot for the cPCI air baffle. 2. Insert air baffle into designated slot on chassis and tighten screws. 4.3Installing a Rectifier Module To install a rectifier module, use the following procedure (Figure 46): 1. Connect cables following Section 22 on Page 66. 2. Slide the rectifier into the rectifier compartment. 3. Turn the gravity latch down to lock the rectifier in place. Note: For a description of the rectifier including function, controls, and indicators, refer to Section 1.8 on Page 23. For a RAN chassis interconnection diagram, refer to Figure 39 on Page 58. Table 22. Rectifier Ports and Connections RECTIFIER PORTCONNECTS TOUSING CABLECOMMENTS L1, L2, L3EMI Line Filter F-L1, F-L2 1001473P001Connect black wire to F-L1 (on EMI Line Filter); connect brown wire to FL-2 RECT GNDGND Stud1001473P001Connect to cabinet ground stud + B AT, - B ATAnderson con- nector 1001477P001Connect to Anderson connector in battery compartment; connect black wire to 0V (+BAT) and blue wire to -BAT OV OUT, -OV OUT temp sensor, circuit break- ers REC+ and REC- 1001477P001 1001469P001 1001470P001 Place temperature sensor in battery compartment; connect 1001477P001 black wire to OV OUT and blue wire to - OV OUT; connect 1001469P001 from rectifier OV OUT to circuit breaker POS; connect 1001470P001 from recti- fier -OV OUT to circuit breaker NEG ADCP-75-210 • Issue 1 • November 2006 Page 67 © 2006, ADC Telecommunications, Inc. Figure 46. Installing a Rectifier 25 Pin DCircuit breaker panel N/C port 1001477P001Connect white wire to circuit breaker N/C and brown wire to COM RS232STF module RECT port 1001476P001Connect to STF module connector labeled RECT in RAN chassis and RS-232 connector on the rectifier Table 22. Rectifier Ports and Connections RECTIFIER PORTCONNECTS TOUSING CABLECOMMENTS 21274-A LOCK UNLOCK ADCP-75-210 • Issue 1 • November 2006 Page 68 © 2006, ADC Telecommunications, Inc. 4.4Installing a Compact PCI Power Supply (cPCI P/S) Module The cPCI Power Supply Module installs into Slots 1 and 2 or Slots 3 and 4 of the RAN chassis. One module is required per RAN chassis. Either set of two slot can be used. A second module can be installed for redundancy. Use the following procedure to install a cPCI Power Supply Module: 1. Identify the designated chassis slots for the module. This will be Slots 1 or 2 or Slot 3 and 4. 2. Remove the module from the anti-static packaging and orient for installation. 3. Slide the module into the designated sl…

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Mailing Address: P.O. Box 1101, Minneapolis, Minnesota 55440-1101 World Headquarters: Minneapolis, Minnesota USA +1.952.938.8080 www.adc.com November 22, 2006 Attn: Application Examiner, Reviewing Engineer Re: Request of Confidentiality Pursuant to Sections 0.457(d)(1)(ii) and 0.459 of the Commission’s Rules, the Applicant hereby requests confidential treatment of information accompanying as outlined below: Schematics, Technical Description or Theory of Operation, Bill of Materials (BOM’s) The above materials contain trade secrets and proprietary information not customarily released to the public. The public disclosure of these matters might be harmful to the Applicant and provide unjustified benefits to its competitors. The Applicant understands that pursuant to Rule 0.457(d)(1)(ii), disclosure of this Application and all accompanying documentation will not be made before the date of the Grant for this Application. Sincerely, Mark Miska Compliance Engineer Tele: 952 403-8340 Fax: 952 403-8858 Email: [email protected]

Digivance NXD Hub Front View Digivance NXD Hub Right View Digivance NXD Hub Left View Digivance NXD Hub Rear View

Digivance NXD RAN Front View Digivance NXD RAN Open Front View Digivance NXD RAN Right View Digivance NXD RAN Left View Digivance NXD RAN Rear View

