Report No. : EED32J Page 1 of 53 TEST REPORT

Transcription

1 Report No. : EED32J Page 1 of 53 1 COVER PAGE TEST REPORT Product Name : remarkable paper tablet Trade mark : Model/Type reference : RM100 Serial Number : N/A Report Number : EED32J FCC ID : 2AMK2-RM100 Date of Issue : Aug. 23, 2017 Test Standards : 47 CFR Part 15 Subpart E Test result : PASS Prepared for: remarkable AS Pilestredet 75C, 0354, Oslo, Norway Prepared by: Centre Testing International Group Co., Ltd. Hongwei Industrial Zone, Bao an 70 District, Shenzhen, Guangdong, China TEL: FAX: Tested By: Compiled by: Tom chen (Test Project) Kevin yang (Project Engineer) Reviewed by: Approved by: Kevin lan (Reviewer) Sheek Luo (Lab supervisor) Date: Aug. 23, 2017 Check No.:

2 Report No. : EED32J Page 2 of 53 2 Version Version No. Date Description 00 Aug. 23, 2017 Original

3 Report No. : EED32J Page 3 of 53 3 Test Summary Test Item Test Requirement Test method Result Requirement AC Power Line Conducted Emission Conducted Output Power and transmit power control mechanism Emission Bandwidth Peak Power Spectral Density Frequency stability Operation in the absence of information to the transmit Unwanted Emissions that fall Outside of the Restricted Bands Unwanted Emissions in the Restricted Bands Restricted bands around fundamental frequency (Radiated Emission) 47 CFR Part 15 Subpart C Section CFR Part 15 Subpart E Section (b)(6) 47 CFR Part 15 Subpart E Section (a)(1)(2)(4)(h)(1) 47 CFR Part 15 Subpart E Section (a)(1)(2) 47 CFR Part 15 Subpart E Section (a)(1)(2)(5) 47 CFR Part 15 Subpart E Section (g) 47 CFR Part 15 Subpart E Section (c) 47 CFR Part 15 Subpart E Section (b)(1)(2)(3)(5) 47 CFR Part 15 Subpart E Section (b)(6)(7)(8) 47 CFR Part 15 Subpart E Section (b)(6)(7)(8) Remark: The tested sample and the sample information are provided by the client. Tx: In this whole report Tx (or tx) means Transmitter. Rx: In this whole report Rx (or rx) means Receiver. RF: In this whole report RF means Radiated Frequency. CH: In this whole report CH means channel. Volt: In this whole report Volt means Voltage. Temp: In this whole report Temp means Temperature. Humid: In this whole report Humid means humidity. Press: In this whole report Press means Pressure. N/A: In this whole report not application. ANSI C ANSI C ANSI C ANSI C ANSI C ANSI C PASS PASS PASS PASS PASS PASS 47 CFR Part 15 Subpart E PASS ANSI C ANSI C ANSI C PASS PASS PASS

4 Report No. : EED32J Page 4 of 53 4 Content 1 COVER PAGE VERSION TEST SUMMARY CONTENT TEST REQUIREMENT TEST SETUP For Conducted test setup For Radiated Emissions test setup For Conducted Emissions test setup TEST ENVIRONMENT TEST CONDITION GENERAL INFORMATION CLIENT INFORMATION GENERAL DESCRIPTION OF EUT PRODUCT SPECIFICATION SUBJECTIVE TO THIS STANDARD DESCRIPTION OF SUPPORT UNITS TEST LOCATION DEVIATION FROM STANDARDS ABNORMALITIES FROM STANDARD CONDITIONS OTHER INFORMATION REQUESTED BY THE CUSTOMER MEASUREMENT UNCERTAINTY (95% CONFIDENCE LEVELS, K=2) EQUIPMENT LIST RADIO TECHNICAL REQUIREMENTS SPECIFICATION...12 Appendix A): Duty Cycle Appendix B): Emission Bandwidth...15 Appendix C): Maximum Conduct Output Power...17 Appendix D): Power Spectral Density...19 Appendix E): Band Edge Measurements Appendix F): Frequency Stability...23 Appendix G): Requirement Appendix H): Operation in the absence of information to the transmit...27 Appendix I): AC Power Line Conducted Emission...28 Appendix J): Restricted bands around fundamental frequency (Radiated Emission)...31 Appendix K): Unwanted Emissions in the Restricted Bands (Radiated Emission)...34 Appendix L): Unwanted Emissions that fall Outside of the Restricted Bands PHOTOGRAPHS OF TEST SETUP...51 PHOTOGRAPHS OF EUT CONSTRUCTIONAL DETAILS... 53

