OWWF20E-CPMobile Consumer Booster

Consumer signal booster user manual Content What is included ............................................................................ 4 1 HOW IT WORKS ..................................................................................... 4 2 TOOL REQUIRED .................................................................................... 4 3 HOW TO INSTALL YOUR NEW CELLULAR BOOSTER .............................. 5 3.1 Overview ...................................................................................... 5 3.2 Plan the layout of your system .................................................... 7 3.3 Check for Signal Strength ............................................................. 7 3.4 Run coaxial cable.......................................................................... 8 3.5 Install the Donor (Outdoor) antenna ........................................... 9 3.6 Install the Server (Indoor) antenna ............................................. 9 3.7 Install your cellular booster ...................................................... 10 3.8 Power up your cellular booster ................................................ 10 3.9 Check the Cellular Booster Status ............................................. 11 4 UNDERSTAND THE PORTS, MGC DIP SWITCH, LED STATUS ............... 12 4.1 Repeater ports .......................................................................... 12 4.2 Manual gain control (MGC) ...................................................... 12 4.3 LED status .................................................................................. 13 5 UNDERSTAND THE ANTENNA ............................................................ 14 5.1 Donor (Outdoor) antenna ......................................................... 14 5.2 Server (Indoor) antenna ........................................................... 14 5.3 Antenna Kitting Options .............. Error! Bookmark not defined. 6 TROUBLESHOOTING ........................................................................... 17 7 FREQUENTLY ASKED QUESTIONS ....................................................... 19 8 FCC RF Exposure Statement ............................................................... 20 9 Warning .............................................................................................. 21 10 Specification .................................................................................... 21 WHAT IS INCLUDED 1. Booster F20E‐CP 2. Outdoor Yagi 9dbi Antenna & 30’5D Coaxial Cable 3. Indoor Panel 10dbi Antenna & 15’5D Coaxial Cable 4. AC/DC Power Adapter 1 HOW IT WORKS The cellular booster provides reliable two‐way cellular coverage by improving signal strength in homes, buildings, offices, and other areas where cellular reception is weak or unreliable. The system amplifies the signal from the nearest cellular tower and retransmits at a higher power level within a local area. This manual provides simple installation instructions that will have your cellular booster kit running in record time. 2 TOOL REQUIRED Phillips Screwdriver Drill Cellular Phone (to check signal strength) HOW TO INSTALL YOUR NEW CELLULAR BOOSTER 2.1 Overview This guide will help you properly install your cellular booster kit. It is important to read through all of the installation steps before installing your equipment. Thoroughly read through the instructions, visualize where all the equipment will need to be installed and do a soft installation before mounting any equipment. 