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 NXD SMR 900 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 11-21-2006 XXXX-XXXXXXXX FCC ID: F8I-DNXSMR1A IC: 1208G-DNXSMR1A 2 1.500 REF R.075 (4) DIE CUT LABEL .750 REF 1,4 - See Note 4 for Model Number 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 DGVN-0200000011NRN

Digivance NXD RAN Location of FCC ID

Digivance NXD Base Station Interface Module – BIM Top View – 1 Digivance NXD Base Station Interface Module – BIM Top View – 2 Digivance NXD Base Station Interface Module – BIM Bottom View – 1 Digivance NXD Base Station Interface Module – BIM Bottom View – 2 Digivance NXD Forward Simulcast Card – FSC Top View Digivance NXD Forward Simulcast Card – FSC Bottom View Digivance NXD Hub Down Converter – HDC Top View Digivance NXD Hub Down Converter – HDC Bottom View Digivance NXD Hub Reference Module – HRM Top View 1 Digivance NXD Hub Reference Module – HRM Top View 2 Digivance NXD Hub Reference Module – HRM Bottom View 1 Digivance NXD Hub Reference Module – HRM Bottom View 2 Digivance NXD Central Processing Unit – CPU Top View Digivance NXD Central Processing Unit – CPU Bottom View

Digivance NXD Hub Up Converter – HUC Top View Digivance NXD Hub Up Converter – HUC Bottom View Digivance NXD RAN Down Converter – RDC Top View Digivance NXD RAN Down Converter – RDC Bottom View Digivance NXD Reverse Simulcast Card – RSC Top View Digivance NXD Reverse Simulcast Card – RSC Bottom View Digivance NXD RAN Up Converter – RUC Top View Digivance NXD RAN Up Converter – RUC Bottom View Digivance NXD Sonet Interface Module – SIF Top View Digivance NXD Sonet Interface Module – SIF Bottom View Digivance NXD RAN System Interface Module – STF Top View Digivance NXD RAN System Interface Module – STF Bottom View Digivance NXD Hub System Interface Module – STF Top View Digivance NXD Hub System Interface Module – STF Bottom View

Mailing Address: P.O. Box 1101, Minneapolis, Minnesota 55440-1101 World Headquarters: Minneapolis, Minnesota USA +1.952.938.8080 www.adc.com November 22, 2006 Attn: Application Examiner, Reviewing Engineer Re: Tune-up Procedure The Digivance® NXD SMR 900 MHz System Model Number DGVN-0200000011NRN employs a solid-state design that does not require a tune-up procedure. Sincerely, Mark F. Miska Compliance Engineer Tele: 952 403-8340 Fax: 952 403-8858 Email: [email protected]

