FCC PART RSS-GEN, ISSUE 5, APRIL 2018 RSS-247, ISSUE 2, FEBRUARY 2017 TEST REPORT SZ DJI TECHNOLOGY CO., LTD

Transcription

1 FCC PART RSS-GEN, ISSUE 5, APRIL 208 RSS-247, ISSUE 2, FEBRUARY 207 TEST REPORT For SZ DJI TECHNOLOGY CO., LTD 4th floor, West Wing, Skyworth Semiconductor Design Building NO.8 Gaoxin South 4th Ave, Nanshan, Shenzhen, Guangdong, China FCC ID: SS3-GL900A8 IC: 805A-GL900A8 Report Type: Original Report Product Type: Remote Controller Report Number: RDG B Report Date: Jerry Zhang Reviewed By: Test Laboratory: EMC Manager No.69 Pulongcun, Puxinhu Industry Area, Tangxia, Dongguan, Guangdong, China Tel: Fax: Note: This test report is prepared for the customer shown above and for the device described herein. It may not be duplicated or used in part without prior written consent from. This report must not be used by the customer to claim product certification, approval, or endorsement by A2LA* or any agency of the Federal Government. * This report may contain data that are not covered by the A2LA accreditation and are marked with an asterisk *.

2 TABLE OF CONTENTS GENERAL INFORMATION... 4 PRODUCT DESCRIPTION FOR EQUIPMENT UNDER TEST (EUT)... 4 OBJECTIVE... 4 RELATED SUBMITTAL(S)/GRANT(S)... 4 TEST METHODOLOGY... 4 MEASUREMENT UNCERTAINTY... 5 TEST FACILITY... 5 SYSTEM TEST CONFIGURATION... 6 DESCRIPTION OF TEST CONFIGURATION... 6 EQUIPMENT MODIFICATIONS... 6 EUT EXERCISE SOFTWARE... 6 LOCAL SUPPORT EQUIPMENT LIST AND DETAILS... 9 SUPPORT CABLE LIST AND DETAILS... 9 BLOCK DIAGRAM OF TEST SETUP... 9 SUMMARY OF TEST RESULTS... 0 FCC (i) &.30 & 2.093, RSS RF EXPOSURE... APPLICABLE STANDARD... TEST RESULT... FCC 5.203& RSS-GEN CLAUSE ANTENNA REQUIREMENT... 2 APPLICABLE STANDARD... 2 ANTENNA INFORMATION AND CONNECTOR CONSTRUCTION... 3 FCC (a) & RSS-GEN CLAUSE 8.8 AC LINE CONDUCTED EMISSIONS... 4 APPLICABLE STANDARD... 4 EUT SETUP... 4 EMI TEST RECEIVER SETUP... 4 TEST PROCEDURE... 5 CORRECTED AMPLITUDE & MARGIN CALCULATION... 5 TEST EQUIPMENT LIST AND DETAILS... 5 TEST DATA... 6 FCC 5.209, 5.205, 5.247(d) & RSS-247 CLAUSE 5.5, RSS-GEN CLAUSE 8.0- SPURIOUS EMISSIONS... 8 APPLICABLE STANDARD... 8 EUT SETUP... 8 EMI TEST RECEIVER & SPECTRUM ANALYZER SETUP... 9 TEST PROCEDURE... 9 CORRECTED AMPLITUDE & MARGIN CALCULATION... 9 TEST EQUIPMENT LIST AND DETAILS TEST DATA FCC 5.247(a) (2) & RSS-247 CLAUSE 5.2 a) &RSS-GEN CLAUSE db EMISSION BANDWIDTH AND 99% OCCUPIED BANDWIDTH APPLICABLE STANDARD TEST PROCEDURE TEST EQUIPMENT LIST AND DETAILS TEST DATA FCC 5.247(b) (3)& RSS-247 CLAUSE 5.4 d) - MAXIMUM PEAK CONDUCTED OUTPUT POWER Page 2 of 64

3 APPLICABLE STANDARD TEST PROCEDURE TEST EQUIPMENT LIST AND DETAILS TEST DATA FCC 5.247(d)& RSS-247 CLAUSE khz BANDWIDTH OF FREQUENCY BAND EDGE APPLICABLE STANDARD TEST PROCEDURE TEST EQUIPMENT LIST AND DETAILS TEST DATA FCC 5.247(e) & RSS-247 CLAUSE 5.2 b - POWER SPECTRAL DENSITY APPLICABLE STANDARD TEST PROCEDURE TEST EQUIPMENT LIST AND DETAILS TEST DATA Page 3 of 64