1 •BOOSTER – select location •Install the booster in an area that is protected from the weather, properly ventilated and is away from excessive heat and moisture. 2 •DONOR ANTENNA (OUTDOOR)‐select location •Mount the signal (outdoor) antenna in an elevated outdoor location so that it points towards the cellular tower and away from where the inside antenna will be located. 3 •OUTDOOR COAXIAL CABLE ‐select location •The outdoor coaxial cable is used to connect the donor (outdoor) antenna to the booster. 4 •INDOOR COAXIAL CABLE‐(if used) •The indoor coaxial cable is used to connect the server (indoor) antenna to the booster. 5 •SERVER ANTENNA (indoor) •The ideal location for the distribution antenna will be the area of your property where you need to improve the signal most. •NOTE:The signal strength will be strongest closest to the antenna. •IMPORTANT: The signal antenna (outdoor)should always be separated from the distribution antenna (indoor)by at least 20 vertical feet including the separation of a thick barrier such as a roof or a wall. Depending on the strength of your outdoor signal, the weaker the signal the less separation distance is required. 7 •LIGHTNING SURGE PROTECTOR‐(SOLD SEPARATELY) •The lightning surge protector connects in between the signal antenna and the booster. •IMPORTANT: Lightning surge protector must be grounded. 8 • COMMISSIONING THE SYSTEM ！ 2.2 Plan the layout of your system Before you get started you will need to plan the layout of your system. This involves checking signal strength for signals coming from the cellular tower, as well as antenna, booster and cable placement. 2.3 Check for Signal Strength Select a location on the roof of the building to install the signal antenna, by monitoring your cellular phone’s signal strength (signal bars) to find the strongest signal from your carrier’s cellular tower. Mark that area as the installation location for the Donor (outdoor) IMPORTANT: Confirm that you have at least 20 feet of vertical distance between the marked antenna location and the location where you will place the Server (indoor) antenna. To prevent the system from oscillation (feedback) you want to ensure that there is enough separation between the distribution and signal antenna or that they are shielded from each other to ensure the distribution antenna does not send a signal back into the signal antenna. If you cannot achieve these separations, either choose an alternate location for the donor (outdoor) antenn…

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Outside Antenna kit Options: Uplink Frequency(MHz) 824‐849 1850‐1910 Uplink Output Power(dBm) 21.1 21.5 1. Yagi 11dBi UNI‐367 with 30' 5D N male Antenna Gain (dBi) 10 11 Coax Cable Loss (dB) 1.7 2.7 Final Gain Less Loss (dB) 8.3 8.3 Final Output Power (dBm EIRP) 29.4 29.8 2. Yagi 11dBi UNI‐367 with 50' 400 N male Antenna Gain (dBi) 10 11 Coax Cable Loss (dB) 2 3 Final Gain Less Loss (dB) 8 8 Final Output Power (dBm EIRP) 29.1 29.5 3. Yagi 11dBi UNI‐367 with 50' 5D N male Antenna Gain (dBi) 10 11 Coax Cable Loss (dB) 2.8 3.8 Final Gain Less Loss (dB) 7.2 7.2 Final Output Power (dBm EIRP) 28.3 28.7 4. Yagi 11dBi UNI‐367 with 75' 400 N male Antenna Gain (dBi) 10 11 Coax Cable Loss (dB) 3 5 Final Gain Less Loss (dB) 7 6 Final Output Power (dBm EIRP) 28.1 27.5 5. Yagi 11dBi UNI‐367 with 100' 400 N male Antenna Gain (dBi) 10 11 Coax Cable Loss (dB) 3.9 6.2 Final Gain Less Loss (dB) 6.1 4.8 Final Output Power (dBm EIRP) 27.2 26.3 6. Yagi 11dBi UNI‐367 with 75' 5D N male Antenna Gain (dBi) 10 11 Coax Cable Loss (dB) 4.2 5.7 Final Gain Less Loss (dB) 5.8 5.3 Final Output Power (dBm EIRP) 26.9 