5 Report No. : EED32J Page 5 of 53 5 Test Requirement 5.1 Test setup For Conducted test setup For Radiated Emissions test setup Radiated Emissions setup: Figure 1. Below 30MHz Figure 2. 30MHz to 1GHz Figure 3. Above 1GHz

6 Report No. : EED32J Page 6 of For Conducted Emissions test setup Conducted Emissions setup 5.2 Test Environment Operating Environment: Temperature: Humidity: Atmospheric Pressure: 25 C 52% RH 1010 mbar 5.3 Test Condition Test channel: Test Mode Tx/Rx a 5150MHz ~5250 MHz a 5725MHz ~5850 MHz RF Channel Low(L) Middle(M) High(H) Channel 36 Channel 44 Channel MHz 5220MHz 5240MHz Channel 149 Channel 157 Channel MHz 5785MHz 5825MHz Test mode: Pre-scan under all rate at lowest channel 1 Mode a for 5150MHz ~5250 MHz Data Rate MCS0 MCS1 MCS2 MCS3 MCS4 MCS5 MCS6 MCS7 Power(dBm) Mode a for 5725MHz ~5850 MHz Data Rate MCS0 MCS1 MCS2 MCS3 MCS4 MCS5 MCS6 MCS7 Power(dBm) Through Pre-scan, MCS0 is the worst case of a (20M) for 5150MHz ~5250 MH; MCS0 is the worst case of a (20M) for 5725MHz ~5850 MHz;

7 Report No. : EED32J Page 7 of 53 6 General Information 6.1 Client Information Applicant: Address of Applicant: Manufacturer: Address of Manufacturer: Factory: Address of Factory: remarkable AS Pilestredet 75C, 0354, Oslo, Norway remarkable AS 6.2 General Description of EUT Product Name: Model No.: Trade Mark: EUT Supports Radios application: Power Supply: Battery: Pilestredet 75C, 0354, Oslo, Norway Dongguang Kaifa Technology Co., Ltd Kaifa Park of CEC Industry Base, Humen town, Dongguan City, Guangdong Province remarkable paper tablet RM100 Wlan 2.4GHz b/g/n(HT20): 2412MHz ~2462 MHz 5G: U-NII-1: GHz; U-NII-3: GHz; a (EUT can t operation in 2.4 GHz and 5 GHz simultaneous, the hardware and software limited to prevent simultaneous operation in the 2.4 GHz and 5GHz bands) DC5V by USB port DC 3.7V, 3000mAh Sample Received Date: May 16, 2017 Sample tested Date: May 16, 2017 to Aug. 23, Product Specification subjective to this standard Operation Frequency: IEEE a: 5150MHz ~5250 MHz IEEE a: 5725MHz ~5850 MHz Channel Numbers: IEEE a: 5150MHz ~5250MHz/ 4 channel IEEE a: 5725MHz ~5850MHz/ 5 channel Type of Modulation: OFDM (64QAM, 16QAM, QPSK, BPSK ) Sample Type: Portable production Test Power Grade: a :11 (manufacturer declare ) Test Software of EUT: Secure CRT (manufacturer declare ) Type and Gain: Test Voltage: PIFA and 5.07dBi DC 5V by USB port

8 Report No. : EED32J Page 8 of 53 Operation Frequency each of channel For a Operation in the 5150MHz ~5250 MHz band Channel Frequency Channel Frequency MHz MHz MHz MHz For a Operation in the 5725MHz ~5850 MHz band Channel Frequency Channel Frequency MHz MHz MHz MHz MHz NA NA 6.4 Description of Support Units The EUT has been tested with associated equipment below. Test Ancillary equipment Model Type Remark EUT B Adapter CAA C --- CTI 6.5 Test Location All tests were performed at: Centre Testing International Group Co., Ltd. Hongwei Industrial Zone, Bao an 70 District, Shenzhen, Guangdong, China Telephone: +86 (0) Fax:+86 (0) No tests were sub-contracted. 6.6 Deviation from Standards None. 6.7 Abnormalities from Standard Conditions None. 6.8 Other Information Requested by the Customer None.