4 GENERAL INFORMATION Product Description for Equipment under Test (EUT) Nominal Adapter Information EUT Type: EUT Name: EUT Model: FCC ID: IC: Rated Input Voltage: Model: Output: External Dimension: Remote Controller Cendence S GL900A SS3-GL900A8 805A-GL900A8 DC7.6V from battery or DC 26.V from adapter IN2C80 Input: VAC~50/60Hz 2.5A 26.V--6.9A (Total) 68mm(L)* 205mm(W)* 80 mm(h) Serial Number: 8300 EUT Received Date: Objective This report is prepared on behalf of SZ DJI TECHNOLOGY CO., LTD in accordance with Part 2, Subpart J, Part 5, Subparts A, and C of the Federal Communications Commission s rules and RSS-247, Issue 2, February 207, RSS-Gen Issue 5, April 208 of the Innovation, Science and Economic Development Canada. The tests were performed in order to determine the compliance of the EUT with FCC Rules Part 5- Subpart C, section 5.203, 5.205,5.207, 5.209, rules and RSS-247, Issue 2, February 207, RSS-Gen Issue 5, April 208 of the Innovation, Science and Economic Development Canada. Related Submittal(s)/Grant(s) FCC Part 5E NII and Part 5B JAB submissions with FCC ID: SS3-GL900A8. RSS-247 NII submissions with IC:805A-GL900A8. Part of system submissions with FCC ID: SS3-M200V28, IC: 805A-M200V28. Test Methodology All measurements contained in this report were conducted with ANSI C , American National Standard of Procedures for Compliance Testing of Unlicensed Wireless Devices and KDB D Meas Guidance v05, and RSS-247, Issue 2, February 207, RSS-Gen Issue 5, April 208 of the Innovation, Science and Economic Development Canada. All emissions measurement was performed and. Page 4 of 64

5 Measurement Uncertainty Parameter Measurement Uncertainty Occupied Channel Bandwidth ±5 % RF output power, conducted ±0.6dB Power Spectral Density, conducted ±0.6 db 30M~200MHz: 4.55 db,200m~ghz: 5.92 db, Unwanted Emissions, radiated G~6GHz: 4.98 db, 6G~8GHz: 5.89 db, 8G~26.5G:5.47 db,26.5g~40g:5.63 db Unwanted Emissions, conducted ±.5 db Temperature ± Humidity ±5% DC and low frequency voltages ±0.4% Duty Cycle % AC Power Lines Conducted Emission 3.2 db (50 khz to 30 MHz) Test Facility The Test site used by to collect test data is located on the No.69 Pulongcun, Puxinhu Industry Area, Tangxia, Dongguan, Guangdong, China. The lab has been recognized as the FCC accredited lab under the KDB D0 and is listed in the FCC Public Access Link (PAL) database, FCC Registration No. : 89728, the FCC Designation No. : CN220. The lab has been recognized by Innovation, Science and Economic Development Canada to test to Canadian radio equipment requirements, the CAB identifier : CN0022. Page 5 of 64

6 SYSTEM TEST CONFIGURATION Description of Test Configuration The system was configured for testing in engineering mode. The device supports SDR modes (including.4mhz mode, 0MHz mode, 20 MHz mode), the system configure T2R, only main antenna can transmit. For.4MHz modes, 38 channels are provided to testing: Frequency Channel (MHz) Channel Frequency (MHz) For 0MHz modes, the device employs 73 channels as below: Frequency Channel Channel (MHz) Frequency (MHz) / / For 20MHz modes, the device employs 63 channels as below: Frequency Channel Channel (MHz) Frequency (MHz) / / Equipment Modifications No modification was made to the EUT tested. EUT Exercise Software The software OCUSYNC-DjiSdrConsole_V was used for testing, which was provided by manufacturer. The maximum power with maximum duty cycle was configured as default setting, Per pretest the conducted output power, 0MHz, 20MHz mode s power in difference power level, all test items performed at Low, Middle and High Channel, radiation bandedge test and output power were tested with additional channels according to the pretest output power test results. Page 6 of 64

7 The maximum duty cycle as following table: Test mode T on T on+off Duty Cycle (ms) (ms) (%).4MHz MHz % 20MHz %.4M Ref 30 dbm * Att 30 db PK * CLRWR 0 Offset 0.8 db RBW 3 MHz * VBW 3 MHz SWT 2 ms Delta 2 [T ] 0.27 db µs dbm µs Delta [T ].3 db µs A SGL Center GHz 200 µs/ Date: 2.NOV.208 :8:36 Page 7 of 64

8 0M Ref 25.8 dbm * Att 20 db RBW 0 MHz * VBW 0 MHz SWT 00 ms 20 Offset 0.8 db A PK * CLRWR Center GHz 0 ms/ Date: 9.NOV.208 0:4:54 20M Ref 25.8 dbm * Att 20 db RBW 0 MHz * VBW 0 MHz SWT 00 ms 20 Offset 0.8 db A PK * CLRWR Center GHz 0 ms/ Date: 9.NOV.208 0:4:06 Page 8 of 64

9 Local Support Equipment List and Details Manufacturer Description Model Serial Number DJI CrystalSky Tablet CS785 / APPLE iphone 6 Plus(Phone) MGAA2CG/A FKR95UYG5QT DELL Monitor U30t CN-OPH5NY T- 290L DJI UAV(unmanned aerial vehicle) M20RTK V2 / DJI Charging Hub IN2CH / DJI Battery TBS55 / Support Cable List and Details Cable Description Shielding Type Ferrite Core Length (m) From Port HDMI Cable yes No 2 EUT Monitor USB-A Cable yes No EUT Phone To Block Diagram of Test Setup Page 9 of 64

