SAR Probe & Dipole Cal Cert

FCC ID: 2AM4J-E12

RF Exposure Info

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Calibration Laboratory of Schweizerischer Kalibrierdienst in © w Schmid & Partner Service suisse d‘étalonnage Engineering AG Servizio svizzero di taratura Zeughausstrasse 43, 8004 Zurich, Switzerland Swiss Calibration Service Accredited by the Swiss Accreditation Service (SAS) Accreditation No.: SCS 0108 The Swiss Accreditation Service is one of the signatories to the EA Multilateral Agreement for the recognition of calibration certificates Client BACLSTWI(Auden) Certificate No: EX3—7522_Nov18 CALIBRATION CERTIFICATE Object E.XSDV4 = SN:?522 Calibration procedure(s) QA CAL—01.v9, QA CAL—14.v4, OA CAL—23.v5, OA CAL—25‘v6 | Calibration procedure for dosimetric E—field probes Calibration date Novamber 2, 2018 This calibration certificate documents the traceability to national standards, which realize the physical units of measurements (S1) The measurements and the uncertainties with confidence probatbility are given on the following pages and are part of the certificate. All calibrations have been conducted in the closed taboratory facility; environment temperature (22 + 3)°C and humidity < 70% Calibration Equipment used (M&TE critical for calibration) Primary Standards ID Cal Date (Certificate No.) Scheduled Calibration _P(_}g\@r meter NRP SN: 104778 04—Apr—18 (No. 217—02672/02673) Apr—19 Power sensor NRP—Z291 SN: 103244 04—Apr—18 (No. 217—02672) Apr—19 Power sensor NRP—Z91 SN: 103245 04—Apr—18 (No. 217—02673) Apr—19 Reference 20 dB Attenuator SN: S5277 (20x) 04—Apr—18 (No. 217—02682) Apr—19 Reference Probe ES3DV2 SN: 3013 30—Dec—17 (No. ES3—3013_Dec17) Dec—18 maes_______ | sn:seo 21—Dec—17 (No. DAE4—660_Dec17) Dec—18 SecondaryStandards ____| 1D Check Date (in house) Scheduled Check Power meter E44198 SN: GB41293874 06—Apr—16 (inhouse check Jun—18) _ Inhouse check: Jun—20 Power sensor E4412A _ SN: MY41498087 _06—Apr—16 (in house check Jun—18) In house check; Jun—20 Power sensor E4412A ___ SN: 000110210 06—Apr—16 (in house check Jun—18) | In house check: Jun—20__ RF generator HP 8648C SN: US3642U01700 04—Aug—99 (in house check Jun—18) In house check: Jun—20 Nelwo-rk Analyzer E8358A SN: US41080477 31—Mar—14 (in house check Oct—18) In house check: Oct—19 Name Function Signature Calibrated by Glaudio Leubler Laboratory Technician ( J | Approved by: Kaltja Pokovic Technical Manager M Issued: November 6, 2018 This calibration certificate shall not be reproduced except in full without written approval of the laboratory. Certificate No: EX3—7522_Nov18 Page 1 of 11

