Description of the test object Appendix 1. Operation mode during measurements Appendix 1. Test setups Appendix 1. Purpose of test Appendix 1

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2 P8658-F27 2 (2) Table of contents Description of the test object ppendix Operation mode during measurements ppendix Test setups ppendix Purpose of test ppendix RF power output conducted ppendix 2 Occupied bandwidth ppendix 3 Band edge ppendix 4 Spurious emission at antenna terminals ppendix 5 Field strength of spurious radiation ppendix 6 Frequency stability ppendix 7 External photos ppendix 8

3 Date Reference P8658-F27 Page (8)) ppendix Description of the testt object Equipment: Tested configuration: Frequency bands: ntenna ports: Product name: RRUS E2 B29 Product number: KRC 6 48/, 4 R FCCC ID T8KRC648- IC 287B-S648 IC MODEL NO: S648 LTEE single RT TX: : MHz RX: : N/ 2 TXX ports RF configuration: Single carrier, multi carrier and a MIMO mode 2x2 Nominal output power per antenna port: Single carrier: Multi carrier: x 46. dbm ( x 4W) 2x 43. dbm (2 x 2W) ntenna: Channel bandwidths: Modulations: Nominal supply voltage: No dedicated antenna, handled during licensing 3 MHz, 5 MHz and MHzz QPSK, 6QM and 64QM -48VDC

4 P8658-F27 2 (8) ppendix Operation mode during measurements Measurements were performed with the test object transmitting test models as defined in 3GPP TS Test model E-TM. represent QPSK modulation, test model E-TM3.2 represent 6QM modulation and test model E-TM3. represent 64QM modulation. The settings below were deemed representative for all traffic scenarios when settings with different modulations, channel bandwidths, number of carriers and RF configurations has been tested to find the worst case setting. ll measurements were performed with the test object configured for maximum transmit power. The settings below were used for all measurements if not otherwise noted. MIMO mode, single carrier: E-TM. MIMO mode, multi carrier: 2 carriers E-TM. Conducted measurements The test object was supplied with -48 VDC by an external power supply if not noted otherwise. dditional connections are documented in the setup drawings below. Complete measurements were made on RF with additional measurements on RF B to verify that the ports are identical. Radiated measurements The test object was supplied with -48 VDC by an external power supply. dditional connections are documented in the setup drawings below. Purpose of test The purpose of the tests is to verify compliance to the performance characteristics specified in applicable items of FCC CFR 47 and IC RSS-3 and IC RSS-Gen. References Measurements were done according to relevant parts of the following standards: NSI NSI/TI/EI-63-C-24 3GPP TS 36.4, version.4. CFR 47 part 2, December 6 th, 23 CFR 47 part 27, December 6 th, 23 RSS-Gen Issue 3 RSS-3 Issue

5 P8658-F27 3 (8) ppendix Uncertainties Measurement and test instrument uncertainties are described in the quality assurance documentation SP-QD 885. The uncertainties are calculated with a coverage factor k=2 (95% level of confidence). Compliance evaluation is based on a shared risk principle with respect to the measurement uncertainty. Reservation The test results in this report apply only to the particular test object as declared in the report. Delivery of test object The test object was delivered Manufacturer s representative Mihai Simon, Ericsson B. Test engineers Tomas Isbring, Kexin Chen, Jörgen Wassholm, Tomas Lennhager, ndreas Johnson and Rolf Kühn, SP. Test participants Mihai Simon and Ove Nilsson, Ericsson B.

6 P8658-F27 4 (8) ppendix Measurement equipment Calibration due SP number Test site Tesla R&S FSIQ R&S ESU R&S FSW R&S FSQ Control computer with R&S software EMC32 version High pass filter High pass filter High pass filter High pass filter High pass filter High pass filter RF attenuator RF attenuator RF attenuator RF attenuator Chase Bilog ntenna CBL EMCO Horn ntenna Std.gain horn FLNN model µcomp Nordic, Low Noise mplifier Miteq Low Noise mplifier Schwartzbeck preamplifier BBV Temperature and humidity meter, Testo Temperature and humidity meter, Testo Temperature Chamber Multimeter Fluke