10 SUMMARY OF TEST RESULTS Rules Description of Test Result FCC (i) &.30 & RSS-02 Clause 4 FCC 5.203, RSS-Gen Clause 6.8 FCC (a), RSS-Gen Clause 8.8 FCC 5.205, 5.209, FCC 5.247(d), RSS-247 Clause 5.5 RSS-Gen Clause 8.0 FCC (a)(2), RSS-247 Clause 5.2 a) RSS-Gen Clause 6.7 FCC 5.247(b)(3), RSS-247 Clause 5.4 d) FCC 5.247(d), RSS-247 Clause5.5 FCC 5.247(e), RSS-247 Clause5.2 b) RF Exposure Compliance Antenna Requirement Compliance AC Line Conducted Emissions Compliance Spurious Emissions Compliance 6 db Bandwidth Compliance Maximum Conducted Output Power Compliance 00 khz Bandwidth of Frequency Band Edge Compliance Power Spectral Density Compliance Page 0 of 64

11 FCC (i) &.30 & 2.093, RSS RF EXPOSURE Applicable Standard According to 5.247(i),.30 and According to RSS-02 4 Table 3, SAR limits for device used by the general public Body Region Average SAR (W/Kg) Averaging Time (minutes) Mass Average (g) Whole Body Whole Body Localized Head, Neck and Trunk.6 6 Localized Limbs Test Result Compliant, please refer to the SAR report: RDG Page of 64

12 FCC 5.203& RSS-GEN CLAUSE ANTENNA REQUIREMENT Applicable Standard According to FCC 5.203, an intentional radiator shall be designed to ensure that no antenna other than that furnished by the responsible party shall be used with the device. The use of a permanently attached antenna or of an antenna that uses a unique coupling to the intentional radiator shall be considered sufficient to comply with the provisions of this section. The manufacturer may design the unit so that a broken antenna can be replaced by the user, but the user of a standard antenna jack or electrical connector is prohibited. The structure and application of the EUT were analyzed to determine compliance with section of the rules state that the subject device must meet the following criteria: a. Antenna must be permanently attached to the unit. b. Antenna must use a unique type of connector to attach to the EUT. c. Unit must be professionally installed, and installer shall be responsible for verifying that the correct antenna is employed with the unit. According to RSS-Gen Clause 6.8, The applicant for equipment certification shall provide a list of all antenna types that may be used with the transmitter, where applicable (i.e. for transmitters with detachable antenna), indicating the maximum permissible antenna gain (in dbi) and the required impedance for each antenna. The test report shall demonstrate the compliance of the transmitter with the limit for maximum equivalent isotropically radiated power (e.i.r.p.) specified in the applicable RSS, when the transmitter is equipped with any antenna type, selected from this list. For expediting the testing, measurements may be performed using only the antenna with highest gain of each combination of transmitter and antenna type, with the transmitter output power set at the maximum level. However, the transmitter shall comply with the applicable requirements under all operational conditions and when in combination with any type of antenna from the list provided in the test report (and in the notice to be included in the user manual, provided below). When measurements at the antenna port are used to determine the RF output power, the effective gain of the device s antenna shall be stated, based on a measurement or on data from the antenna s manufacturer. The test report shall state the RF power, output power setting and spurious emission measurements with each antenna type that is used with the transmitter being tested. For licence-exempt equipment with detachable antennas, the user manual shall also contain the following notice in a conspicuous location: This radio transmitter [enter the device s ISED certification number] has been approved by Innovation, Science and Economic Development Canada to operate with the antenna types listed below, with the maximum permissible gain indicated. Antenna types not included in this list that have a gain greater than the maximum gain indicated for any type listed are strictly prohibited for use with this device. Immediately following the above notice, the manufacturer shall provide a list of all antenna types which can be used with the transmitter, indicating the maximum permissible antenna gain (in dbi) and the required impedance for each antenna type. Page 2 of 64

13 Antenna Information And Connector Construction The EUT has 2 antennas permanently attached to the unit, the device supports T2R, only main antenna can transmit, fulfill the requirement of the item. Please refer to the internal photos. Antenna SDR Main SDR Aux Manufacturer DJI DJI Model Number PM240 RC ANT PM240 RC ANT Antenna Type Connector Type input impedance (Ohm) PCB IPEX 50 PCB IPEX 50 Antenna Gain /Frequency 3.69 dbi/2.4ghz 4.34 dbi/5.8ghz 3.69 dbi/2.4ghz 4.34 dbi/5.8ghz Result: Compliance. Page 3 of 64

14 FCC (a) & RSS-GEN CLAUSE 8.8 AC LINE CONDUCTED EMISSIONS Applicable Standard FCC 5.207(a), RSS-Gen Clause 8.8. EUT Setup The setup of EUT is according with per ANSI C measurement procedure. The specification used was with the FCC Part and the RSS-Gen limits. The spacing between the peripherals was 0 cm. The adapter was connected to the main lisn with a 20 V/60 Hz AC power source. EMI Test Receiver Setup The EMI test receiver was set to investigate the spectrum from 50 khz to 30 MHz. During the conducted emission test, the EMI test receiver was set with the following configurations: Frequency Range IF B/W 50 khz 30 MHz 9 khz Page 4 of 64

15 Test Procedure During the conducted emission test, the adapter was connected to the first LISN. Maximizing procedure was performed on the six (6) highest emissions of the EUT. All data was recorded in the Quasi-peak and average detection mode. Corrected Amplitude & Margin Calculation The basic equation is as follows: V C = V R + A C + VDF C f = A C + VDF Herein, V C (cord. Reading): corrected voltage amplitude V R : reading voltage amplitude A c : attenuation caused by cable loss VDF: voltage division factor of AMN C f : Correction Factor The Margin column of the following data tables indicates the degree of compliance within the applicable limit. For example, a margin of 7dB means the emission is 7dB below the limit. The equation for margin calculation is as follows: Margin = Limit Corrected Amplitude Test Equipment List and Details Manufacturer Description Model Serial Number Calibration Date Calibration Due Date R&S EMI Test Receiver ESCS / Unknown Coaxial Cable C-NJNJ C R&S Test Software EMC32 Version N/A N/A R&S Two-line V-network ENV R&S L.I.S.N ESH2-Z / * Statement of Traceability: attests that all calibrations have been performed, traceable to National Primary Standards and International System of Units (SI). Page 5 of 64