cahbl_'atm“ Laboratory of g Schweizerischer Kalibrierdienst Schmid & Partner _ Service suisse d‘étalonnage Engineering AG Servizio svizzero di taratura Zeughausstrasse 43, 8004 Zurich, Switzerland S Swiss Calibration Service Accredited by the Swiss Accreditation Service (SAS) Accreditation No.: SCS 0108 The Swiss Accreditation Service is one of the signatories to the EA Multifateral Agreement for the recognition of calibration certificates Glossary: TSL tissue simulating liquid NORMx.y.z sensitivity in free space ConvF sensitivity in TSL / NORMx,y,z DCP diode compression point CF crest factor (1/duty_cycle) of the RF signal A, B, C, D modulation dependent linearization parameters Polarization 4 ip rotation around probe axis Polarization 8 8 rotation around an axis that is in the plane normal to probe axis (at measurement center), 1e., 8 = 0 is normal to probe axis Connector Angle information used in DASY system to align probe sensor X to the robot coordinate system Calibration is Performed According to the Following Standards: a) IEEE Std 1528—2013, "IEEE Recommended Practice for Determining the Peak Spatial—Averaged Specific Absorption Rate (SAR) in the Human Head from Wireless Communications Devices: Measurement Techniques", June 2013 b) IEC 62209—1, ", "Measurement procedure for the assessment of Specific Absorption Rate (SAR) from hand— held and body—mounted devices used next to the ear (frequency range of 300 MHz to 6 GHz)", July 2016 ©) IEC 62209—2, "Procedure to determine the Specific Absorption Rate (SAR) for wireless communication devices used in close proximity to the human body (frequency range of 30 MHz to 6 GHz)", March 2010 d) KDB 865664, "SAR Measurement Requirements for 100 MHz to 6 GHz" Methods Applied and Interpretation of Parameters: NORMx,y,z: Assessed for E—field polarization 8 = 0 (f < 900 MHz in TEM—cell: f > 1800 MHz: R22 waveguide). NORMx.y,z are only intermediate values, i.e., the uncertainties of NORMx,y,z does not affect the E*—field uncertainty inside TSL (see below ConvF). NORM(MAx,y,z = NORMx,y,z * frequency_response (see Frequency Response Chart). This linearization is implemented in DASY4 software versions later than 4.2. The uncertainty of the frequency response is included in the stated uncertainty of ConvF. DCPx,y,z: DCP are numerical linearization parameters assessed based on the data of power sweep with CW signal (no uncertainty required). DCP does not depend on frequency nor media. PAR: PAR is the Peak to Average Ratio that is not calibrated but determined based on the signal characteristics Ax,y.2; Bx,y,z; Cx,y.2; Dx.y,z; VRx,y,z: A, B, C, D are numerical linearization parameters assessed based on the data of power sweep for specific modulation signal. The parameters do not depend on frequency nor media. VR is the maximum calibration range expressed in RMS voltage across the diode. ConvrF and Boundary Effect Parameters: Assessed in flat phantomn using E—field (or Temperature Transfer Standard for f < 800 MHz) and inside wavequide using analytical field distributions based on power measurements for f > 800 MHz. The same setups are used for assessment of the parameters applied for boundary compensation (alpha, depth) of which typical uncertainty values are given. These parameters are used in DASY4 software to improve probe accuracy close to the boundary. The sensitivity in TSL corresponds to NORMx,y,z * ConvF whereby the uncertainty corresponds to that given for ConvF. A frequency dependent ConvF is used in DASY version 4.4 and higher which allows extending the validity from + 50 MHz to + 100 MHz. Spherical isotropy (3D deviation from isotropy): in a field of low gradients realized using a flat phantom exposed by a patch antenna. Sensor Offset: The sensor offset corresponds to the offset of virtual measurement center from the probe tip (on probe axis). No tolerance required. Connector Angle: The angle is assessed using the information gained by determining the NORMx (no uncertainty required). Certificate No: EX3—7522_Novi8 Page 2 of 11

EX3DV4 — SN:7522 November 2, 2018 Probe EX3DV4 SN:7522 Manufactured: February 26, 2018 Calibrated: November 2, 2018 Calibrated for DASY/EASY Systems (Note: non—compatible with DASY2 system!) Certificate No: EX3—7522_Nov18 Page 3 of 11

EX3DV4— SN:7522 November 2, 2018 DASY/EASY — Parameters of Probe: EX3DV4 — SN:7522 BasicCalibration Parameters f z> 31 591_15__1_:“{_ C | Sensgr Y¥ Sensor Z | Unc (k=2) ] |_Norm (uV/(V/im}")" 0.43 | 0.43 0.52 ‘ #10.1 % | | DCP (mV) ® 99.1 [ _ 100.0 | 97.2 | | Modulation Calibration Parameters |. UID | Communication Syfim Name | | A | B | C | b I~ VR Une |_ | __dB dBvuaVy ' ns ] dB | mV | (k=2) | ‘ _ 0 CW | x | 0n 0.0 10 | 0.00 1432 | 433% | | | | | n n | 0.0 t 10 1 i 1a8 1 | | [(z [ oo ~| oo | 15 ] | 140. mew C The reported uncertainty of measurement is stated as the standard uncertainty of measurement | | nultipled by the coverage factor k=2, which for a normal distribution corresponds to a coverage J |5 probability of approximately 95%. | l m s " The uncertainties of Norm X.Y,Z do not affect the E*—fleld uncertaintyinside TSL (see Pages 5 and 6) " Numerical linearization parameter uncertainty not required ~ Uncertainty is determined using the max. deviation from linear response applying rectangqular distribution and is expressed for the square of the field value. Certificate No: EX3—7522_Nov18 Page 4 of 11

