Q8KCELLPCS3380ABDual Band Bi-Directional Amplifier

Installation and Operating Manual BDA‐CELLAB/PCSF‐33/33‐80‐AB Dual Band Bi‐Directional Amplifier Page | 2 TABLE OF CONTENTS PARAGRAPH PAGE NO OVERVIEW 3 BLOCK DIAGRAM DESCRIPTION 3 BLOCK DIAGRAM DRAWING (Figure 1) 4 ELECTRICAL SPECIFICATIONS 5 MECHANICAL SPECIFICATIONS 7 ENVIRONMENTAL CONDITIONS 7 FCC and IC NOTES 7 RF EXPOSURE WARNING 7 CONNECTIONS 8 OPTIONAL FEATURES 8 MECHANICAL OUTLINE DRAWING (Figure 2) 10 INSTALLATION 11 OPERATION 12 FRONT PANEL (Figure 3) BACK PANEL (Figure 4) 13 13 DIAGNOSTICS GUIDE 14 Page | 3 OVERVIEW: The BDA-CELLAB/PCSF-33/33-80-AB assembly enhances the coverage area of radio communications in buildings and RF shielded environments. The BDA-CELLAB/PCSF-33/33-80-AB has dual RF paths (Forward / Reverse) to improve coverage in two distinct frequency bands. The unit features low noise figure and wide dynamic range. It is based on a dual duplexed path configuration with sharp out of band attenuation allowing improved isolation between the receiving and transmitting paths. BLOCK DIAGRAM DESCRIPTION: Refer to Figure 1 for the following discussion. The BDA-CELLAB/PCSF-33/33-80-AB Downlink path receives RF signals from the base station, amplifies the signal and transmits the signal, without changing the frequency, into a Distributed Antenna System at the direction of the mobiles. The signal travels over a DAS medium that then dissipates the signal to the Mobile subscribers. The BDA-CELLAB/PCSF-33/33-80-AB Uplink path receives RF signals at the Mobile side from the DAS system, then amplifies it, and transmits the amplified signal (without changing the without changing the frequency) to the base station. This Dual Band BDA supports two Uplink and two Downlink, CELL AB and PSC Full occupy distinct dedicated frequency bands. For CELL AB Band, the frequency allocations are as follows: Uplink: 824-849 MHz Downlink: 869-894 MHz For PCS Full Band, the frequency allocations are as follows: Uplink: 1850-1910 MHz Downlink: 1930-1990 MHz The Quad-duplexer isolates the paths and route each signal to the proper amplifying channel. An Automatic Level Control (ALC) allows for output power limiting. A variable step attenuator gives 0 – 30 dB of attenuation in 2 dB steps. The use of these controls is covered in the “OPERATION” section, later in this document. BLOCK DIAGRAM DRAWING: (Figure 1) Page | 4 1. Input Base Quadruplexer – Features low insertion loss and separates UL from DL paths for CELL and PCS bands. 2. Downlink CELL LNA/Pre-Amp – Low noise figure amplifier with high linearity 3. Selector Filter CELL DL – Features high selectivity and provides required isolation at maximum gain. 4. Linear Power Amplifier CELL DL – includes ALC circuitry and up to 50 dB Gain. 5. Output Mobile Quadruplexer – Features low insertion loss and separates UL from DL paths for CELL and PCS bands. 6. Uplink CELL LNA/Pre-Amp – Low noise figure amplifier with high linearity 7. Selector Filter CELL UL – Features high selectivity and provides required isolation at maximum gain. 8. Linear Power Amplifier CELL UL – includes ALC circuitry and up to 50 dB Gain. 9. Downlink PCS LNA/Pre-Amp – Low noise figure amplifier with high linearity 10. Selector Filter PCS DL – Features high selectivity and provides required isolation at maximum gain. 11. Linear Power Amplifier PCS DL – includes ALC circuitry and up to 50 dB Gain. 12. Uplink PCS LNA/Pre-Amp – Low noise figure amplifier with high linearity 13. Selector Filter PCS UL – Features high selectivity and provides required isolation at maximum gain. 14. Linear Power Amplifier PCS UL – includes ALC circuitry and up to 50 dB Gain. Page | 5 ELECTRICAL SPECIFICATIONS: Frequency Range : UL CELL AB 824-849 MHz : UL PCS 1850-1910 MHz : DL CELL AB 869-894 MHz : DL PCS 1930-1990 MHz Pass band Gain @ min attenuation : 80 dB (Min.) Variable Step Attenuator Range : 0-30 dB (2-dB steps) Gain Flatness : ±1.5 dB (Typ.) Noise Figure @+25C at max gain : 5.0 dB (Typ.) Composite Output Power Downlink : +33 dBm (Typ.) Uplink : +33 dBm (Typ.) Maximum Input Signal Level :+10 dBm Input/ Output Impedance : 50 Ohms VSWR (Input/Output) : <1.5: 1 Power Supply : 110VAC/1.6Amps : 220VAC/0.8Amps : 50 to 60 Hz Page | 6 By additional filtering this BDA can support the following bands: Table 1 Frequency Band Downlink Frequency Ranges Uplink Frequency Ranges CELL AB 869-894 MHz 824-869 MHz CELL A 869-880 MHz 824-835 MHz CELL B 880-894 MHz 835-849 MHz PCS FULL 1930-1990 MHz 1850-1910 MHz PCS A 1930-1945 MHz 1850-1865 MHz PCS B 1950-1965 MHz 1870-1885 MHz PCS C 1975-1990 MHz 1895-1910 MHz PCS C-1 1982.5-1990 MHz 1902.5-1910 MHz PCS C-2 1975-1982.5 MHz 1895-1902.5 MHz PCS C-3 1975-1980 MHz 1895-1900 MHz PCS C-4 1980-1985 MHz 1900-1905 MHz PCS C-5 1985-1990 MHz 1905-1910 MHZ PCS D 1945-1950 MHz 1865-1870 MHz PCS E 1965-1970 MHz 1885-1890 MHz PCS F 1970-1975 MHz 1890-1895 MHz Page | 7 MECHANICAL SPECIFICATIONS: Size : 18.1x 13.2 x 16 inch RF Connectors : N-Type Female Weight : 65 Lb. (28.5 kg) approx. ENVIRONMENTAL CONDITIONS: The unit is designed for indoor applications: Operating temperature: - 20°C to + 50°C Storage temperature: - 50°C to + 90°C FCC NOTE: The product has been tested and found to comply with the Federal Communications Commission (FCC) RF Exposure Requirements, pursuant to FCC Part 22 and 24. IC NOTE: The product has been tested and found to comply with the Industry Canada (IC) RF Exposure Requirements, pursuant to IC RSS-131. NOTE: The Manufacturer’s rated output power of this equipment is for single carrier operation. For situations when multiple carrier signals are present, the rating would have to be reduced by 3.5 dB, especially where the output signal is re-radiated and can cause interference to adjacent band users. This power reduction is to be by means of input power or gain reduction and not by an attenuator at the output of the device. RF EXPOSURE WARNING: In order to comply with the FCC RF exposure requirements, the BDA-CELLAB/PCSF- 33/33-80-AB antenna installation must co…

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Wide Band Log Periodic YAGI Antenna Model #: TDJ-800/2500YG Radiation Pattern: E-Plane H-Plane Specifications Model TDJ-800/2500YG Frequency Range (MHz) 800-960 1710-2500 Gain (dBi) 9.5 11 Vertical Plane Polarization 60º 50º Horizontal Plane Polarization 80º 60º VSWR ≤ 1.5 : 1 Fr ont-to-Back Ratio (dB) ≥ 20 Impendence (Ω) 50 Polarization Vertical Maximum Power (W) 100 Connector N-Female Antenna Dimensions (mm) 330 x 215 x 65 Mast Mount Diameter (mm) 40 - 50 Weight (Kg) 1.1

Form: CB-7.2.1 Issued by: QM Issue Date: 9/22/2011 Page 1 of 2 Revised by: QM-JS Revised Date: 6/23/2014 L:\Project\2015\p1510013-GWave Inc\TCB Folder\RT's\CB-7.2.1 - Technical Review RT Form_p1510013.docx CB-7.2.1 – Technical Review RT Form FCC ID: Q8KCELLPCS3380AB IC ID: 4901A-CELLPCS3380AB CT Project: P1510013 From: Shawn McMillen Date: 03-09-2015 1--The FCC and IC IDs contained within the label do not match that of the test report and so on. See page two of the label and location document. G-Wave – 3/10/15 – Sharon: We will fix and send back. 3/24/15 – Revised Label provided. 2--The user’s manual indicates that this device is compliant with rule part 27 however this rule part does not apply to this application G-Wave – 3/10/15 – Sharon: So which part does it comply with? 3/24/15 – Revised Manual provided. 3--The RF exposure in the user’s manual is incorrect. G-Wave - Same as previous e-mail, can you elaborate? 3/24/15 – Revised Manual provided. 4--The title on the cell + PCS band amp schematics reads 700-1000MHz power amp. Is this file meant for only that frequency range? G-Wave – 3/24/15 - No, this schematic relevant for both PCS and Cell Power Amplifier. 