16 Test Data Environmental Conditions Temperature: 26.2 C Relative Humidity: 55 % ATM Pressure: 99.9 kpa The testing was performed by Lily Xie on Test Mode: Transmitting AC20 V, 60 Hz, Line: 80 Level in dbμ Quasi-Peak Limit Average Limit 0 50k M 2M 3M 4M 5M 6 8 0M 20M 30M Frequency in Hz Frequency (MHz) QuasiPeak (dbμv) Bandwidth (khz) Line Corr. (db) Margin (db) Limit (dbμv) Comment L Compliance L Compliance L Compliance L Compliance L Compliance L Compliance Frequency (MHz) Average (dbμv) Bandwidth (khz) Line Corr. (db) Margin (db) Limit (dbμv) Comment L Compliance L Compliance L Compliance L Compliance L Compliance L Compliance Page 6 of 64

17 AC20 V, 60 Hz, Neutral: Level in dbμ Quasi-Peak Limit Average Limit 0 50k M 2M 3M 4M 5M 6 8 0M 20M 30M Frequency in Hz Frequency (MHz) QuasiPeak (dbμv) Bandwidth (khz) Line Corr. (db) Margin (db) Limit (dbμv) Comment N Compliance N Compliance N Compliance N Compliance N Compliance N Compliance Frequency (MHz) Average (dbμv) Bandwidth (khz) Line Corr. (db) Margin (db) Limit (dbμv) Comment N Compliance N Compliance N Compliance N Compliance N Compliance N Compliance Page 7 of 64

18 FCC 5.209, 5.205, 5.247(d) & RSS-247 CLAUSE 5.5, RSS-GEN CLAUSE 8.0- SPURIOUS EMISSIONS Applicable Standard FCC (d); 5.209; 5.205, RSS , RSS-GEN Clause 8.0. EUT Setup Below GHz: Above GHz: The radiated emission tests were performed in the 3 meters chamber test site A for the range 30MHz to GHz and the 3 meters chamber B test site for above GHz, using the setup accordance with the ANSI C The specification used was the FCC 5.209, and FCC 5.247, the RSS-247 Clause 5.5,RSS- Gen Clause 8.0 limits.. The spacing between the peripherals was 0 cm. Page 8 of 64

19 EMI Test Receiver & Spectrum Analyzer Setup The system was investigated from 30 MHz to 25 GHz. During the radiated emission test, the EMI test receiver & Spectrum Analyzer Setup were set with the following configurations: 30MHz-000MHz: GHz- 25GHz: Note: T is minimum transmission duration Measurement RBW Video B/W IF B/W QP 20 khz 300 khz 20kHz Measurement Duty cycle RBW Video B/W PK Any MHz 3 MHz Ave. >98% MHz 0 Hz <98% MHz /T Test Procedure Maximizing procedure was performed on the highest emissions to ensure that the EUT complied with all installation combinations. Data was recorded in Quasi-peak detection mode for frequency range of 30 MHz- GHz, peak and Average detection modes for frequencies above GHz. Corrected Amplitude & Margin Calculation The Corrected Amplitude is calculated by adding the Antenna Factor and Cable Loss, and subtracting the Amplifier Gain from the Meter Reading. The basic equation is as follows: Corrected Amplitude = Meter Reading + Antenna Factor + Cable Loss - Amplifier Gain The Margin column of the following data tables indicates the degree of compliance with the applicable limit. For example, a margin of 7dB means the emission is 7dB below the limit. The equation for margin calculation is as follows: Margin = Limit Corrected Amplitude Page 9 of 64

20 Test Equipment List and Details Manufacturer Description Model Serial Number Calibration Date Calibration Due Date R&S EMI Test Receiver ESCI Farad Test Software EZ-EMC V..4.2 N/A N/A Sunol Sciences Antenna JB3 A Unknown Coaxial Cable C-NJNJ C Unknown Coaxial Cable C-NJNJ C Unknown Coaxial Cable C-NJNJ C HP Amplifier 8447D 2727A Agilent Spectrum Analyzer E4440A SG Unknown Coaxial Cable C-SJSJ C ETS-Lindgren Horn Antenna Ducommun Horn Antenna ARH Technolagies MITEQ Amplifier AFS S Quinstar Amplifier QLW JO Unknown Coaxial Cable C-2.4J2.4J C E-Microwave Band-stop Filters OBSF S OE Micro-tronics High Pass Filter HPM50 S/N-G * Statement of Traceability: attests that all calibrations have been performed, traceable to National Primary Standards and International System of Units (SI). Test Data Environmental Conditions Temperature: 25.4~25.5 C Relative Humidity: 35~42 % ATM Pressure: 00.5~00.8 kpa * The testing was performed by Tyler Pan, Kami Zhou and Vern Shen from to Test Mode: Transmitting Page 20 of 64