EX3DV4— SN:7522 November 2, 2018 DASY/EASY — Parameters of Probe: EX3DV4 — SN:7522 Calibration Parameter Determined in Head Tissue Simulating Media | | Relative Conductivity | | ] | Depth® | Unce | ! f (MHz) " E Permit_tiwil;.nIF [S-‘m,’rr ’ ConvF X |ConuF Y¥ {ConvF Z2 | Aipha ha °1_{@)__“@_2_] EI |_ 750 41.9 | 0.89 | 9.78 9.78 | 9.78 _| 0.53 | 0.87 #12.0 % | [ 850 41.5 0.92 ‘ 9.46 | ‘ 0.44 ‘0.92 + 12.0 % ! |— #780—|——t0d——|—tar _,!_1&. | azo |— fi‘;‘_:_.‘b}i{_;_ifif‘_ |+120%| ? 1900 I 40.0 | 140 | 7.91 I 7.91 | 7.91 |_0.34 0.86 + 12.0 % | | 2000 40.0 _| 1.40 7.78 T78 |_ 778 ors ose £120% | 2300 39.5 1.67 7.35 7.35 '! 7.35 0.33 0.90 + 12.0 % _ 2450 39.2 1.80 6.97 6.97 _| _6.97 0.30 1.05 + 12.0 % 2600 39.0 1.96 6.79 _| 6.79 6.79 0.35 0.99 +12.0 % _ 5250 35.9 4.71 5.05 5.05 5.05 0.40 1.80 +13.1 % _ 5600 _| _ 35.5° L 5.07 | 448 _ | 4.48 4.48 0.40 1.80 %13.1% 5800 35.3 5.27 4.176 4.76 4.16 0.40 1.80 £+13.1 % © Frequency validity above 300 MHz of + 100 MHz only applies for DASY v4.4 and higher (see Page 2), else it is restricted to + 50 MHz. The uncertainty is the RSS of the ConvF uncertainty at calibration frequency and the uncertainty for the indicated frequency band. Frequency validity below 300 MHz is + 10, 25, 40, 50 and 70 MHz for ConvF assessments at 30, 64, 128, 150 and 220 MHz respectively. Above 5 GHz frequency validity can be extended to + 110 MHz. " At frequencies below 3 GHz, the validity of tissue parameters (e and a) can be relaxed to + 10% if liquid compensation formula is applied to measured SAR values. At frequencies above 3 GHz, the validity of tissue parameters (s and a) is restricted to + 5%. The uncertainty is the RSS of Iha ConvF uncertainty for indicated target tissue parameters. * Alpha/Depth are determined during calibration. SPEAG warrants that the remaining deviation due to the boundary effect after compensation is always less than + 1%for frequencies below 3 GHz and below + 2%for frequencies between 3—6 GHz at any distance larger than half the probe tip diameter fromthe boundary. Certificate No: EX3—7522_Nov18 Page 5 of 11