7 Date Reference P8658-F27 Page 5 (8)) ppendix Test frequencies used for conducted and radiated measurements TX test frequencies ERFCN Frequency Downlink [MHz] Symbolic name B2 3 3 B2 3 5 B2 5 3 B B B M M2 3 3 T T T T2 3 3 T2 3 5 Comment 2 carrier TX bottom constellation 3 MHz BW configuration 2 carrier TX bottom constellation 3 MHz and 5MHz BW configurationc n 2 carrier TX bottom constellation 5 MHz and 3MHz BW configurationc n TX bottom frequency inn 3 MHz BWW configuration TX bottom frequency inn 5 MHz BWW configuration TX bottom frequency inn MHz BWW configuration TX band mid frequencyy all BW configurations 2 carrier TX mid constellation 3 MHz BW configuration TX top frequency in 3 MHz BW configuration TX top frequency in 5 MHz BW configuration TX top frequency in MHz BW configuration 2 carrier TX top constellation 3 MHz BW configuration 2 carrier TX top constellation 3 MHz and 5 MHz BW configuration

8 Date Reference P8658-F27 Page 6 (8) ppendix Test setup conducted measurement ts Test object:. RRUS E2 B29, KRC 6 48/, revision R, s/n: C Software CXP 9 736/2, revision R54VB (FCC ID: T8KRC648- and IC: 287B-S648) Functional test equipment 2. SUP 66, /BFL 9 9/4, revision RE, s/n: BR DUL 2, KDU /4, revison RC, s/n: C Fast Ethernet switch, Netgear GSM7224, BMS Controlling computer SUN ULTR 27, BMS SP testt Instrumentation according to measurement equipment list 6. SP Test Instrumentation according to measurement equipment list 7. Terminator

9 Date Reference P8658-F27 Page 7 (8) ppendix Test setup radiated measuremen nts Test object:. RRUS E2 B29, KRC 6 48/, revision R, s/n: C Software CXP 9 736/2 revision R54VB (FCC ID: T8KRC648- and IC: 287B-S648) Functional test equipment: 2. Main Unit SUP 66, /BFL 9 9/4, revision RE, s/n: BR DUL 2, KDU /4, revision RC, s/n: C Switch Netgear GSM722, BMS Computer Sun ultra27-, BMS Terminator 6. RET Remote Electrical Tilt unit, KRY 2 67/2, revision RN

10 P8658-F27 8 (8) ppendix Interfaces: Power: -48 VDC ntenna port (), 7/6 connector ntenna port (B), 7/6 connector Data, Optical Interface Link, single mode opto fibre Data 2, Optical Interface Link, single mode opto fibre, not in use larm, shielded multi-wire LD Ctrl, shielded multi-wire Ground wire DC Power ntenna ntenna Signal Signal Signal Signal Ground RBS software: Software CXP 2 5/2 Revision R8GT

11 P8658-F27 (3) ppendix 2 RF power output measurements according to CFR / IC RSS-3 4.4, conducted Date Temperature 22 C ± 3 C 2 C ± 3 C 23 C ± 3 C Humidity 26 % ± 5 % 34 % ± 5 % 3 % ± 5 % Test set-up and procedure The test object was connected to a signal analyser measuring peak and RMS output power in CDF mode. resolution bandwidth of 5 MHz was used. For the MHz power averaging measurement method acc. to KDB9768, chapter 5.4. Measurement equipment SP number R&S FSQ RF attenuator Testo 635, temperature and humidity meter Measurement uncertainty:. db

12 P8658-F27 2 (3) ppendix 2 Results Single carrier, MIMO Rated output power level at RF connector x 46. dbm. Carrier BW [MHz] Symbolic name [RMS dbm/ PR db] Port RF Port RF B Total power ) 3 B 46.9/ / B 45.99/ / M 46.22/ / M 46.2/ / M 46./ / T 45.79/ / T 45.88/ / ) : Summed output power according to FCC KDB6629 DMultiple transmitter output v2r. Note: The PR value is the. % Peak to verage Ratio. MIMO mode, multicarrier Rated output power level at RF connector 2x 43. dbm. Carrier BW [MHz] Symbolic name [RMS dbm/ PR db] Port RF Port RF B Total power ) 3 and 3 B / / and 5 B / / and 3 B / / and 3 M / / and 3 T / / and 5 T / / ) : Summed output power according to FCC KDB6629 D Multiple transmitter output v2r. Method E), 2), a). Note: The PR value is the. % Peak to verage Ratio.