26.8 7. Yagi 11dBi UNI‐367 with 100' 5D N male Antenna Gain (dBi) 10 11 Coax Cable Loss (dB) 5 8 Final Gain Less Loss (dB) 5 3 Final Output Power (dBm EIRP) 26.1 24.5 8. Panel 10dBi UNI‐363 with 30' 5D N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 1.1 1.6 Final Gain Less Loss (dB) 5.4 7.8 Final Output Power (dBm EIRP) 26.5 29.3 9. Panel 10dBi UNI‐363 with 30' 5D N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 1.7 2.7 Final Gain Less Loss (dB) 4.8 6.7 Final Output Power (dBm EIRP) 25.9 28.2 10. Panel 10dBi UNI‐363 with 50' 400 N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 2 3 Final Gain Less Loss (dB) 4.5 6.4 Final Output Power (dBm EIRP) 25.6 27.9 11. Panel 10dBi UNI‐363 with 50' 5D N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 2.8 3.8 Final Gain Less Loss (dB) 3.7 5.6 Final Output Power (dBm EIRP) 24.8 27.1 12. Panel 10dBi UNI‐363 with 75' 400 N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 3 5 Final Gain Less Loss (dB) 3.5 4.4 Final Output Power (dBm EIRP) 24.6 25.9 13. Panel 10dBi UNI‐363 with 100' 400 N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 3.9 6.2 Final Gain Less Loss (dB) 2.6 3.2 Final Output Power (dBm EIRP) 23.7 24.7 14. Panel 10dBi UNI‐363 with 75' 5D N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 4.2 5.7 Final Gain Less Loss (dB) 2.3 3.7 Final Output Power (dBm EIRP) 23.4 25.2 15. Panel 10dBi UNI‐363 with 100' 5D N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 5 8 Final Gain Less Loss (dB) 1.5 1.4 Final Output Power (dBm EIRP) 22.6 22.9 16. Yagi 9dBi UNI‐366 with 30' 5D N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 1.1 1.6 Final Gain Less Loss (dB) 6.9 7.9 Final Output Power (dBm EIRP) 28 29.4 17. Yagi 9dBi UNI‐366 with 30' 5D N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 1.7 2.7 Final Gain Less Loss (dB) 6.3 6.8 Final Output Power (dBm EIRP) 27.4 28.3 18. Yagi 9dBi UNI‐366 with 50' 400 N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 2 3 Final Gain Less Loss (dB) 6 6.5 Final Output Power (dBm EIRP) 27.1 28 19. Yagi 9dBi UNI‐366 with 50' 5D N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 2.8 3.8 Final Gain Less Loss (dB) 5.2 5.7 Final Output Power (dBm EIRP) 26.3 27.2 20. Yagi 9dBi UNI‐366 with 75' 400 N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 3 5 Final Gain Less Loss (dB) 5 4.5 Final Output Power (dBm EIRP) 26.1 26 21. Yagi 9dBi UNI‐366 with 100' 400 N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 3.9 6.2 Final Gain Less Loss (dB) 4.1 3.3 Final Output Power (dBm EIRP) 25.2 24.8 22. Yagi 9dBi UNI‐366 with 75' 5D N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 4.2 5.7 Final Gain Less Loss (dB) 3.8 3.8 Final Output Power (dBm EIRP) 24.9 25.3 23. Yagi 9dBi UNI‐366 with 100' 5D N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 5 8 Final Gain Less Loss (dB) 3 1.5 Final Output Power (dBm EIRP) 24.1 23 24. Omni 9dBi UNI‐368 with 30' 5D N male Antenna Gain (dBi) 9 9 Coax Cable Loss (dB) 1.1 1.6 Final Gain Less Loss (dB) 7.9 7.4 Final Output Power (dBm EIRP) 29 28.9 25. Omni 9dBi UNI‐368 with 30' 5D N male Antenna Gain (dBi) 9 9 Coax Cable Loss (dB) 1.7 2.7 Final Gain Less Loss (dB) 7.3 6.3 Final Output Power (dBm EIRP) 28.4 27.8 26. Omni 9dBi UNI‐368 with 50' 400 N male Antenna Gain (dBi) 9 9 Coax Cable Loss (dB) 2 3 Final Gain Less Loss (dB) 7 6 Final Output Power (dBm EIRP) 28.1 27.5 27. Omni 9dBi UNI‐368 with 50' 5D N male Antenna Gain (dBi) 9 9 Coax Cable Loss (dB) 2.8 3.8 Final Gain Less Loss (dB) 6.2 5.2 Final Output Power (dBm EIRP) 27.3 26.7 28. Omni 9dBi UNI‐368 with 75' 400 N male Antenna