9 Report No. : EED32J Page 9 of Measurement Uncertainty (95% confidence levels, k=2) No. Item Measurement Uncertainty 1 Radio Frequency 7.9 x RF power, conducted 0.31dB (30MHz-1GHz) 0.57dB (1GHz-18GHz) 3 Radiated Spurious emission test 4.5dB (30MHz-1GHz) 4.8dB (1GHz-12.75GHz) 4 Conduction emission 3.6dB (9kHz to 150kHz) 3.2dB (150kHz to 30MHz) 5 Temperature test 0.64 C 6 Humidity test 2.8% 7 DC power voltages 0.025%

10 Report No. : EED32J Page 10 of 53 7 Equipment List Equipment Manufacturer Model No. RF test system Serial Number Cal. Date (mm-dd-yyyy) Cal. Due date (mm-dd-yyyy) Signal Generator Keysight E8257D MY Communication test set test set Agilent N4010A MY Spectrum Analyzer Keysight N9010A MY Signal Generator Keysight N5182B MY High-pass filter High-pass filter Sinoscite MICRO- TRONICS FL3CX03WG18 NM SPA-F DC Power Keysight E3642A MY PC-1 Lenovo R4960d BT&WI-FI Automatic control R&S OSP RF control unit JS Tonscend JS BT&WI-FI Automatic test software JS Tonscend JS Conducted disturbance Test Equipment Manufacturer Model No. Serial Number Cal. date (mm-dd-yyyy) Cal. Due date (mm-dd-yyyy) Receiver R&S ESCI Temperature/ Humidity Indicator TAYLOR Communication test set Agilent E5515C GB Communication test set R&S CMW LISN R&S ENV LISN schwarzbeck NNLK Voltage Probe R&S ESH2-Z Current Probe R&S EZ ISN TESEQ GmbH ISN T

11 Report No. : EED32J Page 11 of 53 3M Semi/full-anechoic Chamber Equipment Manufacturer Model No. 3M Chamber & Accessory Equipment TRILOG Broadband Serial Number Cal. date (mm-dd-yyyy) Cal. Due date (mm-dd-yyyy) TDK SAC SCHWARZBEC K VULB Microwave Preamplifier Agilent 8449B 3008A Horn ETS-LINDGREN Loop ETS Microwave Preamplifier A.H.SYSTEMS PAP Horn A.H.SYSTEMS SAS Microwave Preamplifier A.H.SYSTEMS PAP Horn A.H.SYSTEMS SAS Spectrum Analyzer R&S FSP Receiver R&S ESCI Multi device Controller maturo NCD/070/ LISN schwarzbeck NNBM LISN schwarzbeck NNBM Signal Generator Agilent E4438C MY Signal Generator Keysight E8257D MY Temperature/ Humidity Indicator TAYLOR Cable line Fulai(7M) SF /6A Cable line Fulai(6M) SF /6A Cable line Fulai(3M) SF /6A Cable line Fulai(3M) SF /6A High-pass filter High-pass filter band rejection filter band rejection filter band rejection filter band rejection filter Sinoscite MICRO- TRONICS Sinoscite Sinoscite Sinoscite Sinoscite FL3CX03WG18 NM SPA-F FL5CX01CA09 CL FL5CX01CA08 CL FL5CX02CA04 CL FL5CX02CA03 CL

12 Report No. : EED32J Page 12 of 53 8 Radio Technical Requirements Specification Reference documents for testing: No. Identity Document Title 1 FCC Part15E Subpart E Unlicensed National Information Infrastructure 2 ANSI C American National Standard for Testing Unlicesed Wireless Devices 3 KDB D02 General UNII Guidelines for compliance testing of unlicensed national Test Procedures New Rules v01r04 information infrastructure (U-NII) device part 15 subpart E Test Results List: Test Requirement Test method Test item Verdict Note Part15E Section (a)(1)(2) Part15E Section (a)(1)(2)(4)(h)(1) Part15E Section (a)(1)(2)(5) Part15E Section (b)(1)to(6) Part15E Section (g) KDB KDB Emission Bandwidth and Occupied Bandwidth Conducted Output Power and transmit power control mechanism PASS Appendix B) PASS Appendix C) KDB Power Spectral Density PASS Appendix D) KDB Band Edge Measurements PASS Appendix E) KDB Frequency stability PASS Appendix F) Part15C Section Part15E Section (c) Section Part15E Section (b)(6) Part15E Section (b)(6)(7)(8) Part15E Section (b)(6)(7)(8) Part15E Section (b)(1)(2)(3)(5) ANSI C63.10 Requirement PASS Appendix G) ANSI C63.10 KDB KDB KDB Operation in the absence of information to the transmit AC Power Line Conducted Emission Restricted bands around fundamental frequency (Radiated Emission) Unwanted Emissions in the Restricted Bands Unwanted Emissions that fall Outside of the Restricted Bands PASS Appendix H) PASS Appendix I) PASS Appendix J) PASS Appendix K) PASS Appendix L)

13 Report No. : EED32J Page 13 of 53 Appendix A): Duty Cycle Result Table Test Mode Channel Duty Cycle[%] Verdict 11A Ant % PASS 11A Ant % PASS 11A Ant % PASS 11A Ant % PASS 11A Ant % PASS 11A Ant % PASS