13 Date Reference P8658-F27 Page 3 (3)) ppendix 2 MIMO mode, single carrier Measured output power per MHz. Carrier BW Symbolic [RMS dbm] [MHz] name Portt RF Port RF B 3 B B M M M T T Total power ) [RMS dbm] ) : Measured according to FCC KDB6629 D Multiple Transmitter Output v2r. Method E), 2), c). Measure and add log(n nt ) Remark This unit is ested without antenna. ERP/EIRP compliance is addressed a at the time of licensing, as required by the responsible FCC/IC Bureau(s). Licensee s L aree required to take into account maximum allowed antenna gain used in combination with power settings to prevent the radiated outpu power to exceed the limits. Limits CFR / IC RSS : licensee authorized to operate in the or MHz bands may operate a fixed or base station at an ERP up to a total off 5 kw within its authorized, 6 MHzz spectrum block. RSS-3 4.4: The average equivalent isotropically radiated power (e.i.r.p.) limits l in SRSP-58 apply, resulting in a maximumm EIRP of 328 W/ MHzz for the scope of this report. The peak-to-average ratio PR of thee power shalll not exceed 3 db. Complies? Yes

14 P8658-F27 (6) ppendix 3 Occupied bandwidth measurements according to 47 CFR 2.49 / RSS-Gen 4.6. Date Temperature 22 C ± 3 C 2 C ± 3 C Humidity 26 % ± 5 % 34 % ± 5 % Test set-up and procedure The measurements were made per definition in The output was connected to a signal analyser with the RMS detector activated. The signal analyser was connected to an external MHz reference standard during the measurements. Measurement equipment SP number R&S FSQ RF attenuator Testo 635, temperature and humidity meter Measurement uncertainty: 3.7 db Results MIMO mode, single carrier Diagram BW configuration Symbolic name Tested Port Occupied BW (99%) [MHz] 3 MHz B RF MHz B RF MHz M RF MHz M RF B MHz M RF MHz M RF B MHz M RF MHz M RF B MHz T RF MHz T RF 4.48

15 P8658-F27 2 (6) ppendix 3 Diagram : Ref 6 dbm * RBW 3 khz VBW 3 khz * tt 3 db * SWT 2 s 24.8 dbm 72.5 MHz 6 OBW 2.69 MHz Temp [T OBW] RM * CLRWR dbm MHz Temp 2 [T OBW] 25.9 dbm MHz 3 T T Center 72.5 MHz 9 khz/ Span 9 MHz Date: 2.DEC.23 2:6:56 Diagram 2: Ref 66 dbm * RBW 5 khz VBW 5 khz * tt 3 db * SWT 2 s dbm 79.5 MHz RM * CLRWR OBW MHz Temp [T OBW] 25.9 dbm MHz Temp 2 [T OBW] dbm MHz 3 T T Start 72 MHz.5 MHz/ Stop 727 MHz Date: 2.DEC.23 5:54:4

16 P8658-F27 3 (6) ppendix 3 Diagram 3: Ref 62 dbm * RBW 3 khz VBW 3 khz * tt 3 db * SWT 2 s 25. dbm MHz 6 OBW 2.69 MHz Temp [T OBW] RM * CLRWR dbm MHz Temp 2 [T OBW] dbm MHz 3 T T Center MHz 9 khz/ Span 9 MHz Date: 2.DEC.23 6:6:33 Diagram 4: Ref 62 dbm * RBW 3 khz VBW 3 khz * tt 3 db * SWT 2 s dbm MHz 6 OBW MHz Temp [T OBW] dbm RM CLRWR * MHz Temp 2 [T OBW] dbm MHz 3 T T Center MHz 9 khz/ Span 9 MHz Date: 7.JN.24 9::29

17 P8658-F27 4 (6) ppendix 3 Diagram 5: Ref 66 dbm * RBW 5 khz VBW 5 khz * tt 3 db * SWT 2 s dbm MHz RM * CLRWR OBW MHz Temp [T OBW] dbm MHz Temp 2 [T OBW] dbm MHz 3 T T Center MHz.5 MHz/ Span 5 MHz Date: 2.DEC.23 6:3:7 Diagram 6: Ref 66 dbm * RBW 5 khz VBW 5 khz * tt 3 db * SWT 2 s 25.4 dbm MHz RM CLRWR * OBW MHz Temp [T OBW] dbm MHz Temp 2 [T OBW] 26. dbm MHz 3 T T Center MHz.5 MHz/ Span 5 MHz Date: 7.JN.24 9:27:6

18 P8658-F27 5 (6) ppendix 3 Diagram 7: Ref 66 dbm * RBW khz VBW MHz * tt 3 db * SWT 2 s dbm MHz RM CLRWR * OBW 8.93 MHz Temp [T OBW] 25.6 dbm 78.4 MHz Temp 2 [T OBW] dbm MHz 3 T T Center MHz 3 MHz/ Span 3 MHz Date: 2.DEC.23 6:36:2 Diagram 8: Ref 66 dbm * RBW khz VBW MHz * tt 3 db * SWT 2 s 26.8 dbm MHz RM * CLRWR OBW 8.93 MHz Temp [T OBW] dbm 78.4 MHz Temp 2 [T OBW] dbm MHz 3 T T Center MHz 3 MHz/ Span 3 MHz Date: 7.JN.24 9:22:27