5--It is unclear as to what the file name “new Preamp” is meant for. G-Wave – 3/24/15 - This is a schematic for the Pre- Amplifiers (for CELL and PCS bands) 6--The test setup photos provided in this application do not reflect the equipment seeking approval. GC - The correct test setup photos have been provided Form: CB-7.2.1 Issued by: QM Issue Date: 9/22/2011 Page 2 of 2 Revised by: QM-JS Revised Date: 6/23/2014 L:\Project\2015\p1510013-GWave Inc\TCB Folder\RT's\CB-7.2.1 - Technical Review RT Form_p1510013.docx 7--Page 104 of the emc report contains an intermodulation plot where the delta between the two carriers is approximately 3dB. Please justify using such a variance between the two carriers. GC - 3/11/15 - The input powers were set to be even in amplitude. The gain changes approximately 3 dB at the frequencies tested, accounting for most of the difference in the amplitude of the 2 signals. 8--The RSS-131 report is missing from this filing. DW: 3/10/15 – In folder. 9--There is no IC agent authorization letter provided. DW: 3/10/15 – Canada Rep put in folder. CT - Response by: Submitted by: Date:

BDA­CELLAB/PCSF­33/33­80­AB BDA Tune Up Procedure: DO NOT APPLY A.C. POWER TO THE BDA UNTIL CABLES ARE CONNECTED TO BOTH PORTS OF THE BDA AND THE ANTENNAS. 1. Set the BDA Rack on the floor or mount on a wall (where applicable). Using appropriate screws and anchors, attach the BDA to the wall at the four mounting holes on the side flanges. (Special version not shown in this manual). 2. Ensure that the isolation between the donor antenna and the service antenna is at least 12 dB greater than the BDA gain. (Use the higher of the Uplink and Downlink gains reported on the BDA test data sheet). 3. Connect the cable from the donor antenna to the BDA connector labeled “BASE” and the cable from the service antennas to the BDA connector labeled “MOBILE”. 4. See main Panel of the BDA and verify that both of the Uplink and Downlink attenuation is set to 30 dB via dial Attenuator. 5. Connect the AC power cord to the BDA and then to the power source. Verify that the “Power ON” lamp is illuminated. Installation of the BDA is now complete. To adjust the gain controls to suit the specific signal environment, refer to the next section of the manual. Note : For repeat installations of existing equipment, make sure the attenuation is positioned to its maximum setting (30 dB). After verification attenuation, follow the above steps starting with step 1. BDA Operation: Variable Step Attenuator BDA gain can be reduced by up to 30 dB in 2 dB steps using the variable step attenuator. Gain adjustment is made with rotary switches located on the front panel of the BDA enclosure. Arrows on the shafts of these switches point to the value of attenuation selected. BDA gain can be determined by subtracting the attenuation value from the gain reported on the BDA Test Data Sheet for that side of the unit. The attenuators are labeled for Uplink and Downlink of each band (CELL and PCS). Attenuation System GainArrows on the shafts of these switches point to 0 800 4 764 10 7010 16 6416 20 6020 24 5624 30 5030 Table 1 ALC (Automatic Level Control) To minimize intermodulation products, each amplifier in the BDA contains an ALC feedback loop. The ALC circuit senses the output power and limits it to the factory preset level of +33 dBm. The ALC function is integrated in each amplifier. A red indicator lamp located on each amplifier illuminates when output power exceeds the ALC set point. To establish proper operating gain on the Uplink and Downlink sides, start with the Downlink. Verify that the attenuation is set for 30 dB (minimum system gain). Observe the red indicator lamp on the Downlink amplifier. Units are shipped with maximum attenuation. Decrease attenuation one step at a time until the lamp is lit. Then, increase the attenuation until the lamp goes off. Repeat the process for the Uplink. The level indicator is accurate to +/‐ 0.4 dB of the ALC set point. Operation of the BDA at minimum attenuation with greater than ‐45 dBm average power incident on either BASE or MOBILE port can cause damage to the BDA. Figure 1: Variable Gain Adjustment Access