14 Report No. : EED32J Page 14 of 53 Test Graph 11A-Ant A-Ant A-Ant A-Ant A-Ant A-Ant1-5825

15 Report No. : EED32J Page 15 of 53 Appendix B): Emission Bandwidth Result Table Test Mode Channel 26dB EBW[MHz] 99% OBW[MHz] Verdict 11A Ant PASS 11A Ant PASS 11A Ant PASS Test Mode Channel 6dB EBW[MHz] 99% OBW[MHz] Verdict 11A Ant PASS 11A Ant PASS 11A Ant PASS

16 Report No. : EED32J Page 16 of 53 Test Graph 11A-Ant A-Ant A-Ant A-Ant A-Ant A-Ant1-5825

17 Report No. : EED32J Page 17 of 53 Appendix C): Maximum Conduct Output Power Result Table Test Mode Channel Meas.Level [dbm] Av.Power [dbm] Verdict 11A Ant PASS 11A Ant PASS 11A Ant PASS 11A Ant PASS 11A Ant PASS 11A Ant PASS Remark: 1. According KDB D02, If continuous transmission cannot be achieved the 10 log (1/duty cycle) should be add. Av.Power=Meas.Level+10 log (1/duty cycle) E.i.r.p=Av.Power+G, G = antenna gain in dbi. 2. Duty Cycle value in report Appendix A, Meas.Level value in report Appendix C, For band 1, MCS0 mode, a channel 36:5180MHz, Duty Cycle value is 88.16%=0.8816, Meas.Level value is 10.6dBm, Av.Power= log (1/0.8816) =11.14dBm. E.i.r.p= =16.21dBm.

18 Report No. : EED32J Page 18 of 53 Test Graph 11A-Ant A-Ant A-Ant A-Ant A-Ant A-Ant1-5825

19 Report No. : EED32J Page 19 of 53 Appendix D): Power Spectral Density Result Table Test Mode Channel Meas.Level [dbm] PSD [dbm/mhz] Verdict 11A Ant PASS 11A Ant PASS 11A Ant PASS Test Mode Channel Meas.Level [dbm] PSD [dbm/500khz] Verdict 11A Ant PASS 11A Ant PASS 11A Ant PASS Remark: 1. According KDB D02, If continuous transmission cannot be achieved the 10 log (1/duty cycle) should be add. PSD=Meas.Level+10 log (1/duty cycle) E.i.r.p spectral density=psd+g, G = antenna gain in dbi. 2. Duty Cycle value in report Appendix A, Meas.Level value in report Appendix D, For band 1, MCS0 mode, a channel 36:5180MHz, Duty Cycle value is 88.16%=0.8816, Meas.Level value is 4.57 in report Appendix D, PSD= log (1/0.8816) =5.11. E.i.r.p spectral density= =10.18.

20 Report No. : EED32J Page 20 of 53 Test Graph 11A-Ant A-Ant A-Ant A-Ant A-Ant A-Ant1-5825

21 Report No. : EED32J Page 21 of 53 Appendix E): Band Edge Measurements Result Table Test Mode Channel Max.Level [dbm] Verdict 11A Ant PASS 11A Ant PASS Test Mode Channel Max.Level [dbm] Below Verdict 11A Ant PASS Test Mode Channel Max.Level [dbm] Above 5860 Verdict 11A Ant PASS

22 Report No. : EED32J Page 22 of 53 Test Graph 11A-Ant A-Ant A-Ant A-Ant1-5825

23 Report No. : EED32J Page 23 of 53 Appendix F): Frequency Stability Frequency Error vs. Voltage: Test Mode Channel Temp. Volt. Freq.Error(MHz) Freq.vs.rated(ppm) Verdict TN VL PASS 11A Ant TN VN PASS TN VH PASS TN VL PASS 11A Ant TN VN PASS TN VH PASS TN VL PASS 11A Ant TN VN PASS TN VH PASS TN VL PASS 11A Ant TN VN PASS TN VH PASS TN VL PASS 11A Ant TN VN PASS TN VH PASS TN VL PASS 11A Ant TN VN PASS TN VH PASS

24 Report No. : EED32J Page 24 of 53 Frequency Error vs. Temperature: Test Mode Channel Temp. Volt. Freq.Error(MHz) Freq.vs.rated(ppm) Verdict 50 VN PASS 40 VN PASS 30 VN PASS 20 VN PASS 11A Ant VN PASS 0 VN PASS -10 VN PASS -20 VN PASS -30 VN PASS 50 VN PASS 40 VN PASS 30 VN PASS 20 VN PASS 11A Ant VN PASS 0 VN PASS -10 VN PASS -20 VN PASS -30 VN PASS 50 VN PASS 40 VN PASS 30 VN PASS 20 VN PASS 11A Ant VN PASS 0 VN PASS -10 VN PASS -20 VN PASS -30 VN PASS 50 VN PASS 11A Ant VN PASS 30 VN PASS 20 VN PASS