19 P8658-F27 6 (6) ppendix 3 Diagram 9: Ref 6 dbm * RBW 3 khz VBW 3 khz * tt 3 db * SWT 2 s dbm MHz 6 OBW 2.69 MHz Temp [T OBW] RM * CLRWR dbm MHz Temp 2 [T OBW] dbm MHz 3 T T Center MHz 9 khz/ Span 9 MHz Date: 7.JN.24 9:55:36 Diagram : Ref 66 dbm * RBW 5 khz VBW 5 khz * tt 3 db * SWT 2 s 25.6 dbm MHz RM CLRWR * OBW 4.48 MHz Temp [T OBW] dbm MHz Temp 2 [T OBW] dbm MHz 3 T T Center MHz.5 MHz/ Span 5 MHz Date: 7.JN.24 9:4:26

20 Date Reference P8658-F27 Page (3) ppendix 4 Band edge measurements according to CFR (f) / IC RSS Date Temperature 22 C ± 3 C 2 C ± 3 C 23 C ± 3 C Humidity H 26 % ± 5 % 34 % ± 5 % 3 % ± 5 % Test set-up and procedure The measurements were made per definition in 27.53(f). Thee test object was connected to a spectrum analyser with the RMS detector activated. The spectrum analyser was connected to an external MHz reference standard during the measurements. Compliance with this provision is based on the use of measurement instrumentation employing a resolution bandwidth of khz or greater. However, in the khz bands immediately outside and adjacent to a licensee's frequency block, a resolution bandwidth of at least 3 khz may be employed. Before comparing the results to the limit, 3 db [ log (2)] should be added according to method E), 3), a), (iii ) Measure and add log(n NT ) of FCCC KDB6629 D Multiple Transmitter Output v2r. Measurement equipment R&S FSQ RF attenuator Testo 635, temperature and humidity meter SPP number Measurement uncertainty: 3.7 db

21 Date Reference P8658-F27 Page 2 (3) ppendix 4 Results MIMO mode, Single carrier Diagram BW configuration a+b 3 MHz 2 a+b 5 MHz 3 a MHz 4 a+b 3 MHz 5 a+b 3 MHz 6 a+b 5 MHz 7 a MHz MIMO mode, multi carrier Diagram BW configuration 8 a+b 3 and 3 MHz 9 a+b 5 and 3 MHz a+b 3 and 3 MHz a+b 3 and 5 MHz Limits CFR (f) and RSS Symbolic name B B B T T T T Symbolic name B2 3 3 B2 5 3 T2 3 3 T2 3 5 Tested Port RF RF RF RF RF B RF RF Tested Port RF RF RF RF Outside a licensee s frequency band(s) of operation the powerr of any emission shall be attenuated below the transmitter power (P) by at least 43 + log (P) db, resulting in a limit of -3 dbm. Complies? Yes

22 P8658-F27 3 (3) ppendix 4 Diagram a: Ref 7 dbm * RBW 3 khz VBW 3 khz * tt 2 db * SWT 2 s dbm 76.9 MHz RM * Marker 2 [T ] dbm 77. MHz Marker 3 [T ] 24.8 dbm 72.5 MHz D -3 dbm F2 F Start 76 MHz 9 khz/ Stop 725 MHz Date: 7.JN.24 :9:29 Diagram b: Ref 7 dbm * RBW khz VBW MHz * tt 2 db * SWT 2 s dbm 76.9 MHz 7 6 RM * D -3 dbm Start 7 MHz.59 MHz/ Stop 76.9 MHz Date: 7.JN.24 :23:36

23 P8658-F27 4 (3) ppendix 4 Diagram 2 a: Ref 7 dbm * RBW 3 khz VBW 3 khz * tt 2 db * SWT 2 s dbm 76.9 MHz RM * Marker 2 [T ] dbm 77. MHz Marker 3 [T ] dbm 79.5 MHz D -3 dbm F2 F Start 76 MHz 9 khz/ Stop 725 MHz Date: 2.DEC.23 4:54:56 Diagram 2 b: Ref 7 dbm * RBW khz VBW MHz * tt 2 db * SWT 2 s dbm 76.9 MHz 7 6 RM * D -3 dbm Start 7 MHz.59 MHz/ Stop 76.9 MHz Date: 2.DEC.23 5:2:4