Gain (dBi) 9 9 Coax Cable Loss (dB) 3 5 Final Gain Less Loss (dB) 6 4 Final Output Power (dBm EIRP) 27.1 25.5 29. Omni 9dBi UNI‐368 with 100' 400 N male Antenna Gain (dBi) 9 9 Coax Cable Loss (dB) 3.9 6.2 Final Gain Less Loss (dB) 5.1 2.8 Final Output Power (dBm EIRP) 26.2 24.3 30. Omni 9dBi UNI‐368 with 75' 5D N male Antenna Gain (dBi) 9 9 Coax Cable Loss (dB) 4.2 5.7 Final Gain Less Loss (dB) 4.8 3.3 Final Output Power (dBm EIRP) 25.9 24.8 31. Omni 9dBi UNI‐368 with 100' 5D N male Antenna Gain (dBi) 9 9 Coax Cable Loss (dB) 5 8 Final Gain Less Loss (dB) 4 1 Final Output Power (dBm EIRP) 25.1 22.5 Inside Antenna kit Options: Uplink Frequency(MHz) 824-869 1850-1910 Mesured Uplink Gain(dB) 61.1 70.5 MSCL Minimun (dB) 30.2 36.8 6' Searation Disdance Path Loss (dB) 36.16 43.21 Polarity Loss (dB) 3 3 Max Antenna Gain with Coax Loss (dB)8.96 9.41 1. Whip 5dBi SIG-373 Antenna Gain (dBi) 5 5 Coax Cable Loss (dB) 0 0 Final Gain Less Loss (dB) 5 5 Margan (dB) -3.96 -4.41 2. Panel 10dBi UNI‐363 with 3' 5D N Male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 0.2 0.3 Final Gain Less Loss (dB) 7.8 9.2 Margan (dB) ‐1.16 ‐0.21 3. Panel 10dBi UNI‐363 with 15' 5D N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 1.1 1.6 Final Gain Less Loss (dB) 6.9 7.9 Margan (dB) ‐2.06 ‐1.51 4. Panel 10dBi UNI‐363 with 30' 4…

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Kitting Options AntennaCableAntenna Cable Yagi 9dbi30' 5D N maleWhip 5dbi None Yagi 9dbi50' 5D N malePanel 10dbi 3' 5D N Male Yagi 9dbi75' 5D N malePanel 10dbi 15' 5D N Male Yagi 9dbi100' 5D N malePanel 10dbi 30' 5D N Male Yagi 9dbi30' 400 N malePanel 10dbi 50' 5D N Male Yagi 9dbi50' 400 N malePanel 10dbi 75' 5D N Male Yagi 9dbi75' 400 N malePanel 10dbi 100' 5D N Male Yagi 9dbi100' 400 N malePanel 10dbi 30' 400 N male Yagi 11dbi30' 5D N malePanel 10dbi 50' 400 N male Yagi 11dbi50' 5D N malePanel 10dbi 75' 400 N male Yagi 11dbi75' 5D N malePanel 10dbi 100' 400 N male Yagi 11dbi100' 5D N maleOmni 3dbi 3' 5D N Male Yagi 11dbi30' 400 N maleOmni 3dbi 15' 5D N Male Yagi 11dbi50' 400 N maleOmni 3dbi 30' 5D N Male Yagi 11dbi75' 400 N maleOmni 3dbi 50' 5D N Male Yagi 11dbi100' 400 N maleOmni 3dbi 75' 5D N Male Panel 10dbi 30' 5D N maleOmni 3dbi 100' 5D N Male Panel 10dbi 50' 5D N maleOmni 3dbi 30' 400 N male Panel 10dbi 75' 5D N maleOmni 3dbi 50' 400 N male Panel 10dbi 100' 5D N maleOmni 3dbi 75' 400 N male Panel 10dbi 30' 400 N maleOmni 3dbi 100' 400 N male Panel 10dbi 50' 400 N male Panel 10dbi 75' 400 N male Panel 10dbi 100' 400 N male Omni 5dbi30' 5D N male Omni 5dbi50' 5D N male Omni 5dbi75' 5D N male Omni 5dbi100' 5D N male Omni 5dbi30' 400 N male Omni 5dbi50' 400 N male Omni 5dbi75' 400 N male Omni 5dbi100' 400 N male OutdoorIndoor

800-2500MHz 3dBi Ceiling Antenna Features *GSM/CDMA/PCS/3G/WLAN *800 to 2500MHz band *Broadband, Low VSWR *Good appearance Specification Model UNI-372 / SIG-372 Frequency Range 824~960MHz 1710~2500MHz Gain 3 dBi VSWR ≤1.5 Polarization Type Vertical Input Impedance 50Ω Horizontal Beamwidth 360° Vertical Beamwidth 75° Maximum Power 50W Connector Type N-male Lighting Protection DC Ground Dimension Φ166×90mm Weight 0.3Kg Rated Wind Velocity 140km/h Working Temperature -40°C~+65°C