EX3DV4A— SN:7522 November 2, 2018 DASY/EASY — Parameters of Probe: EX3DV4 — SN:7522 Calibration Parameter Determined in Body Tissue Simulating Media — | Relative B | E.‘T:mductflvily | | | M [ Depth® | Unc | _f (MHz) " Permittivity (S/im)" ConvF X ConvF¥ | ConvFZ Aipha" ‘ _(mm) ‘ (k=2) ‘ |_fs0 _| _ 555 o.96 _| 9.80 9.80 a.so _| 044 | 090 +120% | |__s50 55.2 ose__| as4 _| 954 9.54 ‘ 0.A7 l _0.84 £120% ‘ | 1750 53.4 | 1.49 ! 7.88 I_?fi 1‘ 7.88 ]_g_.;d_} o.ss _| +£12:0% | |__1900__| 53.3 f' _182 [' 748 | 1ds —|_— TA# |_0.40 0.85 _| £+120% | |2000 | B23 |_ 1152 73e—‘{——"rs3e "|~*~7386 0.40 0.85 +120 % I 2300 52.9 im [ fa] im fa | oss ouso | s120% I| 2450 _ 52.7. 1.95 ___|__7.05 7.05 _| _ _7.05 630 | 1310— |—@420%—| 2600_| 52.5 216 _ _| _6.95 6.95 6.95 0.50 0.90 +120% 5250 48.9 5.36 4.77. 4.77__|__ sF7 0.50 1.90 #13.1%_ 5600 48.5 5.77 4.27 4.27 4.27 0.50 1.90 +131 % | _ssoo | _ 48.2 6.00 4.31 4.31 4.31 0.50 1.90 +131%|] © Frequency validity above 300 MHz of + 100 MHz only applies for DASY v4.4 and higher (see Page 2), else it is restricted to + 50 MHz. The uncertainty is the RSS of the ConvF uncertainty at calibration frequency and the uncertainty for the indicated frequency band. Frequency validity below 300 MHz is + 10, 25, 40, 50 and 70 MHz for ConvF assessments at 30, 64, 128, 150 and 220 MHz respectively. Above 5 GHz frequency validity can be extended to + 110 MHz. " At frequencies below 3 GHz, the validity of tissue parameters (s and a) can be relaxed to + 10% if liquid compensation formula is applied to measured SAR values. At frequencies above 3 GHz, the validity of tissue parameters (s and a) is restricted to + 5%. The uncertainty is the RSS of the ConvF uncertainty for indicated target tissue parameters 6 Alpha/Depth are determined during calibration, SPEAG warrants that the remaining deviation due to the boundary effect after compensation is always less than + 1% for frequencies below 3 GHz and below + 2% for frequencies between 3—6 GHz at any distance larger than half the probe tip diameter fromthe boundary Certificate No: EX3—7522_Nov18 Page 6 of 11

EX3DV4— SN:7522 November 2, 2018 Frequency Response of E—Field (TEM—Cell:ifi110 EXX, Waveguide: R22) 1.5— t 1.4— I L 1.3— o F O | N C e 1.1 hy 5 19 — 09 5 5 Qg.4..._.._. § —L| | u U./—] t 0.6— L [']rj.i L_t _ I_i'—l.. IL_iL_L_L_L | |__L_L .L_.i l._q_l_; N L |' |_‘ 0 & 1000 1500 2000 2500 3000 f [MHz] © + TEM R22 Uncertainty of Frequency Response of E—field: * 6.3% (k=2) Certificate No: EX3—7522_Nov18 Page 7 of 11

EX3DV4— SN:7522 November 2, 2018 Receiving Pattern (¢), 9 = 0° t=600 MHz, TEM f=1800 MHz,R22 ® e 0 e ® 6 e e T Y To z7 |C . : Z i $ f 7 T ; —‘ a | | § § j | } 'fo_" ||...?.,.h.;__:’_,._!...‘.. '_’.__': g—~s=g=# ’ 4 t«;&gt‘ 45 ‘_‘ s# —3—>*+* ’—.—'84-':'. #=3— §p**} wl —0.5—4 : : ? i ? K4| £ s : | | L_L_j____4__u__ £_3_1_ T 1__L _| _1 _FJ__ 1 —L_1_L_IL J _! 150 10( —50 0 50 100 150 (*#] [#) ~& & 100 MHz 600 MHz 1800 MHz 2500MH: Uncertainty of Axial Isotropy Assessment: £ 0.5% (k=2) Certificate No: EX3—7522_Nov18 Page 8 of 11

EX3DV4— SN:7522 November2, 2018 Dynamic Range f(SARneaq) (TEM cell , feys= 1900 MHz) in # i| C 1047 | I in2— 0+— i Pnd | L. I | j 103 0 10 SAR [mW/icm3] L# not compensated co 4 j L. ray J 4 C 0 Wt ioiPb i hn dn ue t 4 tPc iN 4i 004 i. oup n 6 : d $ M i. ® i j 103 102 10— 109 101 102 103 SAR {mW/cm3] ¢ — ot compensated compensated Uncertainty of Linearity Assessment: £ 0.6%(k=2) Certificate No: EX3—7522_Nov18 Page 9 of 11