25 Report No. : EED32J Page 25 of VN PASS 0 VN PASS -10 VN PASS -20 VN PASS -30 VN PASS 50 VN PASS 40 VN PASS 30 VN PASS 20 VN PASS 11A Ant VN PASS 0 VN PASS -10 VN PASS -20 VN PASS -30 VN PASS 50 VN PASS 40 VN PASS 30 VN PASS 20 VN PASS 11A Ant VN PASS 0 VN PASS -10 VN PASS -20 VN PASS -30 VN PASS

26 Report No. : EED32J Page 26 of 53 Appendix G): Requirement requirement: 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, the manufacturer may design the unit so that a broken antenna can be replaced by the user, but the use of a standard antenna jack or electrical connector is prohibited (a)(1) (2) requirement: The conducted output power limit specified in paragraph (a) of this section is based on the use of antennas with directional gains that do not exceed 6 dbi. Except as shown in paragraph (a) of this section, if transmitting antennas of directional gain greater than 6 dbi are used, the conducted output power and the peak power spectral density shall be reduced by the by the amount in db that the directional gain of the antenna exceeds 6 dbi. EUT : The antenna is integrated on the main PCB and no consideration of replacement. The best case gain of the WIFI antenna is 5.07dBi.

27 Report No. : EED32J Page 27 of 53 Appendix H): Operation in the absence of information to the transmit (c) requirement: The device shall automatically discontinue transmission in case of either absence of information to transmit or operational failure. These provisions are not intended to preclude the transmission of control or signal ling information or the use of repetitive codes used by certain digital technologies to complete frame or burst intervals. Applicants shall include in their application for equipment authorization a description of how this requirement is met. Operation in the absence of information to the transmit While the EUT is not transmitting any information, the EUT can automatically discontinue transmission and become standby mode for power saving. The EUT can detect the controlling signal of ASK message transmitting from remote device and verify whether it shall resend or discontinue transmission. (manufacturer declare )

28 Report No. : EED32J Page 28 of 53 Appendix I): AC Power Line Conducted Emission Test Procedure: : Measurement Data Test frequency range :150KHz-30MHz 1)The mains terminal disturbance voltage test was conducted in a shielded room. 2) The EUT was connected to AC power source through a LISN 1 (Line Impedance Stabilization Network) which provides a 50Ω/50µH + 5Ω linear impedance. The power cables of all other units of the EUT were connected to a second LISN 2, which was bonded to the ground reference plane in the same way as the LISN 1 for the unit being measured. A multiple socket outlet strip was used to connect multiple power cables to a single LISN provided the rating of the LISN was not exceeded. 3)The tabletop EUT was placed upon a non-metallic table 0.8m above the ground reference plane. And for floor-standing arrangement, the EUT was placed on the horizontal ground reference plane, 4) The test was performed with a vertical ground reference plane. The rear of the EUT shall be 0.4 m from the vertical ground reference plane. The vertical ground reference plane was bonded to the horizontal ground reference plane. The LISN 1 was placed 0.8 m from the boundary of the unit under test and bonded to a ground reference plane for LISNs mounted on top of the ground reference plane. This distance was between the closest points of the LISN 1 and the EUT. All other units of the EUT and associated equipment was at least 0.8 m from the LISN 2. 5) In order to find the maximum emission, the relative positions of equipment and all of the interface cables must be changed according to ANSI C63.10 on conducted measurement. Frequency range (MHz) Quasi-peak (dbµv) Average to 56* 56 to 46* * The limit decreases linearly with the logarithm of the frequency in the range 0.15 MHz to 0.50 MHz. NOTE : The lower limit is applicable at the transition frequency An initial pre-scan was performed on the live and neutral lines with peak detector. Quasi-Peak and Average measurement were performed at the frequencies with maximized peak emission were detected.

29 Report No. : EED32J Page 29 of 53 Live line:

30 Report No. : EED32J Page 30 of 53 Neutral line: Notes: 1. The following Quasi-Peak and Average measurements were performed on the EUT: 2. Final Test Level =Receiver Reading + LISN Factor + Cable Loss.