24 P8658-F27 5 (3) ppendix 4 Diagram 3 a: Ref 7 dbm * RBW khz VBW MHz * tt 2 db * SWT 2 s dbm 77. MHz RM * Marker 2 [T ] dbm 722. MHz Marker 3 [T ] dbm 728. MHz D -3 dbm F F2 Start 7 MHz 4.3 MHz/ Stop 744 MHz Date: 2.DEC.23 6::42

25 P8658-F27 6 (3) ppendix 4 Diagram 4 a: RM * * RBW 3 khz VBW 3 khz Ref 7 dbm * tt 2 db * SWT 2 s dbm MHz Marker 2 [T ] -7.2 dbm 728. MHz Marker 3 [T ] dbm 728. MHz D -3 dbm F2 F Start 72 MHz 9 khz/ Stop 729 MHz Date: 2.DEC.23 :5:4 Diagram 4 b: Ref 7 dbm * RBW khz VBW MHz * tt 2 db * SWT 2 s dbm 728. MHz 7 6 RM * D -3 dbm Start 728. MHz.59 MHz/ Stop 744 MHz Date: 2.DEC.23 :2:2

26 P8658-F27 7 (3) ppendix 4 Diagram 5 a: Ref 7 dbm * RBW 3 khz VBW 3 khz * tt 2 db * SWT 2 s dbm MHz RM * Marker 2 [T ] dbm 728. MHz Marker 3 [T ] dbm 728. MHz D -3 dbm F2 F Start 72 MHz 9 khz/ Stop 729 MHz Date: 7.JN.24 9:32:22 Diagram 5 b: Ref 7 dbm * RBW khz VBW MHz * tt 2 db * SWT 2 s dbm 728. MHz 7 6 RM * D -3 dbm Start 728. MHz.59 MHz/ Stop 744 MHz Date: 7.JN.24 9:33:36

27 P8658-F27 8 (3) ppendix 4 Diagram 6 a: Ref 7 dbm * RBW 3 khz VBW 3 khz * tt 2 db * SWT 2 s 22.5 dbm MHz RM * Marker 2 [T ] dbm 728. MHz Marker 3 [T ] dbm 728. MHz D -3 dbm F2 F Start 72 MHz 9 khz/ Stop 729 MHz Date: 7.JN.24 9:43:25 Diagram 6 b: Ref 7 dbm * RBW khz VBW MHz * tt 2 db * SWT 2 s -22. dbm 728. MHz 7 6 RM * D -3 dbm Start 728. MHz.59 MHz/ Stop 744 MHz Date: 7.JN.24 9:44:5

28 P8658-F27 9 (3) ppendix 4 Diagram 7 a: Ref 7 dbm * RBW khz VBW MHz * tt 2 db * SWT 2 s dbm 77. MHz RM * Marker 2 [T ] 26.6 dbm 723. MHz Marker 3 [T ] -3.7 dbm 728. MHz D -3 dbm F F2 Start 7 MHz 4.3 MHz/ Stop 744 MHz Date: 7.JN.24 :8:6

29 P8658-F27 (3) ppendix 4 Diagram 8 a: RM * Ref 7 dbm * RBW 3 khz VBW 3 khz * tt 2 db * SWT 2 s dbm 76.9 MHz Marker 2 [T ] -4.7 dbm 77. MHz Marker 3 [T ] 2.56 dbm 72.5 MHz Marker 4 [T ] 2.77 dbm MHz 4 D -3 dbm F2 F Start 76 MHz 9 khz/ Stop 725 MHz Date: 7.JN.24 :39:23 Diagram 8 b: Ref 7 dbm * RBW khz VBW MHz * tt 2 db * SWT 2 s dbm 76.9 MHz 7 6 RM * D -3 dbm Start 7 MHz.59 MHz/ Stop 76.9 MHz Date: 7.JN.24 :4:56

30 P8658-F27 (3) ppendix 4 Diagram 9 a: RM * Ref 7 dbm * RBW 3 khz VBW 3 khz * tt 2 db * SWT 2 s dbm 76.9 MHz Marker 2 [T ] dbm 77. MHz Marker 3 [T ] 9.3 dbm 79.5 MHz Marker 4 [T ] 2.89 dbm MHz 4 D -3 dbm F2 F Start 76 MHz 9 khz/ Stop 725 MHz Date: 8.JN.24 8:34:59 Diagram 9 b: Ref 7 dbm * RBW khz VBW MHz * tt 2 db * SWT 2 s dbm 76.9 MHz 7 6 RM * D -3 dbm Start 7 MHz.59 MHz/ Stop 76.9 MHz Date: 8.JN.24 8:37:2