680-2700MHz 7 / 9 dBi LTE Panel Antenna Applications: * Premium line for TDD/FDD-LTE * 698 to 960/1700 to 2700MHz band * Indoor coverage system * Outdoor coverage system also available; sealed and pole mount Features: *Broad band, Cover 700 to 2700MHz common system * Light weight, Small size * UV stable ABS radome Specification Model Indoor UNI-374 / SIG-374 Model Outdoor UNI-363 / SIG-363 Frequency Range 680~960 1710-2700 Gain 6.5dBi 9.4dBi VSWR ≤1.5 Polarization Type Vertical Input Impedance 50Ω Horizontal Beamwidth 70° 60° Vertical Beamwidth 55° 45° Maximum Power 50W Connector Type N-female or user specified Lighting Protection DC Ground Dimension 210*180*43mm Weight 0.68Kg Rated Wind Velocity 126km/h Working Temperature -40°C~+65°C Carton size: ----

680-2700MHz 9 dBi LTE LPDA Antenna Applications: *Premium line for TDD/FDD-LTE * Wireless communications and data transmission system, Repeater * Indoor and outdoor directional coverage *Sealed with radome, strong protect Features: *Broad band, Stable performance * Low VSWR, High gain * Support the popular communications system currently * Sealed with radome, Strong protection ability * Supplied with down-tilt bracket kit Specification Model UNI-366 / SIG-366 Frequency Range 680~960MHz 1710~2700MHz Gain 8 dBi 9.5 dBi VSWR ≤1.5 Polarization Type Vertical Input Impedance 50Ω Horizontal Beamwidth 85° 60° Vertical Beamwidth 60° 50° Maximum Power 50W Connector Type N-Female Lighting Protection DC Ground Dimension 293×210×65 mm Weight 0.92Kg Rated Wind Velocity 140km/h Working Temperature -40°C~+65°C

680-2700MHz 11dBi LTE LPDA Antenna Applications: *Premium line for TDD/FDD-LTE * Wireless communications and data transmission system, Repeater * Indoor and outdoor directional coverage *Sealed with radome, strong protect Features: *Broad band, Stable performance * Low VSWR, High gain * Support the popular communications system currently * Sealed with radome, Strong protection ability * Supplied with down-tilt bracket kit Specification Model UNI-367 / SIG-367 Frequency Range 680~960MHz 1710~2700MHz Gain 10 dBi 11 dBi VSWR ≤1.7 ≤1.5 Polarization Type Vertical Input Impedance 50Ω Horizontal Beamwidth 65° 60° Vertical Beamwidth 50° 40° Front to Back Ratio ≥15dB ≥18dB Maximum Power 50W Connector Type N-Female Lighting Protection DC Ground Dimension 442*205*62mm Weight 1.2Kg Rated Wind Velocity 140km/h Working Temperature -40°C~+65°C

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\2014\p1470016-Huaptec\TCB Folder\RT's\CB-7.2.1 - Technical Review RT Form.docx CB-7.2.1 – Technical Review RT Form FCC ID: OWWF20E-CP IC ID: CT Project: P1470016 From: Shawn McMillen Date: 09/12/2014 1--The confidentiality letters, ST and LT, should only make reference to the FCC ID applicable to this application. DW: Customer notified, ST not needed / removed. 2--The internal photos show the back side of the unit with what appears to be a shield of some sorts. Please provide a picture of the back of the PCB without any shielding. DW: Internal photos w/o shield provided. 3--The test setup photos do not show how emissions above 1GHz were measured. The equipment list shows an EMCO 3115 was used however. GC: Test Set-up photos for radiated emissions above 1 GHz have been supplied. 4--The user’s manual is missing the required RF exposure statements. DW: Customer added. Revised manual saved. 5--The EUT appears to be a 70dB gain amplifier however the user’s manual indicates it as only 60dB. DW: Customer fixed. See revised manual. 6--The EMC report has a DRAFT water mark on it. Please remove. DW: Official report in folder. 7--For future applications please try and reduce, if possible, the input attenuation when measuring the input signals to the EUT. The occupied bandwidth plots provided for input versus output are difficult to determine if the carrier is maintained. GC: Noted 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\2014\p1470016-Huaptec\TCB Folder\RT's\CB-7.2.1 - Technical Review RT Form.docx 8--Can’t find the MPE calculations. DW: Customer provided. CT - Response by: Submitted by: Date:

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MPE Calculations for a fixed consumer booster.  model F20E‐CP (p1470016) booster:  800 MHz band： 1. Fixed Outside Antenna: UNI‐367 2. Inside Antenna: UNI‐363  1900 MHz band： 1. Fixed Outside Antenna: UNI‐367 2. Inside Antenna: UNI‐363  Calculate Power Density a. Calculated Power Density = 1000*EIRP (Watts)/(4*π*(Distance from Antenna (cm) 2 )) b. Calculated Power Density (S) = Output Power (P)*Antenna Gain(G)/ (4*π*(Distance from Antenna (r) 2 )) c. S=P*G/(4*π*r 2 ) i. S = Calculated Power Density ii. G = Numeric antenna gain 1. Add the Antenna gain (dBi) + Cable Loss (dB) and convert to a numeric value, this information should come from the antenna kitting information and if multiple antenna kits are provided, the worst case values need to be used. 2. G= POWER(10,(Ant Gain+Cable loss)/10)) iii. P=Conducted Output Power in mw iv. r = Distance from antenna in cm Uplink Band Uplink Frequency Sig Gen PowerOutput Power Gain MHz dBm dBm dB 824 - 849 MHz Pulsed CW 841.50 -40.0 21.1 61.1 824 - 849 MHz AWGN 841.50 -41.0 19.9 60.9 1850 - 1910 MHz Pulsed CW 1888.93 -47.4 21.5 68.9 1850 - 1910 MHz AWGN 1888.93 -50.9 19.4 70.3 Downlink Band Downlink FrequencySig Gen PowerOutput Power Gain MHz dBm dBm dB 869 - 894 MHz Pulsed CW 879.69 -65.8 -2.0 63.8 869 - 894 MHz AWGN 879.69 -69.2 -6.1 63.1 1930 - 1990 MHz Pulsed CW 1970.09 -70.0 -0.3 69.7 1930 - 1990 MHz AWGN 1970.09 -70.9 -1.6 69.3 Outside Antenna kit Options: Uplink Frequency(MHz) 824‐849 1850‐1910 Uplink Output Power(dBm) 21.1 21.5 1. Yagi 11dbi UNI‐367 with 30' 5D N male Antenna Gain (dBi) 10 11 Coax Cable Loss (dB) 1.7 2.7 Final Gain Less Loss (dB) 8.3 8.3 Final Output Power (dBm EIRP) 29.4 29.8 2. Yagi 11dbi UNI‐367 with 50' 400 N male Antenna Gain (dBi) 10 11 Coax Cable Loss (dB) 2 3 Final Gain Less Loss (dB) 8 8 Final Output Power (dBm EIRP) 29.1 29.5 3. Yagi 11dbi UNI‐367 with 50' 5D N male Antenna Gain (dBi) 10 11 Coax Cable Loss (dB) 2.8 3.8 Final Gain Less Loss (dB) 7.2 7.2 Final Output Power (dBm EIRP) 28.3 28.7 4. Yagi 11dbi UNI‐367 with 75' 400 N male Antenna Gain (dBi) 10 11 Coax Cable Loss (dB) 3 5 Final Gain Less Loss (dB) 7 6 Final Output Power (dBm EIRP) 28.1 27.5 5. Yagi 11dbi UNI‐367 with 100' 400 N male Antenna Gain (dBi) 10 11 Coax Cable Loss (dB) 3.9 6.2 Final Gain Less Loss (dB) 6.1 4.8 Final Output Power (dBm EIRP) 27.2 26.3 6. Yagi 11dbi UNI‐367 with 75' 5D N male Antenna Gain (dBi) 10 11 Coax Cable Loss (dB) 4.2 5.7 Final Gain Less Loss (dB) 5.8 5.3 Final Output Power (dBm EIRP) 26.9 26.8 7. Yagi 11dbi UNI‐367 with 100' 5D N male Antenna Gain (dBi) 10 11 Coax Cable Loss (dB) 5 8 Final Gain Less Loss (dB) 5 3 Final Output Power (dBm EIRP) 26.1 24.5 8. Panel 10dbi UNI‐363 with 30' 5D N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 1.1 1.6 Final Gain Less Loss (dB) 5.4 7.8 Final Output Power (dBm EIRP) 26.5 29.3 9. Panel 10dbi UNI‐363 with 30' 5D N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 1.7 2.7 Final Gain Less Loss (dB) 4.8 6.7 Final Output Power (dBm EIRP) 25.9 28.2 10. Panel 10dbi UNI‐363 with 50' 400 N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 2 3 Final Gain Less Loss (dB) 4.5 6.4 Final Output Power (dBm EIRP) 25.6 27.9 11. Panel 10dbi UNI‐363 with 50' 5D N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 2.8 3.8 Final Gain Less Loss (dB) 3.7 5.6 Final Output Power (dBm EIRP) 24.8 27.1 12. Panel 10dbi UNI‐363 with 75' 400 N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 