BDA­CELLAB/PCSF­33/33­80­AB BDA Tune Up Procedure: DO NOT APPLY A.C. POWER TO THE BDA UNTIL CABLES ARE CONNECTED TO BOTH PORTS OF THE BDA AND THE ANTENNAS. 1. Set the BDA Rack on the floor or mount on a wall (where applicable). Using appropriate screws and anchors, attach the BDA to the wall at the four mounting holes on the side flanges. (Special version not shown in this manual). 2. Ensure that the isolation between the donor antenna and the service antenna is at least 12 dB greater than the BDA gain. (Use the higher of the Uplink and Downlink gains reported on the BDA test data sheet). 3. Connect the cable from the donor antenna to the BDA connector labeled “BASE” and the cable from the service antennas to the BDA connector labeled “MOBILE”. 4. See main Panel of the BDA and verify that both of the Uplink and Downlink attenuation is set to 30 dB via dial Attenuator. 5. Connect the AC power cord to the BDA and then to the power source. Verify that the “Power ON” lamp is illuminated. Installation of the BDA is now complete. To adjust the gain controls to suit the specific signal environment, refer to the next section of the manual. Note : For repeat installations of existing equipment, make sure the attenuation is positioned to its maximum setting (30 dB). After verification attenuation, follow the above steps starting with step 1. BDA Operation: Variable Step Attenuator BDA gain can be reduced by up to 30 dB in 2 dB steps using the variable step attenuator. Gain adjustment is made with rotary switches located on the front panel of the BDA enclosure. Arrows on the shafts of these switches point to the value of attenuation selected. BDA gain can be determined by subtracting the attenuation value from the gain reported on the BDA Test Data Sheet for that side of the unit. The attenuators are labeled for Uplink and Downlink of each band (CELL and PCS). Attenuation System GainArrows on the shafts of these switches point to 0 800 4 764 10 7010 16 6416 20 6020 24 5624 30 5030 Table 1 ALC (Automatic Level Control) To minimize intermodulation products, each amplifier in the BDA contains an ALC feedback loop. The ALC circuit senses the output power and limits it to the factory preset level of +33 dBm. The ALC function is integrated in each amplifier. A red indicator lamp located on each amplifier illuminates when output power exceeds the ALC set point. To establish proper operating gain on the Uplink and Downlink sides, start with the Downlink. Verify that the attenuation is set for 30 dB (minimum system gain). Observe the red indicator lamp on the Downlink amplifier. Units are shipped with maximum attenuation. Decrease attenuation one step at a time until the lamp is lit. Then, increase the attenuation until the lamp goes off. Repeat the process for the Uplink. The level indicator is accurate to +/‐ 0.4 dB of the ALC set point. Operation of the BDA at minimum attenuation with greater than ‐45 dBm average power incident on either BASE or MOBILE port can cause damage to the BDA. Figure 1: Variable Gain Adjustment Access