31 P8658-F27 2 (3) ppendix 4 Diagram a: RM * Ref 7 dbm * RBW 3 khz VBW 3 khz * tt 2 db * SWT 2 s 2.63 dbm MHz Marker 2 [T ] 2.59 dbm MHz Marker 3 [T ] dbm 728. MHz Marker 4 [T ] dbm 728. MHz 2-2 D -3 dbm F2 F Start 72 MHz 9 khz/ Stop 729 MHz Date: 7.JN.24 2:9:4 Diagram b: Ref 7 dbm * RBW khz VBW MHz * tt 2 db * SWT 2 s -26. dbm 728. MHz 7 6 RM * D -3 dbm Start 728. MHz.59 MHz/ Stop 744 MHz Date: 7.JN.24 2::26

32 P8658-F27 3 (3) ppendix 4 Diagram a: RM * Ref 7 dbm * RBW 3 khz VBW 3 khz * tt 2 db * SWT 2 s dbm 72.5 MHz Marker 2 [T ] 9.56 dbm MHz Marker 3 [T ] dbm MHz Marker 4 [T ] -3.2 dbm 728. MHz D -3 dbm F2 F Start 72 MHz 9 khz/ Stop 729 MHz Date: 8.JN.24 9::2 Diagram b: Ref 7 dbm * RBW khz VBW MHz * tt 2 db * SWT 2 s dbm 728. MHz 7 6 RM * D -3 dbm Start 728. MHz.59 MHz/ Stop 744 MHz Date: 8.JN.24 9::33

33 Date Reference P8658-F27 Page (9) ppendix 5 Conducted spurious emission measurements according to CFR (f)/ IC RSS Date Temperature 22 C ± 3 C 2 C ± 3 C 23 C ± 3 C Humidity H 26 % ± 5 % 34 % ± 5 % 3 % ± 5 % Test set-up and procedure The measurements were made per definition in 27.53(f). Thee output was connected to a spectrum analyser with a RBW setting of MHz and RMS detector activated. The spectrum analyser was connected to an externall MHz reference standard during the measurements. Before comparing the results to the limit, 3 db [ log (2)] should be added according to method E), 3), (iii) measure and addd log(n NT T) of FCC KDB6629 K D Multiple Transmitter Output v2r. Measurement equipment R&S FSQ RF attenuator HP filter Testo 635, temperature and humidity meter SPP number Measurement uncertainty: 3.7 db

34 P8658-F27 2 (9) ppendix 5 Results MIMO mode, single carrier Diagram BW configuration / [MHz] Symbolic name Tested Port a+b 3 MHz B RF 2 a+b 5 MHz B RF 3 a+b 3 MHz M RF 4 a+b 3 MHz M RF B 5 a+b 5 MHz M RF 6 a+b MHz M RF 7 a+b MHz M RF B 8 a+b 3 MHz T RF 9 a+b 5 MHz T RF MIMO mode, 2 carrier Diagram BW configuration Symbolic name Tested Port a+b 3 and 3 MHz B2 3 3 RF a+b 3 and 5 MHz B2 3 5 RF 2 a+b 3 and 3 MHz M2 3 3 RF 3 a+b 3 and 3 MHz M2 3 3 RF B 4 a+b 3 and 3 MHz T2 3 3 RF 5 a+b 3 and 5 MHz T2 3 5 RF 6 a+b 5 and 3 MHz B2 5 3 RF

35 Date Reference P8658-F27 Page 3 (9) ppendix 5 Remark The emission at 9 khz on the plots was not generated by the test object. complementary measurement with a smaller RBW showed that it was related to t the LO feed-through. The highest fundamental frequency iss 728 MHz. The measurements were made up to 8 GHz (x728 MHz = 7.28 GHz). Limits 27.53(f) and RSS Outside a licensee s frequency band(s) of operation the powerr of any emission shall be attenuated below the transmitter power (P) by at least 43 + log (P) db, resulting in a limit of -3 dbm per khz RBW. Complies? Yes

36 P8658-F27 4 (9) ppendix 5 Diagram a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s dbm 72.5 MHz RM * Marker 2 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 2.DEC.23 5:58: Diagram b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 2.DEC.23 2:5:8

37 P8658-F27 5 (9) ppendix 5 Diagram 2 a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s 4.3 dbm 72.5 MHz RM * Marker 2 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 2.DEC.23 5:5:7 Diagram 2 b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 2.DEC.23 3:2:24

38 P8658-F27 6 (9) ppendix 5 Diagram 3 a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s dbm MHz RM * Marker 2 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 2.DEC.23 6:8:52 Diagram 3 b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 2.DEC.23 6:2:3