3 5 Final Gain Less Loss (dB) 3.5 4.4 Final Output Power (dBm EIRP) 24.6 25.9 13. Panel 10dbi UNI‐363 with 100' 400 N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 3.9 6.2 Final Gain Less Loss (dB) 2.6 3.2 Final Output Power (dBm EIRP) 23.7 24.7 14. Panel 10dbi UNI‐363 with 75' 5D N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 4.2 5.7 Final Gain Less Loss (dB) 2.3 3.7 Final Output Power (dBm EIRP) 23.4 25.2 15. Panel 10dbi UNI‐363 with 100' 5D N male Antenna Gain (dBi) 6.5 9.4 Coax Cable Loss (dB) 5 8 Final Gain Less Loss (dB) 1.5 1.4 Final Output Power (dBm EIRP) 22.6 22.9 16. Yagi 9db UNI‐366 with 30' 5D N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 1.1 1.6 Final Gain Less Loss (dB) 6.9 7.9 Final Output Power (dBm EIRP) 28 29.4 17. Yagi 9db UNI‐366 with 30' 5D N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 1.7 2.7 Final Gain Less Loss (dB) 6.3 6.8 Final Output Power (dBm EIRP) 27.4 28.3 18. Yagi 9db UNI‐366 with 50' 400 N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 2 3 Final Gain Less Loss (dB) 6 6.5 Final Output Power (dBm EIRP) 27.1 28 19. Yagi 9db UNI‐366 with 50' 5D N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 2.8 3.8 Final Gain Less Loss (dB) 5.2 5.7 Final Output Power (dBm EIRP) 26.3 27.2 20. Yagi 9db UNI‐366 with 75' 400 N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 3 5 Final Gain Less Loss (dB) 5 4.5 Final Output Power (dBm EIRP) 26.1 26 21. Yagi 9db UNI‐366 with 100' 400 N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 3.9 6.2 Final Gain Less Loss (dB) 4.1 3.3 Final Output Power (dBm EIRP) 25.2 24.8 22. Yagi 9db UNI‐366 with 75' 5D N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 4.2 5.7 Final Gain Less Loss (dB) 3.8 3.8 Final Output Power (dBm EIRP) 24.9 25.3 23. Yagi 9db UNI‐366 with 100' 5D N male Antenna Gain (dBi) 8 9.5 Coax Cable Loss (dB) 5 8 Final Gain Less Loss (dB) 3 1.5 Final Output Power (dBm EIRP) 24.1 23 24. Omni 5dbi with 30' 5D N male Antenna Gain (dBi) 5 5 Coax Cable Loss (dB) 1.1 1.6 Final Gain Less Loss (dB) 3.9 3.4 Final Output Power (dBm EIRP) 25 24.9 25. Omni 5dbi with 30' 5D N male Antenna Gain (dBi) 5 5 Coax Cable Loss (dB) 1.7 2.7 Final Gain Less Loss (dB) 3.3 2.3 Final Output Power (dBm EIRP) 24.4 23.8 26. Omni 5dbi with 50' 400 N male Antenna Gain (dBi) 5 5 Coax Cable Loss (dB) 2 3 Final Gain Less Loss (dB) 3 2 Final Output Power (dBm EIRP) 24.1 23.5 27. Omni 5dbi with 50' 5D N male Antenna Gain (dBi) 5 5 Coax Cable Loss (dB) 2.8 3.8 Final Gain Less Loss (dB) 2.2 1.2 Final Output Power (dBm EIRP) 23.3 22.7 28. Omni…

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MSCL CALCULATION RESULT Model: F20E‐CP (dual band,70db) FCC ID: OWWF20E‐CP The MSCL for all three types of our repeater are the same: Frequency 836.5MHz 1880MHz Path Loss (dB) 36.1 43.2 Polarity Loss (dB) 3 3 Antenna Gain w/ Coax Loss (dB) 1.5 2.5 MSCL (dB) 37.6 43.7

p1470016_FCC_Part 20_Rev 2.0 Page 1 of 71 Test Report Prepared for: Huaptec Model: F20E-CP Description: Dual Band, 70db Serial Number: F20E-CP140805001 FCC ID: OWWF20E-CP To FCC Part 20 Date of Issue: September 12, 2014 On the behalf of the applicant: Shenzhen Huaptec Co., Ltd. 5 th FL, E BLDG, Sogood Science Park Hangkong Road Xixiang, Bao'an Shenzhen 518102 China To the attention of: Yanwei Wang, General Manager Ph: 86-755-61196866 Email: [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: p1470016 Greg Corbin 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. p1470016_FCC_Part 20_Rev 2.0 Page 2 of 71 Test Report Revision History Revision Date Revised By Reason for