21 ) 30MHz-GHz (.4MHz mode Middle channel was the worst): Horizontal: Frequency (MHz) Receiver Reading (dbuv) Detector Correction Factor (db/m) Cord. Amp. (dbuv/m) Limit (dbuv/m) Margin (db) QP QP QP QP QP QP Page 2 of 64

22 Vertical: Frequency (MHz) Receiver Reading (dbuv) Detector Correction Factor (db/m) Cord. Amp. (dbuv/m) Limit (dbuv/m) Margin (db) QP QP QP QP QP QP Page 22 of 64

23 2) -25GHz:.4MHz Mode: Frequency (MHz) Receiver Rx Antenna Cable Reading Polar Factor loss Detector (dbμv) (H/V) (db/m) (db) Amplifier Gain (db) Corrected Amplitude (dbμv/m) Limit (dbμv/m) Margin (db) Low Channel: MHz PK H N/A N/A AV H N/A N/A PK V N/A N/A AV V N/A N/A PK V AV V PK V AV V PK V AV V Middle Channel: MHz PK H N/A N/A AV H N/A N/A PK V N/A N/A AV V N/A N/A PK V AV V PK V AV V High Channel: MHz PK H N/A N/A AV H N/A N/A PK V N/A N/A AV V N/A N/A PK V AV V PK V AV V PK V AV V Page 23 of 64

24 0MHz Mode: Frequency (MHz) Receiver Rx Antenna Cable Reading Polar Factor loss Detector (dbμv) (H/V) (db/m) (db) Amplifier Gain (db) Corrected Amplitude (dbμv/m) Limit (dbμv/m) Margin (db) Low channel: MHz PK H N/A N/A AV H N/A N/A PK V N/A N/A AV V N/A N/A PK V AV V PK V AV V PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: 24.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Page 24 of 64

25 Receiver Rx Antenna Cable Amplifier Corrected Frequency Limit Margin loss Gain Amplitude (MHz) Reading Polar Factor Detector (dbμv/m) (db) (dbμv) (H/V) (db/m) (db) (db) (dbμv/m) Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Middle channel:244.5 MHz PK H N/A N/A AV H N/A N/A PK V N/A N/A AV V N/A N/A PK V AV V PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Page 25 of 64

26 Receiver Rx Antenna Cable Amplifier Corrected Frequency Limit Margin loss Gain Amplitude (MHz) Reading Polar Factor Detector (dbμv/m) (db) (dbμv) (H/V) (db/m) (db) (db) (dbμv/m) Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Page 26 of 64

27 Receiver Rx Antenna Cable Amplifier Corrected Frequency Limit Margin loss Gain Amplitude (MHz) Reading Polar Factor Detector (dbμv/m) (db) (dbμv) (H/V) (db/m) (db) (db) (dbμv/m) Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel:247.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V High channel: MHz PK H N/A N/A AV H N/A N/A PK V N/A N/A AV V N/A N/A PK V AV V PK V AV V PK V AV V Page 27 of 64

28 20MHz: Receiver Rx Antenna Cable Amplifier Corrected Frequency Limit Margin loss Gain Amplitude (MHz) Reading Polar Factor Detector (dbμv/m) (db) (dbμv) (H/V) (db/m) (db) (db) (dbμv/m) Low channel:240.5 MHz PK H N/A N/A AV H N/A N/A PK V N/A N/A AV V N/A N/A PK V AV V PK V AV V PK V AV V Additional channel:24.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel:242.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel:243.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel:244.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel:245.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel:246.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel:247.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel:248.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V Page 28 of 64

29 Receiver Rx Antenna Cable Amplifier Corrected Frequency Limit Margin loss Gain Amplitude (MHz) Reading Polar Factor Detector (dbμv/m) (db) (dbμv) (H/V) (db/m) (db) (db) (dbμv/m) Additional channel:249.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel:242.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Page 29 of 64

30 Receiver Rx Antenna Cable Amplifier Corrected Frequency Limit Margin loss Gain Amplitude (MHz) Reading Polar Factor Detector (dbμv/m) (db) (dbμv) (H/V) (db/m) (db) (db) (dbμv/m) Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Middle channel:244.5 MHz PK H N/A N/A AV H N/A N/A PK V N/A N/A AV V N/A N/A PK V AV V PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Page 30 of 64

31 Receiver Rx Antenna Cable Amplifier Corrected Frequency Limit Margin loss Gain Amplitude (MHz) Reading Polar Factor Detector (dbμv/m) (db) (dbμv) (H/V) (db/m) (db) (db) (dbμv/m) Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel:245.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Page 3 of 64

32 Receiver Rx Antenna Cable Amplifier Corrected Frequency Limit Margin loss Gain Amplitude (MHz) Reading Polar Factor Detector (dbμv/m) (db) (dbμv) (H/V) (db/m) (db) (db) (dbμv/m) Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel:246.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Page 32 of 64

33 Receiver Rx Antenna Cable Amplifier Corrected Frequency Limit Margin loss Gain Amplitude (MHz) Reading Polar Factor Detector (dbμv/m) (db) (dbμv) (H/V) (db/m) (db) (db) (dbμv/m) Additional channel: MHz PK V N/A N/A AV V N/A N/A PK V AV V Additional channel:247.5 MHz PK V N/A N/A AV V N/A N/A PK V AV V High channel: MHz PK H N/A N/A AV H N/A N/A PK V N/A N/A AV V N/A N/A PK V AV V PK V AV V PK V AV V Page 33 of 64