p1510013_FCC_Part 1.1310_Rev 4.0 Page 1 of 11 Test Report Prepared for: G-Way Microwave Model: BDA-CELLAB/PCSF-33/33-80-AB Description: Dual Band Bi-Directional Amplifier FCC ID: Q8KCELLPCS3380AB To FCC Part 1.1310 Date of Issue: March 24, 2015 On the behalf of the applicant: G-Way Microwave 38 Leuning Street South Hackensack, NJ 07606 Attention of: Gregory Tsvika Blekher, Project Engineer Ph: (201) 343-3140 E-Mail: [email protected] Prepared By Compliance Testing, LLC 1724 S. Nevada Way Mesa, AZ 85204 (480) 926-3100 phone / (480) 926-3598 fax www.compliancetesting.com Project No: p1510013 Mike Graffeo Project Test Engineer This report may not be reproduced, except in full, without written permission from Compliance Testing All results contained herein relate only to the sample tested p1510013_FCC_Part 1.1310_Rev 4.0 Page 2 of 11 Test Report Revision History Revision Date Revised By Reason for Revision 1.0 2/20/2015 Mike Graffeo Original Document 2.0 3/3/2015 Greg Corbin Updated report to match EIRP and antenna data 3.0 3/11/2015 Greg Corbin Recalculated RF Exposure to general population limits 4.0 3/24/2015 Greg Corbin Removed limit table for Controlled Use on pg. 8, Changed Output Power from radiated to conducted and calculated new values on pages 4 – 11. p1510013_FCC_Part 1.1310_Rev 4.0 Page 3 of 11 ILAC / A2LA Compliance Testing, LLC, has been accredited in accordance with the recognized International Standard ISO/IEC 17025:2005. This accreditation demonstrates technical competence for a defined scope and the operation of a laboratory quality management system (refer joint ISO-ILAC-IAF Communiqué dated January 2009) The tests results contained within this test report all fall within our scope of accreditation, unless below Please refer to http://www.compliancetesting.com/labscope.html for current scope of accreditation. Testing Certificate Number: 2152.01 FCC Site Reg. #349717 IC Site Reg. #2044A-2 Non-accredited tests contained in this report: N/A EUT Description Model: BDA-CELLAB/PCSF-33/33-80-AB Description: Dual Band Bi-Directional Amplifier Additional Information: The EUT is a Part 20 dual band industrial bi-directional amplifier. The manufacturer specified 3 different antennas for this device. The antenna with the highest gain was used in the RF Exposure calculations. Antenna Type Frequency Range (MHz) Gain (dBi) Directional Wall Mount 698 - 960 7 1700 - 2700 10 Wide Band High Gain Ceiling 698 - 960 2 1700 - 2700 5 Wied Band log Periodic Yagi 698 - 960 9.5 1700 - 2700 11 p1510013_FCC_Part 1.1310_Rev 4.0 Page 4 of 11 MPE Evaluation for 836.5 MHz This is a Fixed device evaluated to general population (Uncontrolled Exposure) environment. Limits Uncontrolled Exposure 47 CFR 1.1310 Table 1, (B) 0.3-1.234 MHz: Limit [mW/cm²] = 100 1.34-30 MHz: Limit [mW/cm²] = (180/f²) 30-300 MHz: Limit [mW/cm²] = 0.2 300-1500 MHz: Limit [mW/cm²] = f/1500 1500-100,000 MHz Limit [mW/cm²] = 1.0 Test Data Test Frequency, MHz 836.5 Power, Radiated, mW (P) 2754 Antenna Gain Isotropic 9.5dBi Antenna Gain Numeric (G) 8.91 Antenna Type Yagi Distance (R) 20 cm 푆= 푃∗퐺 4휋푟 2 Power Density (S) mw/cm 2 Power mW (P) Numeric Gain (G) Distance (r) cm 6.898 2754 8.91 20 Power Density (S) =6.898 Limit =(from above table) = 0.558 The EUT does not meet the power spectral density requirements at 20 cm with the YAGI antenna, so the minimum safe distance was calculated on the next page. p1510013_FCC_Part 1.1310_Rev 4.0 Page 5 of 11 Minimum Safe Distance Evaluation for 836.5 MHz This is a Fixed device evaluated to general population (Uncontrolled Exposure) environment. Limits Uncontrolled Exposure 47 CFR 1.1310 Table 1, (B) 0.3-1.234 MHz: Limit [mW/cm²] = 100 1.34-30 MHz: Limit [mW/cm²] = (180/f²) 30-300 MHz: Limit [mW/cm²] = 0.2 300-1500 MHz: Limit [mW/cm²] = f/1500 1500-100,000 MHz Limit [mW/cm²] = 1.0 Test Data Test Data for Yagi Antenna Test Frequency, MHz 836.5 Power, Conducted, mW (P) 2754 Antenna Gain Isotropic 9.5 dBi Antenna Gain Numeric (G) 8.91 Limit (L) 0.558 R=√(PG/4πL) Distance (R) cm Power mW (P) Numeric Gain (G) Limit (L) 59.2 2754 8.91 0.558 The minimum safe distance with the YAGI antenna is 59.2 cm at 836.5 MHz p1510013_FCC_Part 1.1310_Rev 4.0 Page 6 of 11 MPE Evaluation for 892.75 MHz This is a Fixed device evaluated to general population (Uncontrolled Exposure) environment. Limits Uncontrolled Exposure 47 CFR 1.1310 Table 1, (B) 0.3-1.234 MHz: Limit [mW/cm²] = 100 1.34-30 MHz: Limit [mW/cm²] = (180/f²) 