Revision 1.0 August 22, 2014 Greg Corbin Original Document 2.0 October 21,2014 Greg Corbin Updated Variable Noise and Gain tables to include 2 points within the RSSI dependent region, pages38, 39, 40 p1470016_FCC_Part 20_Rev 2.0 Page 3 of 71 Table of Contents Description Page Standard Test Conditions and Engineering Practices 5 Test Result Summary 6 Authorized Frequency Band 7 Maximum Power and Gain 10 Intermodulation 12 Out-of-Band Emissions 15 Conducted Spurious Emissions 29 Noise Limits 36 Uplink Inactivity 43 Variable Gain 45 Occupied Bandwidth 47 Oscillation Detection 60 Radiated Spurious 68 Test Equipment Utilized 71 p1470016_FCC_Part 20_Rev 2.0 Page 4 of 71 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 to the 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 p1470016_FCC_Part 20_Rev 2.0 Page 5 of 71 Test and Measurement Data Sub-part 2.1033(c)(14): All tests and measurement data shown were performed in accordance with FCC Rules and Regulations, Part 2, Subpart J and the following individual Parts: 20.21 in conjunction with latest version of KDB 935210. Standard Test Conditions and Engineering Practices Except as noted herein, the following conditions and procedures were observed during the testing: In accordance with ANSI/C63.4-2009, 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 specified 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) 24.9 – 28.7 37.9 – 51.3 963.9 – 971.3 Measurement results, unless otherwise noted, are worst-case measurements. EUT Description Model: F20E-CP Description: Dual Band,70db Serial Number: F20E-CP140805001 Additional Information: The EUT is an In-Building bi-directional amplifier for the boosting of cellular phone signals and data communication devices. The following frequency bands and emission types are utilized. 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 The modulation types and emission designators listed in the tables represent the modulations that the cell phone providers use for each frequency band. GSM, CDMA, and WCDMA represent all the modulation types (phase and amplitude or a combination thereof) utilized within the industry. EDGE, HSPA, LTE etc. are all protocols or multiplexing techniques using the base modulations. EUT Operation during Tests The EUT was in a normal operating condition. p1470016_FCC_Part 20_Rev 2.0 Page 6 of 71 Test Result Summary Specification Test Name Pass, Fail, N/A Comments 20.21(e)(3) Authorized Frequency Band Pass 20.21(e)(8)(i)(B) 20.21(e)(8)(i)(C) 20.21(e)(8)(i)(D) Maximum Power and Gain Pass 20.21(e)(8)(i)(F) Intermodulation Pass 20.21(e)(8)(i)(E) Out-of-Band Emissions Pass 2.1051 22.917(a) 24.238(a) Conducted Spurious Emissions Pass 20.21(e)(8)(i)(A) Noise Limits Pass 20.21(e)(8)(i)(I) Uplink Inactivity Pass 20.21(e)(8)(i)(C)(1) 20.21(e)(8)(i)(H) 20.21(e)(8)(i)(C)(2)(i) (Fixed) Variable Gain Pass 2.1049 Occupied Bandwidth Pass 20.21(e)(8)(ii)(A) Oscillation Detection Pass 2.1053 Radiated Spurious Pass 20.21(e)(8)(i)(B) Spectrum Block Filtering N/A This only applies to devices utilizing spectrum block filtering p1470016_FCC_Part 20_Rev 2.0 Page 7 of 71 Authorized Frequency Band Engineer: Greg Corbin Test Date: 8/13/2014 Test Procedure The EUT was connected to a spectrum analyzer through an attenuator with the losses being input into the spectrum analyzer as a combination of reference level offset and correction factor as needed to ensure accurate readings. A signal generator was utilized to produce a CW input signal tuned to the center channel of the operational ba…

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