34 Worst Test plots(.4mhz mode Middle channel was the worst case) Horizontal: Fundamental Test with Band Rejection Filter Page 34 of 64

35 Vertical: Fundamental Test with Band Rejection Filter Page 35 of 64

36 FCC 5.247(a) (2) & RSS-247 CLAUSE 5.2 a) &RSS-GEN CLAUSE db EMISSION BANDWIDTH AND 99% OCCUPIED BANDWIDTH Applicable Standard According to FCC 5.247(a) (2) Systems using digital modulation techniques may operate in the MHz, MHz, and MHz bands. The minimum 6 db bandwidth shall be at least 500 khz. According to RSS-247 Clause 5.2 a) The minimum 6 db bandwidth shall be 500 khz. According to RSS-Gen Clause 6.7 The occupied bandwidth or the 99% emission bandwidth is defined as the frequency range between two points, one above and the other below the carrier frequency, within which 99% of the total transmitted power of the fundamental transmitted emission is contained. The occupied bandwidth shall be reported for all equipment in addition to the specified bandwidth required in the applicable RSSs. In some cases, the x db bandwidth is required, which is defined as the frequency range between two points, one at the lowest frequency below and one at the highest frequency above the carrier frequency, at which the maximum power level of the transmitted emission is attenuated x db below the maximum inband power level of the modulated signal, where the two points are on the outskirts of the in-band emission. The following conditions shall be observed for measuring the occupied bandwidth and x db bandwidth: The transmitter shall be operated at its maximum carrier power measured under normal test conditions. The span of the spectrum analyzer shall be set large enough to capture all products of the modulation process, including the emission skirts, around the carrier frequency, but small enough to avoid having other emissions (e.g. on adjacent channels) within the span. The detector of the spectrum analyzer shall be set to Sample. However, a peak, or peak hold, may be used in place of the sampling detector since this usually produces a wider bandwidth than the actual bandwidth (worst-case measurement). Use of a peak hold (or Max Hold ) may be necessary to determine the occupied / x db bandwidth if the device is not transmitting continuously. The resolution bandwidth (RBW) shall be in the range of % to 5% of the actual occupied / x db bandwidth and the video bandwidth (VBW) shall not be smaller than three times the RBW value. Video averaging is not permitted. Page 36 of 64

37 Note: It may be necessary to repeat the measurement a few times until the RBW and VBW are in compliance with the above requirement. For the 99% emission bandwidth, the trace data points are recovered and directly summed in linear power level terms. The recovered amplitude data points, beginning at the lowest frequency, are placed in a running sum until 0.5% of the total is reached, and that frequency recorded. The process is repeated for the highest frequency data points (starting at the highest frequency, at the right side of the span, and going down in frequency). This frequency is then recorded. The difference between the two recorded frequencies is the occupied bandwidth (or the 99% emission bandwidth). Test Procedure 6dB bandwidth test: a) Set RBW = 00 khz. b) Set the video bandwidth (VBW) 3 RBW. c) Detector = Peak. d) Trace mode = max hold. e) Sweep = auto couple. f) Allow the trace to stabilize. g) Measure the maximum width of the emission that is constrained by the frequencies associated with the two outermost amplitude points (upper and lower frequencies) that are attenuated by 6 db relative to the maximum level measured in the fundamental emission. 99% Occupied bandwidth test: Use Occupied bandwidth test function, measure the 99% Occupied bandwidth. Repeat above procedures until all frequencies measured were complete. EUT Signal Analyzer/ EMI Test Receiver Test Equipment List and Details Manufacturer Description Model Serial Number Calibration Date Calibration Due Date R&S Spectrum Analyzer FSU Unknown Coaxial Cable C-SJ C000/0 Each time N/A * Statement of Traceability: attests that all calibrations have been performed, traceable to National Primary Standards and International System of Units (SI). Page 37 of 64

38 Test Data Environmental Conditions Temperature: 26.9~27. C Relative Humidity: 47~49 % ATM Pressure: 00.~00.8 kpa * The testing was performed by Elena Lei on and Test Mode: Transmitting Test Result: Compliance. Please refer to the following table and plots Test mode.4mhz 0MHz 20MHz Channel Frequency (MHz) 6 db Emission Bandwidth (MHz) 99% Occupied Bandwidth (MHz) Limit (MHz) Low Middle High Low Middle High Low Middle High Page 38 of 64

39 6dB bandwidth:.4m Low Channel Ref 30.8 dbm * Att 30 db * RBW 00 khz * VBW 300 khz SWT 2.5 ms Delta [T ] 0.99 db MHz PK Offset 0.8 db D 6.7 dbm D2 0.7 dbm 0.0 dbm GHz A Center GHz 300 khz/ Span 3 MHz Date: 9.NOV ::46.4M Middle Channel Ref 30.8 dbm * Att 30 db * RBW 00 khz * VBW 300 khz SWT 2.5 ms Delta [T ].39 db MHz PK Offset 0.8 db D 6.3 dbm D2 0.3 dbm 8.73 dbm GHz A Center GHz 300 khz/ Span 3 MHz Date: 9.NOV :3:09 Page 39 of 64