30-300 MHz: Limit [mW/cm²] = 0.2 300-1500 MHz: Limit [mW/cm²] = f/1500 1500-100,000 MHz Limit [mW/cm²] = 1.0 Test Data Test Frequency, MHz 892.75 Power, Radiated, mW (P) 2630 Antenna Gain Isotropic 9.5dBi Antenna Gain Numeric (G) 8.91 Antenna Type Yagi Distance (R) 20 cm 푆= 푃∗퐺 4휋푟 2 Power Density (S) mw/cm 2 Power mW (P) Numeric Gain (G) Distance (r) cm 4.662 2630 8.91 20 Power Density (S) =4.662 Limit =(from above table) =0.595 The EUT does not meet the power spectral density requirements at 20 cm with the YAGI antenna, so the minimum safe distance was calculated on the next page. p1510013_FCC_Part 1.1310_Rev 4.0 Page 7 of 11 Minimum Safe Distance Evaluation for 892.75 MHz This is a Fixed device evaluated to general population (Uncontrolled Exposure) environment. Limits Uncontrolled Exposure 47 CFR 1.1310 Table 1, (B) 0.3-1.234 MHz: Limit [mW/cm²] = 100 1.34-30 MHz: Limit [mW/cm²] = (180/f²) 30-300 MHz: Limit [mW/cm²] = 0.2 300-1500 MHz: Limit [mW/cm²] = f/1500 1500-100,000 MHz Limit [mW/cm²] = 1.0 Test Data Test Data for Yagi Antenna Test Frequency, MHz 892.75 Power, Conducted, mW (P) 2630 Antenna Gain Isotropic 9.5 dBi Antenna Gain Numeric (G) 8.91 Limit (L) 0.595 R=√(PG/4πL) Distance (R) cm Power mW (P) Numeric Gain (G) Limit (L) 56.0 2630 8.91 0.595 The minimum safe distance with the YAGI antenna is 56.0 cm at 892.75 MHz p1510013_FCC_Part 1.1310_Rev 4.0 Page 8 of 11 MPE Evaluation for 1908.75 MHz This is a Fixed device evaluated to general population (Uncontrolled Exposure) environment. Lim…

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p1510013_FCC_Part 20_Rev 2.0 Page 1 of 106 Test Report Prepared for: G-Way Microwave Model: BDA-CELLAB/PCSF-33/33-80-AB Description: Dual Band Bi-Directional Amplifier FCC ID: Q8KCELLPCS3380AB To FCC Part 20 Date of Issue: March 5, 2015 On the behalf of the applicant: G-Way Microwave 38 Leuning Street South Hackensack, NJ 07606 Attention of: Gregory Tsvika Blekher, Project Engineer Ph: (201) 343-3140 E-Mail: [email protected] Prepared By Compliance Testing, LLC 1724 S. Nevada Way Mesa, AZ 85204 (480) 926-3100 phone / (480) 926-3598 fax www.compliancetesting.com Project No: p1510013 Mike Graffeo Project Test Engineer This report may not be reproduced, except in full, without written permission from Compliance Testing All results contained herein relate only to the sample tested p1510013_FCC_Part 20_Rev 2.0 Page 2 of 106 Test Report Revision History Revision Date Revised By Reason for Revision 1.0 2/20/2015 Mike Graffeo Original Document 2.0 3/3/2015 Greg Corbin Corrected typo’s and copy/paste errors throughout report while performing internal review of the project. p1510013_FCC_Part 20_Rev 2.0 Page 3 of 106 Table of Contents Description Page Standard Test Conditions and Engineering Practices 6 Test Result Summary 8 Radiated Spurious Emissions 8 Authorized Frequency Band 9 Conducted Output Power and Amplifier Gain 12 Conducted Spurious Emissions 17 Radiated Spurious Emissions 54 Occupied Bandwidth 56 Intermodulation 93 Test Equipment Utilized 106 p1510013_FCC_Part 20_Rev 2.0 Page 4 of 106 ILAC / A2LA Compliance Testing, LLC, has been accredited in accordance with the recognized International Standard ISO/IEC 17025:2005. This accreditation demonstrates technical competence for a defined scope and the operation of a laboratory quality management system (refer joint ISO-ILAC-IAF Communiqué dated January 2009) The tests results contained within this test report all fall within our scope of accreditation, unless noted below. Please refer to http://www.compliancetesting.com/labscope.html for current scope of accreditation. Testing Certificate Number: 2152.01 FCC Site Reg. #349717 IC Site Reg. #2044A-2 Non-accredited tests contained in this report: N/A p1510013_FCC_Part 20_Rev 2.0 Page 5 of 106 The Applicant has been cautioned as to the following: 15.21: Information to the User The user’s manual or instruction manual for an intentional radiator shall caution the user that changes or modifications not expressly approved by the party responsible for compliance could void the user’s authority to operate the equipment. 