31 Report No. : EED32J Page 31 of 53 Appendix J): Restricted bands around fundamental frequency (Radiated Emission) Receiver Setup: Frequency Detector RBW VBW Remark 30MHz-1GHz Quasi-peak 120kHz 300kHz Quasi-peak Test Procedure: Above 1GHz Peak 1MHz 3MHz Peak Peak 1MHz 10Hz Average Below 1GHz test procedure as below: a. The EUT was placed on the top of a rotating table 0.8 meters above the ground at a 3 meter semi-anechoic camber. The table was rotated 360 degrees to determine the position of the highest radiation. b. The EUT was set 3 meters away from the interference-receiving antenna, which was mounted on the top of a variable-height antenna tower. c. The antenna height is varied from one meter to four meters above the ground to determine the maximum value of the field strength. Both horizontal and vertical polarizations of the antenna are set to make the measurement. d. For each suspected emission, the EUT was arranged to its worst case and then the antenna was tuned to heights from 1 meter to 4 meters and the rotatable was turned from 0 degrees to 360 degrees to find the maximum reading. e. The test-receiver system was set to Peak Detect Function and Specified Bandwidth with Maximum Hold Mode. f. Place a marker at the end of the restricted band closest to the transmit frequency to show compliance. Also measure any emissions in the restricted bands. Save the spectrum analyzer plot. Repeat for each power and modulation for lowest and highest channel Above 1GHz test procedure as below: g. Different between above is the test site, change from Semi- Anechoic Chamber to fully Anechoic Chamber and change form table 0.8 metre to 1.5 metre( Above 18GHz the distance is 1 meter and table is 1.5 metre). h. Test the EUT in the lowest channel, the Highest channel i. The radiation measurements are performed in X, Y, Z axis positioning for Transmitting mode, and found the X axis positioning which it is worse case. j. Repeat above procedures until all frequencies measured was complete. : Frequency Remark 30MHz-88MHz 40.0 Quasi-peak Value 88MHz-216MHz 43.5 Quasi-peak Value 216MHz-960MHz 46.0 Quasi-peak Value 960MHz-1GHz 54.0 Quasi-peak Value Above 1GHz 54.0 Average Value 74.0 Peak Value

32 Report No. : EED32J Page 32 of 53 Test plot as follows: For a Operation in the 5150MHz ~5250 MHz band Worse case mode: a (MCS0) Frequency: 5180MHz Test channel: 36 channel Polarization: Horizontal Remark: Peak

33 Report No. : EED32J Page 33 of 53 Worse case mode: a (MCS0) Frequency: 5180MHz Test channel: 36 channel Polarization: Vertical Remark: Peak Note: 1) Through Pre-scan transmitting mode with all kind of modulation and data rate, find the MCS0 is the worst case of a; and then Only the worst case is recorded in the report. 2) The field strength is calculated by adding the Factor, Cable Factor & Preamplifier. The basic equation with a sample calculation is as follows: Final Test Level =Receiver Reading - Correct Factor Correct Factor = Preamplifier Factor Factor Cable Factor

34 Report No. : EED32J Page 34 of 53 Appendix K): Unwanted Emissions in the Restricted Bands (Radiated Emission) Receiver Setup: Frequency Detector RBW VBW Remark 0.009MHz-0.090MHz Peak 10kHz 30kHz Peak 0.009MHz-0.090MHz Average 10kHz 30kHz Average 0.090MHz-0.110MHz Quasi-peak 10kHz 30kHz Quasi-peak 0.110MHz-0.490MHz Peak 10kHz 30kHz Peak 0.110MHz-0.490MHz Average 10kHz 30kHz Average 0.490MHz -30MHz Quasi-peak 10kHz 30kHz Quasi-peak 30MHz-1GHz Quasi-peak 120kHz 300kHz Quasi-peak Above 1GHz Peak 1MHz 3MHz Peak Peak 1MHz 10Hz Average Test Procedure: Below 1GHz test procedure as below: a. The EUT was placed on the top of a rotating table 0.8 meters above the ground at a 3 meter semi-anechoic camber. The table was rotated 360 degrees to determine the position of the highest radiation. b. The EUT was set 3 meters away from the interference-receiving antenna, which was mounted on the top of a variable-height antenna tower. c. The antenna height is varied from one meter to four meters above the ground to determine the maximum value of the field strength. Both horizontal and vertical polarizations of the antenna are set to make the measurement. d. For each suspected emission, the EUT was arranged to its worst case and then the antenna was tuned to heights from 1 meter to 4 meters (for the test frequency of below 30MHz, the antenna was tuned to heights 1 meter) and the rota table was turned from 0 degrees to 360 degrees to find the maximum reading. e. The test-receiver system was set to Peak Detect Function and Specified Bandwidth with Maximum Hold Mode. f. If the emission level of the EUT in peak mode was 10dB lower than the limit specified, then testing could be stopped and the peak values of the EUT would be reported. Otherwise the emissions that did not have 10dB margin would be re-tested one by one using peak, quasi-peak or average method as specified and then reported in a data sheet. Above 1GHz test procedure as below: g. Different between above is the test site, change from Semi- Anechoic Chamber to fully Anechoic Chamber and change form table 0.8 metre to 1.5 metre( Above 18GHz the distance is 1 meter and table is 1.5 metre) h. Test the EUT in the lowest channel,the middle channel,the Highest channel i. The radiation measurements are performed in X, Y, Z axis positioning for Transmitting mode, and found the X axis positioning which it is worse case. j. Repeat above procedures until all frequencies measured was complete. : Test result: Frequency Field strength (microvolt/meter) (dbµv/cm) Remark Measurement distance (cm) 0.009MHz-0.490MHz 2400/F(kHz) MHz-1.705MHz 24000/F(kHz) MHz-30MHz MHz-88MHz Quasi-peak 3 88MHz-216MHz Quasi-peak 3 216MHz-960MHz Quasi-peak 3 960MHz-1GHz Quasi-peak 3 Above 1GHz Average 3 Note: 15.35(b), Unless otherwise specified, the limit on peak radio frequency emissions is 20dB above the maximum permitted average emission limit applicable to the equipment under test. This peak limit applies to the total peak emission level radiated by the device. PASS