40 .4M High Channel Ref 30.8 dbm * Att 30 db * RBW 00 khz * VBW 300 khz SWT 2.5 ms Delta [T ].30 db MHz Offset 0.8 db 8.0 dbm GHz A PK 0 D 5.37 dbm D dbm Center GHz 300 khz/ Span 3 MHz Date: 9.NOV :5:28 0M Low Channel Ref 5.8 dbm * Att 0 db * RBW 00 khz * VBW 300 khz SWT 0 ms Delta [T ] 0.02 db MHz PK 0-0 Offset 0.8 db D -6.2 dbm D2-2.2 dbm dbm GHz B Center GHz 2 MHz/ Span 20 MHz Date: 2.DEC.208 7:34:24 Page 40 of 64

41 0M Middle Channel Ref 9 dbm * Att 20 db * RBW 00 khz * VBW 300 khz SWT 0 ms Delta [T ].05 db MHz 0 Offset 0.8 db dbm GHz B PK 0 D.42 dbm D dbm Center GHz 2 MHz/ Span 20 MHz Date: 2.DEC.208 7:30:52 0M High Channel Ref - dbm * Att 0 db * RBW 00 khz * VBW 300 khz SWT 0 ms Delta [T ] db MHz Offset 0.8 db dbm GHz A PK D dbm D2.5 dbm Center GHz 2 MHz/ Span 20 MHz Date: 9.NOV :34:09 Page 4 of 64

42 20M Low Channel Ref 0 dbm * Att 0 db * RBW 00 khz * VBW 300 khz SWT 5 ms Delta [T ] db MHz 0 Offset 0.8 db dbm GHz A PK -20 D dbm D dbm Center GHz 4 MHz/ Span 40 MHz Date: 9.NOV :26:28 20M Middle Channel Ref 4 dbm * Att 0 db * RBW 00 khz * VBW 300 khz SWT 5 ms Delta [T ] 3.47 db MHz 0 Offset 0.8 db dbm GHz A PK 0-0 D -.2 dbm D2-7.2 dbm Center GHz 4 MHz/ Span 40 MHz Date: 9.NOV :28:24 Page 42 of 64

43 20M High Channel Ref - dbm * Att 0 db * RBW 00 khz * VBW 300 khz SWT 5 ms Delta [T ] -2.5 db MHz Offset 0.8 db dbm GHz A PK D dbm D dbm Center GHz 4 MHz/ Span 40 MHz Date: 9.NOV :32:3 Page 43 of 64

44 99% Occupied bandwidth:.4m Low Channel MARKER * RBW 30 khz GHz * VBW 00 khz Ref 30 dbm * Att 30 db SWT 5 ms 0.54 dbm GHz PK Offset 0.8 db OBW MHz Temp [T OBW] dbm A GHz Temp 2 [T OBW] dbm GHz 0 T T Center GHz 300 khz/ Span 3 MHz Date: 9.NOV.208 0:0:33.4M Middle Channel Ref 30 dbm * Att 30 db * RBW 30 khz * VBW 00 khz SWT 5 ms 0.59 dbm GHz PK Offset 0.8 db OBW MHz Temp [T OBW] -.47 dbm A GHz Temp 2 [T OBW] -2.5 dbm GHz 0 T T Center GHz 300 khz/ Span 3 MHz Date: 9.NOV.208 0:0:5 Page 44 of 64

45 .4M High Channel MARKER * RBW 30 khz GHz * VBW 00 khz Ref 30 dbm * Att 30 db SWT 5 ms 9.80 dbm GHz PK Offset 0.8 db OBW MHz Temp [T OBW] dbm A GHz Temp 2 [T OBW] -3.9 dbm GHz 0 T T Center GHz 300 khz/ Span 3 MHz Date: 9.NOV.208 0:02:6 0M Low Channel MARKER * RBW 00 khz GHz * VBW 300 khz Ref 5.8 dbm * Att 0 db SWT 0 ms dbm GHz Offset 0.8 db OBW MHz PK T Temp [T OBW] dbm A GHz T2 Temp 2 [T OBW] dbm GHz Center GHz 2 MHz/ Span 20 MHz Date: 9.NOV.208 0:03:09 Page 45 of 64

46 0M Middle Channel MARKER * RBW 00 khz GHz * VBW 300 khz Ref 5.8 dbm * Att 0 db SWT 0 ms 0.7 dbm GHz Offset 0.8 db OBW MHz PK T Temp [T OBW] dbm GHz Temp 2 [T OBW] T dbm GHz A Center GHz 2 MHz/ Span 20 MHz Date: 9.NOV.208 0:03:53 0M High Channel MARKER * RBW 00 khz GHz * VBW 300 khz Ref -7 dbm * Att 0 db SWT 0 ms dbm GHz PK -20 Offset 0.8 db T OBW MHz Temp [T OBW] dbm A GHz Temp 2 [T OBW] T dbm GHz Center GHz 2 MHz/ Span 20 MHz Date: 9.NOV.208 0:04:42 Page 46 of 64

47 20M Low Channel MARKER * RBW 300 khz GHz * VBW MHz Ref 5.8 dbm * Att 0 db SWT 2.5 ms dbm GHz Offset 0.8 db OBW MHz PK T Temp [T OBW] -7.4 dbm T GHz Temp 2 [T OBW] -0.7 dbm GHz A Center GHz 4 MHz/ Span 40 MHz Date: 9.NOV.208 0:06:36 20M Middle Channel Ref 22 dbm * Att 20 db * RBW 300 khz * VBW MHz SWT 2.5 ms 5.9 dbm GHz PK Offset 0.8 db T OBW MHz Temp [T OBW] 0.34 dbm A GHz Temp 2 [T OBW] T dbm GHz Center GHz 4 MHz/ Span 40 MHz Date: 9.NOV.208 0:08:03 Page 47 of 64