Compliance Worldwide, Inc. - 357 Main Street - Sandown, NH 03873 (603) 887 3903 Fax 887 6445 http://www.complianceworldwide.com COMPLIANCE WORLDWIDE INC. TEST REPORT 277-06 In Accordance with the Requirements of FCC CFR Title 47 Part 90 Issued to ADC Telecommunications, Inc. P.O. Box 1101 Minneapolis, MN 55440-1101 (952) 403-8340 for Digivance NXD SMR 900 MHz Report Issued on October 17, 2006 Prepared by This test report shall not be reproduced, except in full, without written permission from Compliance Worldwide, Inc. Page 1 of 61 Test Number: 277-06 Issue Date: 10/17/2006 Compliance Worldwide, Inc. - 357 Main Street - Sandown, NH 03873 (603) 887 3903 Fax 887 6445 http://www.cw-inc.com Table of Contents 1. Scope..................................................................................................................... 3 2. Product Details....................................................................................................... 3 3. Product Configuration ............................................................................................ 3 4. Product Block Diagram .......................................................................................... 4 5. Limitations on Power and Antenna Height, FCC Part 90.635 .............................. 10 6. Conducted Output Power Test............................................................................. 11 7. Frequency stability, FCC Part 90.213.................................................................. 12 8. Frequency Tolerance Test ................................................................................... 13 9. Emission limits, FCC Part 90.669........................................................................ 14 10. Occupied Bandwidth Modulation Test................................................................ 15 11. Conducted Emission Limits Test........................................................................ 19 12. Equivalent Isotropically Radiated Power EIRP Substitution ............................... 32 13. Radiated Emissions (30 MHz to 1 GHz) Test .................................................... 33 14. Radiated Emissions ( > 1 GHz) Test ................................................................. 35 15. Inter-modulation Test ......................................................................................... 38 16. Test Images....................................................................................................... 57 17. Test Site Description .......................................................................................... 59 18. Test Summary.................................................................................................... 60 Page 2 of 60 Test Number: 277-06 Issue Date: 10/17/2006 Compliance Worldwide, Inc. - 357 Main Street - Sandown, NH 03873 (603) 887 3903 Fax 887 6445 http://www.cw-inc.com 1. Scope This test report certifies that the ADC Digivance NXD SMR 900 MHz as tested, meets the regulatory agency standards listed on the cover page of this document. The scope of this test report is limited to the test sample provided by the client, only in as much as that sample represents other production units. If any significant changes are made to the unit, the changes shall be evaluated and a retest may be required. 2. Product Details 2.1. Manufacturer: ADC Telecommunications, Inc. 2.2. Model Number: DGVN-0200000011NRN 2.3. Serial Number: N/A 2.4. Description: Transports RF between a remote antenna and base station 2.5. Power Source: 120 V, 60 Hz (4.4 A) 2.6. EMC Modifications: None 3. Product Configuration 3.1. Contents of EUT Description Manufacturer Manufacturer p/n Serial number HUB ADC OP-DC-DIGCH2 N/A RAN ADC DGVN-0200000011NRN N/A 3.2. Cables Cable Type Length From To Power > 3M Power Input power RF > 3M Cabinet Measurement Equipment 3.3. Support Equipment Device Manufacturer Model Serial No. HUB ADC OP-DC-DIGCH2 N/A Signal Generator Agilent E4436B N/A Power Supply Lambda FE150048-RA N/A Spectrum Analyzer HP HP8563E N/A Page 3 of 60 Test Number: 277-06 Issue Date: 10/17/2006 Compliance Worldwide, Inc. - 357 Main Street - Sandown, NH 03873 (603) 887 3903 Fax 887 6445 http://www.cw-inc.com 3. Product Configuration (continued) 3.4. Operational Characteristics Digivance Element Management System (DEMS). System Management and Interface Matching Software. SNMP v1 & v2 3.5 Test Operation Mode The unit under test was operated under the following conditions during emissions testing: Max composite in – Max composite out. The unit under test, Digivance NXD Remote Transmitter, was tested; the host (HUB) portion is ancillary equipment and was not included with equipment under test. 4. Product Block Diagram Radiated Emissions RF IN Spectrum Analyzer RF OUT Signal Generator 800/900 SMR 800 Cellular 1900 PCS EUT Test Set-up Composite Power Meter Attenuator 10 MHz Ref (out) Page 4 of 60 Conducted Emission Limits Test for ADC Inc. Digivance® NXD SMR 900 MHz Model Number DGVN-0200000011NRN RF IN Spectrum Analyzer RF OUT Signal Generator 800/900 SMR 800 Cellular 1900 PCS EUT Test Set-up Composite Power Meter Attenuator 10 MHz Ref (out) Page 5 of 60 Conducted Output Power Test for ADC Inc. Digivance® NXD SMR 900 MHz Model Number DGVN-0200000011NRN RF IN Spectrum Analyzer RF OUT Signal Generator 800/900 SMR 800 Cellular 1900 PCS EUT Test Set-up Composite Power Meter Attenuator 10 MHz Ref (out) Page 6 of 60 Frequency Tolerance Test for ADC Inc. Digivance® NXD SMR 900 MHz Model Number DGVN-0200000011NRN EUT Host is specified for indoor use only with temperature range of 0° to +50° C, and was tested with its range. EUT Remote is specified with a temperature range of -40° to +50° C and was tested with its range. 8888 Multi Meter RF IN 800/900 SMR 800 Cellular 1900 PCS RF OUT Signal Generator EUT Test Set-up Auto Transformer Temperature Chamber 10 MHz Ref (out) 120 VAC 60 Hz 800/900 SMR 800 Cellular 1900 PCS Frequency Counter Page 7 of 60…

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