35 Report No. : EED32J Page 35 of 53 Radiated Spurious Emissions test Data: Radiated Emission below 1GHz 30MHz~1GHz (QP) Worse case mode:802.11a(mcs0) Test Frequency: 5180MHz Transmitting Horizontal

36 Report No. : EED32J Page 36 of 53 Worse case mode:802.11a(mcs0) Test Frequency: 5180MHz Transmitting Vertical

37 Report No. : EED32J Page 37 of 53 30MHz~1GHz (QP) Worse case mode:802.11a(mcs0) Test Frequency: 5745MHz Transmitting Horizontal

38 Report No. : EED32J Page 38 of 53 Worse case mode:802.11a(mcs0) Test Frequency: 5745MHz Transmitting Vertical

39 Report No. : EED32J Page 39 of 53 Transmitter Emission 1GHz-18GHz a for 5150MHz ~5250 MHz, 5725MHz ~5850MHz Test mode: a(MCS0) Test Frequency: 5180MHz Remark: Peak Frequency (MHz) Factor (db/m) Cable Loss Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Test mode: a(MCS0) Test Frequency: 5220MHz Remark: Peak Frequency (MHz) Factor (db/m) Cable Loss Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical

40 Report No. : EED32J Page 40 of 53 Test mode: a(MCS0) Test Frequency: 5240MHz Remark: Peak Frequency (MHz) Factor (db/m) Cable Loss Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Test mode: a(MCS0) Test Frequency: 5745MHz Remark: Peak Frequency (MHz) Factor (db/m) Cable Loss Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical

41 Report No. : EED32J Page 41 of 53 Test mode: a(MCS0) Test Frequency: 5785MHz Remark: Peak Frequency (MHz) Factor (db/m) Cable Loss Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Test mode: a(MCS0) Test Frequency: 5825MHz Remark: Peak Frequency (MHz) Factor (db/m) Cable Loss Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical

42 Report No. : EED32J Page 42 of 53 Transmitter Emission 18GHz-40GHz a for 5150MHz ~5250 MHz, 5725MHz ~5850MHz Test mode: a(MCS0) Test Frequency: 5180MHz Remark: Peak Frequency (MHz) Factor (db/m) Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Test mode: a(MCS0) Test Frequency: 5220MHz Remark: Peak Frequency (MHz) Factor (db/m) Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical

43 Report No. : EED32J Page 43 of 53 Test mode: a(MCS0) Test Frequency: 5240MHz Remark: Peak Frequency (MHz) Factor (db/m) Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Test mode: a(MCS0) Test Frequency: 5745MHz Remark: Peak Frequency (MHz) Factor (db/m) Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical

44 Report No. : EED32J Page 44 of 53 Test mode: a(MCS0) Test Frequency: 5785MHz Remark: Peak Frequency (MHz) Factor (db/m) Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Test mode: a(MCS0) Test Frequency: 5825MHz Remark: Peak Frequency (MHz) Factor (db/m) Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical

45 Report No. : EED32J Page 45 of 53 Note: 1) Through Pre-scan transmitting mode with all kind of modulation and data rate, find the MCS0 is the worst case of a and then Only the worst case is recorded in the report. 2) The field strength is calculated by adding the Factor, Cable Factor & Preamplifier. The basic equation with a sample calculation is as follows: Final Test Level =Receiver Reading - Correct Factor Correct Factor = Preamplifier Factor Factor Cable Factor 3) Scan from 9kHz to 40GHz, the disturbance below 30MHz was very low, and the above harmonics were the highest point could be found when testing, so only the above harmonics had been displayed. The amplitude of spurious emissions from the radiator which are attenuated more than 20dB below the limit need not be reported.