39 P8658-F27 7 (9) ppendix 5 Diagram 4 a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s dbm MHz RM * Marker 2 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 7.JN.24 9:2:53 Diagram 4 b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 7.JN.24 9:4:4

40 P8658-F27 8 (9) ppendix 5 Diagram 5 a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s 4.2 dbm MHz RM * Marker 2 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 2.DEC.23 6:26:45 Diagram 5 b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 2.DEC.23 6:23:5

41 P8658-F27 9 (9) ppendix 5 Diagram 6 a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s 37.4 dbm MHz RM * Marker 2 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 2.DEC.23 6:39:57 Diagram 6 b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 2.DEC.23 6:42:38

42 P8658-F27 (9) ppendix 5 Diagram 7 a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s 37.6 dbm MHz RM * Marker 2 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 7.JN.24 9:9:5 Diagram 7 b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 7.JN.24 9:7:5

43 P8658-F27 (9) ppendix 5 Diagram 8 a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s 4.89 dbm MHz RM * Marker 2 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 7.JN.24 9:52:46 Diagram 8 b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 7.JN.24 9:5:9

44 P8658-F27 2 (9) ppendix 5 Diagram 9 a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s dbm MHz RM * Marker 2 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 7.JN.24 9:47:2 Diagram 9 b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 7.JN.24 9:48:46

45 P8658-F27 3 (9) ppendix 5 Diagram a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s 39. dbm 72.5 MHz RM * Marker 2 [T ] dbm MHz Marker 3 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 7.JN.24 :43:47 Diagram b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 7.JN.24 :46:43

46 P8658-F27 4 (9) ppendix 5 Diagram a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s dbm 79.5 MHz RM * Marker 2 [T ] dbm MHz Marker 3 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 8.JN.24 8:42:2 Diagram b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 8.JN.24 8:44:5

47 P8658-F27 5 (9) ppendix 5 Diagram 2 a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s dbm 72. MHz RM * Marker 2 [T ] dbm 724. MHz Marker 3 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 7.JN.24 :59:24 Diagram 2 b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 7.JN.24 :57:44

48 P8658-F27 6 (9) ppendix 5 Diagram 3 a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s dbm 72. MHz RM * Marker 2 [T ] 39.2 dbm 724. MHz Marker 3 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 7.JN.24 :48:55 Diagram 3 b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 7.JN.24 :55:23

49 P8658-F27 7 (9) ppendix 5 Diagram 4 a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s 39.6 dbm MHz RM * Marker 2 [T ] dbm MHz Marker 3 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 7.JN.24 2:2:38 Diagram 4 b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 7.JN.24 2:4:24

50 P8658-F27 8 (9) ppendix 5 Diagram 5 a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s 39.5 dbm 72.5 MHz RM * Marker 2 [T ] dbm MHz Marker 3 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 8.JN.24 9:3:25 Diagram 5 b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 8.JN.24 9:5:2

51 P8658-F27 9 (9) ppendix 5 Diagram 6 a: Ref 65 dbm * RBW MHz VBW MHz * tt 25 db * SWT 3 s dbm 79.5 MHz RM * Marker 2 [T ] dbm MHz Marker 3 [T ] dbm MHz 3 2 D -3 dbm Start 9 khz MHz/ Stop GHz Date: 8.JN.24 8:42:2 Diagram 6 b: Ref 2 dbm * RBW MHz VBW MHz * tt db * SWT s dbm GHz 2 Offset.9 db RM * LVL -M Start GHz 7 MHz/ Stop 8 GHz Date: 8.JN.24 8:44:5

52 Date Reference P8658-F27 Page (4)) ppendix 6 Field strength of spurious radiation measurements according too 47 CFR (f) / IC RSS Date Temperature 23 C ± 3 C 22 C ± 3 C Humidity H 35 % ± 5 % 3 % ± 5 % Test set-up and procedure The test sitess are listed att FCC, Columbia with registration number: The test site complies with RSS-Gen, Industry Canada file no The measurements were performed with both horizontal and vertical v polarization of the antenna. The antenna distance was 3 m in the frequency rangee 3 MHz 8 GHz. In the frequency range 3 MHz 8 GHz the measurement was performed in power with a RBW of MHz. propagation loss in free space was calculated. The usedd formula was 4 D 2log, is the propagation loss and D is the antenna distance. The measurement procedure was as the following:. The pre-measuremenin eight directions and with the antenna at three heights,. m,.5 m and 2. m. was first performed with peak detector. The EUT was measured 2. Spurious radiation on frequencies closer than 2 db to the limit in thee pre-measurement is scanned -36 degrees and thee antenna is scanned - 4 m for maximum response. The emission is then measured with the RMS detector and the RMS value is reported. Frequencies closer than db too the limit when measured with the RMS detectorr were measured with the substitution method according to the standard.