48 20M High Channel PK MARKER * RBW 300 khz GHz * VBW MHz Ref -2 dbm * Att 0 db SWT 2.5 ms Offset 0.8 db -0 T dbm GHz OBW MHz Temp [T OBW] dbm GHz Temp 2 [T OBW] dbm T GHz A Center GHz 4 MHz/ Span 40 MHz Date: 9.NOV.208 0:09:06 Page 48 of 64

49 FCC 5.247(b) (3)& RSS-247 CLAUSE 5.4 d) - MAXIMUM PEAK CONDUCTED OUTPUT POWER Applicable Standard According to FCC 5.247(b) (3), for systems using digital modulation in the MHz, MHz, and MHz bands: Watt. As an alternative to a peak power measurement, compliance with the one Watt limit can be based on a measurement of the maximum conducted output power. Maximum Conducted Output Power is defined as the total transmit power delivered to all antennas and antenna elements averaged across all symbols in the signaling alphabet when the transmitter is operating at its maximum power control level. Power must be summed across all antennas and antenna elements. The average must not include any time intervals during which the transmitter is off or is transmitting at a reduced power level. If multiple modes of operation are possible (e.g., alternative modulation methods), the maximum conducted output power is the highest total transmit power occurring in any mode. According to RSS d) For DTSs employing digital modulation techniques operating in the bands MHz and MHz, the maximum peak conducted output power shall not exceed W. Except as provided in Section 5.4(e), the e.i.r.p. shall not exceed 4 W. As an alternative to a peak power measurement, compliance can be based on a measurement of the maximum conducted output power. The maximum conducted output power is the total transmit power delivered to all antennas and antenna elements, averaged across all symbols in the signalling alphabet when the transmitter is operating at its maximum power control level. Power must be summed across all antennas and antenna elements. The average must not include any time intervals during which the transmitter is off or transmitting at a reduced power level. If multiple modes of operation are implemented, the maximum conducted output power is the highest total transmit power occurring in any mode. Test Procedure. Place the EUT on a bench and set it in transmitting mode. 2. Remove the antenna from the EUT and then connect a low loss RF cable from the antenna port to test equipment. 3. Add a correction factor to the display. 4. Set the power Meter to test Peak output power, record the result as peak power. 5. Set the power meter to test average output power, record the result as average power. EUT Power Meter Test Equipment List and Details Manufacturer Description Model Agilent USB Wideband Power Sensor Serial Number Calibration Date Calibration Due Date U2022XA MY Unknown Coaxial Cable C-SJ C000/0 Each time N/A * Statement of Traceability: attests that all calibrations have been performed, traceable to National Primary Standards and International System of Units (SI). Page 49 of 64

50 Test Data Environmental Conditions Temperature: 26.9 C Relative Humidity: 47 % ATM Pressure: 00.8 kpa * The testing was performed by Elena Lei on Test Mode: Transmitting Test Result: Compliance. Please refer to the following table. Page 50 of 64

51 Test Mode.4MHz 0MHz Frequency (MHz) Maximum Conducted Output Power (dbm) Peak Average Limit Peak EIPR (dbm) EIPR Limit for ISED (dbm) Page 5 of 64

52 20MHz Note: Antenna gain is 3.69dBi. the duty cycle factor have been calculated into the average power. Page 52 of 64

53 FCC 5.247(d)& RSS-247 CLAUSE khz BANDWIDTH OF FREQUENCY BAND EDGE Applicable Standard According to FCC 5.247(d):In any 00 khz bandwidth outside the frequency band in which the spread spectrum or digitally modulated intentional radiator is operating, the radio frequency power that is produced by the intentional radiator shall be at least 20 db below that in the 00 khz bandwidth within the band that contains the highest level of the desired power, based on either an RF conducted or a radiated measurement, provided the transmitter demonstrates compliance with the peak conducted power limits. If the transmitter complies with the conducted power limits based on the use of RMS averaging over a time interval, as permitted under paragraph (b)(3) of this section, the attenuation required under this paragraph shall be 30 db instead of 20 db. Attenuation below the general limits specified in 5.209(a) is not required. In addition, radiated emissions which fall in the restricted bands, as defined in 5.205(a), must also comply with the radiated emission limits specified in 5.209(a) (see 5.205(c)). According to RSS-247 Clause 5.5: Test Procedure. Check the calibration of the measuring instrument using either an internal calibrator or a known signal from an external generator. 2. Position the EUT without connection to measurement instrument. Turn on the EUT and connect its antenna terminal to measurement instrument via a low loss cable. Then set it to any one measured frequency within its operating range, and make sure the instrument is operated in its linear range. 3. Set RBW to 00 khz and VBW of spectrum analyzer to 300 khz with a convenient frequency span including 00 khz bandwidth from band edge. 4. Measure the highest amplitude appearing on spectral display and set it as a reference level. Plot the graph with marking the highest point and edge frequency. 5. Repeat above procedures until all measured frequencies were complete. Page 53 of 64