46 Report No. : EED32J Page 46 of 53 Appendix L): Unwanted Emissions that fall Outside of the Restricted Bands Receiver Setup: Frequency Detector RBW VBW Remark Test Procedure: Above 1GHz Peak 1MHz 3MHz Peak a) The EUT was placed on the top of a rotating table 1.5 meters above the ground at a 3 meter semi-anechoic camber. The table was rotated 360 degrees to determine the position of the highest radiation. b)the EUT was set 3 meters away from the interference-receiving antenna, which was mounted on the top of a variable-height antenna tower. c) The antenna height is varied from one meter to four meters above the ground to determine the maximum value of the field strength. Both horizontal and vertical polarizations of the antenna are set to make the measurement. d) For each suspected emission, the EUT was arranged to its worst case and then the antenna was tuned to heights from 1 meter to 4 meters and the rotatable table was turned from 0 degrees to 360 degrees to find the maximum reading. e) The test-receiver system was set to Peak Detect Function and Specified Bandwidth with Maximum Hold Mode. f) Place a marker at the end of the restricted band closest to the transmit frequency to show compliance. Also measure any emissions in the restricted bands. Save the spectrum analyzer plot. Repeat for each power and modulation for lowest and highest channel j) Test the EUT in the lowest channel or/and the middle channel,the Highest channel h) The radiation measurements are performed in X, Y, Z axis positioning for Transmitting mode, and found the X axis positioning which it is worse case. i) Repeat above procedures until all frequencies measured was complete. : Test result: Transmitter Operation Frequency(MHz) Measurement distance (cm) dBm/MHz 68.2dBuV/m dBm/MHz 68.2dBuV/m Below 5725MHz MHz MHz -27dBm/MHz 68.2dBuV/m 3-17dBm/MHz 78.2dBuV/m 3-17dBm/MHz 78.2dBuV/m 3 Above -27dBm/MHz 68.2dBuV/m MHz Note: (i) EIRP = ((E*d)^2) / 30 where: E is the field strength in V/m; d is the measurement distance in meters; EIRP is the equivalent isotropically radiated power in watts. (ii) Working in db units, the above equation is equivalent to: EIRP[dBm] = E[dBμV/m] + 20 log(d[meters]) (iii) Or, if d is 3 meters: EIRP[dBm] = E[dBμV/m] PASS

47 Report No. : EED32J Page 47 of 53 Test Data: a for 5150MHz ~5250 MHz, 5725MHz ~5850MHz Test mode: a(MCS0) Test Frequency: 5180MHz Remark: Peak Frequency (MHz) Factor (db/m) Cable Loss Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Test mode: a(MCS0) Test Frequency: 5220MHz Remark: Peak Frequency (MHz) Factor (db/m) Cable Loss Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical

48 Report No. : EED32J Page 48 of 53 Test mode: a(MCS0) Test Frequency: 5240MHz Remark: Peak Frequency (MHz) Factor (db/m) Cable Loss Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Test mode: a(MCS0) Test Frequency: 5745MHz Remark: Peak Frequency (MHz) Factor (db/m) Cable Loss Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical

49 Report No. : EED32J Page 49 of 53 Test mode: a(MCS0) Test Frequency: 5785MHz Remark: Peak Frequency (MHz) Factor (db/m) Cable Loss Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Test mode: a(MCS0) Test Frequency: 5825MHz Remark: Peak Frequency (MHz) Factor (db/m) Cable Loss Preamp Gain Read Level (dbµv) Final test level Over Result Polaxis Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Horizontal Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical Pass Vertical

50 Report No. : EED32J Page 50 of 53 Note: 1) The field strength is calculated by adding the Factor, Cable Factor & Preamplifier. The basic equation with a sample calculation is as follows: Final Test Level =Receiver Reading - Correct Factor Correct Factor = Preamplifier Factor Factor Cable Factor 2) Through Pre-scan transmitting mode with all kind of modulation and data rate, find the MCS0 is the worst case of a and then Only the worst case is recorded in the report. 3) Scan from 9kHz to 40GHz, the disturbance below 30MHz was very low, and the above harmonics were the highest point could be found when testing, so only the above harmonics had been displayed. The amplitude of spurious emissions from the radiator which are attenuated more than 20dB below the limit need not be reported.

51 Report No. : EED32J Page 51 of 53 PHOTOGRAPHS OF TEST SETUP Test Model No.: RM100 Radiated spurious emission Test Setup-1(Below 30MHz) Radiated spurious emission Test Setup-2(30MHz-1GHz)

52 Report No. : EED32J Page 52 of 53 Radiated spurious emission Test Setup-3(Above 1GHz) Conducted Emissions Test Setup