53 P8658-F27 2 (4) ppendix 6 The test set-up during the spurious radiation measurements is shown in the picture below: Measurement equipment Measurement equipment SP number Semi anechoic chamber R&S ESU EMC 32 ver Chase Bilog ntenna CBL EMCO Horn ntenna Flann STD Gain Horn ntenna High pass filter Miteq, Low Noise mplifier Temperature and humidity meter, Testo

54 Date Reference P8658-F27 Page 3 (4)) ppendix 6 Tested configurations Symbolic name B2 3 3 B2 3 5 B M M2 3 3 T T2 3 3 T2 3 5 BW configuration Multi carrier: 3 and 3 MHz Multi carrier: 3 and 5 MHz 3, 5 and MHz 3, 5 and MHz Multi carrier: 3 and 3 MHz 3, 5 and MHz Multi carrier: 3 and 3 MHz Multi carrier: 3 and 5 MHz Results, representing worst case M, BW: 3 MHz Diagram a-b Spurious emission level (dbm)( Frequency (MHz) 3-8 Vertical ll emission > 2 dbb below limit Horizontal ll emission > 2 db below limit Measurement uncertainty: 3.2 db up to 8 GHz. Limits 27.53(f) and RSS Outside a licensee s frequency band(s) of operation the powerr of any emission shall be attenuated below the transmitter power (P) by at least 43 + log (P) db, resulting in a limit of -3 dbm per MHz RBW. Complies? Yes

55 P8658-F27 4 (4) ppendix 6 Diagram a: FCC P2-2 Level in dbm M M G Frequency in Hz Note: The emission at MHz is the carrier frequency and shall be ignored in the context. Diagram b: FCC P2-2 Level in dbm G 2G 3G 4G 5G 6 7 8G Frequency in Hz

56 Date Reference P8658-F27 Page (2)) ppendix 7 Frequency stability measuremen nts according to CFR / IC RSS Date to Test set-up and procedure Temperature (test equipment) C ± 3 C Humidity H (testt equipment) % ± 5 % The measurement was made per 3GPP TS The outputt was connected to a spectrum analyser. The spectrum analyser was connected to an external MHz reference standard during the measurements. The measurement was also made per IC RSS Using a resolution bandwidth off % of the occupied bandwidth, a reference point at the unwanted emission level which complies with the attenuation of 43 + log p (watts) (i.e. -3dBm) (for MIMO -6dBm) at the band edge of the lowest and highest channel wass selected, and the frequency at these e points was recorded r as fl and fh respectively. Measurement equipment R&S FSQ RF attenuator Testo 635, Temperature and humidityy meter Temperature cabinet SP number Results Nominal transmitter frequency was MHz (M) with a bandwidth of 5 MHz. Rated output power level at connector RF (maximum): 46. dbm (4 W) ) Test conditions Supply voltage Temp. DC (V) ( C)) Maximumm freq. error (Hz) Measurement uncertainty -2-3 Frequency error (Hz) < ± x -7 Measurements according to t 3GPP TS 36.4.

57 Date Reference P8658-F27 Page 2 (2)) ppendix 7 Rated output power level at connector RF (maximum): 46. dbm d (4 W) Test conditions Supply voltage DC (V) Temp ( C). Carrier Bandwidth (MHz) Frequency margin too band edge at -6dBm Test frequency Symbolic name Test frequency Symbolicc name Bottom Top fll (MHz) Offset to lower band edge (>76 MHz) (khz) fh (MHz) Offset to upper band edge (<728 MHz) (khz) Measurements according to t IC RSS The frequency error results clearly shows that the frequency stability is goodd enough to ensure that the transmitted carrierr stay within the operating band. Limits Limit according to 3GPP TS 36.4: The frequency error shalll be within ±.5 PPM ± 2 Hz (±48.25Hz) : The frequency stability shall be sufficient to ensure that the fundamental emissions stay within the authorized bands of operation. RSS Frequency: The frequency stability shall be sufficient to ensure that the emission bandwidth stays within the operating frequency block when tested to the temperature and supply voltage variations specified in RSS-Gen. Complies? Yes

58 P8658-F27 (2) ppendix 8 External photos Front side Rear side Top side Bottom side,

59 P8658-F27 2 (2) ppendix 8 ID-label