15.27(a): Special Accessories Equipment marketed to a consumer must be capable of complying with the necessary regulations in the configuration in which the equipment is marketed. Where special accessories, such as shielded cables and/or special connectors are required to enable an unintentional or intentional radiator to comply with the emission limits in this part, the equipment must be marketed with, i.e. shipped and sold with, those special accessories. However, in lieu of shipping or packaging the special accessories with the unintentional or intentional radiator, the responsible party may employ other methods of ensuring that the special accessories are provided to the consumer, without an additional charge. Information detailing any alternative method used to supply the special accessories for a grant of equipment authorization or retained in the verification records, as appropriate. The party responsible for the equipment, as detailed in § 2.909 of this chapter, shall ensure that these special accessories are provided with the equipment. The instruction manual for such devices shall include appropriate instructions on the first page of text concerned with the installation of the device that these special accessories must be used with the device. It is the responsibility of the user to use the needed special accessories supplied with the equipment. p1510013_FCC_Part 20_Rev 2.0 Page 6 of 106 Test and Measurement Data All tests and measurement data shown were performed in accordance with FCC Rules and Regulations Part 90.219, KDB 935210 D03 Booster, and FCC Part 2, Part 20.21, Part 22, Part 24, and C63-26D13 where appropriate. Standard Test Conditions and Engineering Practices Except as noted herein, the following conditions and procedures were observed during the testing. In accordance with ANSI/TIA 603C, and unless otherwise indicated in the specific measurement results, the ambient temperature of the actual EUT was maintained within the range of 10° to 40°C (50° to 104°F) unless the particular equipment requirements specify testing over a different temperature range. Also, unless otherwise indicated, the humidity levels were in the range of 10% to 90% relative humidity. Environmental Conditions Temp (ºC) Humidity (%) Pressure (mbar) 23.0 – 29.4 23.3 – 38.1 960.8 – 968.5 Measurement results, unless otherwise noted, are worst-case measurements. EUT Description Model: BDA-CELLAB/PCSF-33/33-80-AB Description: Dual Band Bi-Directional Amplifier Firmware: N/A Software: N/A Accessories: Power adaptor supplied from customer Additional Information: N/A p1510013_FCC_Part 20_Rev 2.0 Page 7 of 106 The signal booster uses the following frequency bands. The emission designators listed are representative emission designators used by transmitters whose signal is amplified by this booster. Frequency Band (MHz) Uplink 824 - 849 1850 - 1910 Downlink 869 - 894 1930 - 1990 Modulation Type GSM, CDMA, EDGE, HSPA. EVDO, LTE Emission Designators CDMA HSPA LTE EVDO EDGE GSM F9W F9W G7D F9W G7W GXW EUT Operation during Tests The output power was set to the maximum level available for all the tests, when applicable. AGC Threshold Several tests reference the AGC Threshold level. The AGC Threshold was measured as follows:  Connect a signal generator to the input of the EUT.  Connect a spectrum analyzer to the output of the EUT using appropriate attenuation.  While monitoring the output of the E…

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Page 1 of 2 Test Setup Photos FCC IC: Q8KCELLPCS3380AB IC: 4901A-CELLPCS3380AB Radiated Emissions below 1 GHz Radiated Emissions above 1 GHz Page 2 of 2 AC Conducted Emissions