EX3DV4— SN:7522 November 2, 2018 Conversion Factor Assessment f= 850 MHz,WGLS R9 (H_convF) f= 1900 MHz,.WGLS R22 (H_convF) frrim} S a & {min] #] a Deviation from Isotropy in Liquid Error (6, 9), f = 900 MHz Deviation s in —1.0 —0.8 —0.6 —0.4 —0.2 0.0 0.2 0.4 0.6 0.8 1.0 Uncertainty of Spherical Isotropy Assessment: * 2.6% (k=2) Certificate No: EX3—7522_Nov18 Page 10 of 11

EX3DV4— SN:7522 November 2, 2018 DASY/EASY — Parameters of Probe: EX3DV4 — SN:7522 Other Probe Parameters Sensor Arrangement | Iriangular | Connector Angle (°) | _ ~30.9| | Mechanical Surface Detection Mode enabled| Optical Surface Detection Mode | disabled | Probe Overall Lenath L 7 mm | C Diameter 10 mm | Tip Length mm Tip Diametey 2.5 mm | Drahs MTODé Tini~ o 7 Tip r ip to Sensor X Calibration Point r | 1 mm Probe Tip to Sensor Y Calibration Point ! mm Probe Tip to Sensor Z Calibration Point 1 mm | Recommended Measurement Distance from Surface | 1.4 mm Certificate No: EX3—7522_Nov18 Page 11 of 11

zmgziiime.® \n Collsboration with auyZ P BiAn t vEfT i + &77J, e SS P wnay *4 aaagmzmmgee CALIBRATION LABORATORY M CNAs B# Add: No.351 Xueyuan Road. Haidian District. Beijing. 100191, China %@ v CALIBRATION Tel: +86—10—62304633—2079 Fax: +86—10—62304633—2504 Arlultuk®® CNAS LO570 E—mail: ett@chinattl.com Hitp://www.chinatil.en Client BACL Certificate No: 216—97195 CALIBRATION CERTIFICATE Object D835V2 — SN: 445 Calibration Procedure(s) FD—211—003—04 Calibration Procedures for dipole validation kits Calibration date: October 26, 2016 | This calibration Certificate documents the traceability to national standards, which realize the physical units of measurements(Sl). The measurements and the uncertainties with confidence probability are given on the following ‘ pages and are part of the certificate. All calibrations have been conducted in the closed laboratory facility: environment temperature(22+3)‘C and humidity<70% . Calibration Equipment used (M&TE critical for calibration) Primary Standards ID # Cal Date(Calibrated by, Certificate No.) Scheduled Calibration Power Meter NRP2 101919 27—Jun—16 (CTTL, No.J16X04777) Jun—17 ] Power sensor NRP—Z91 101547 27—Jun—16 (CTTL, No.J16X04777) Jun—17 Reference Probe EX38DV4 SN 7433 26—Sep—16(SPEAG,No.EX3—7433_Sep16) Sep—17 DAE4 SN 777 22—Aug—16(CTTL—SPEAG,No.216—97138) Aug—17 Secondary Standards ID # Cal Date(Calibrated by, Certificate No.) Scheduled Calibration Signal Generator E4438C MY49071430 01—Feb—16 (CTTL, No.J16X00893) Jan—17 Network Analyzer E5071C MY46110673 26—Jan—16 (CTTL, No.J16X00894) Jan—17 Name Function Signature Calibrated by: Zhao Jing SAR Test Engineer 2 %é \ Reviewed by: Qi Dianyuan SAR Project Leader > % Approved by: Liu Weli Deputy Director of SEM Department /;@\] {% Issued: October 27, 2016 l This calibration certificate shall not be reproduced except in full without written approval of the laboratory. Certificate No: Z16—97195 Page 1 of 8

_’.\.@ I;Coiiaborancnewith 5 S /"/ a °/ CALIBRATION LABORATORY ( Add; No,51 Xueyuan Road, Haidian District, Beijing, 100191, China Tel: +86—10—62304633—2079 Fax: +86—10—62304633—2504 E—mail: cttl@chinattl.com Hup://www.chinattl,on Glossary: TSL tissue simulating liquid ConvF sensitivity in TSL / NORMx,y.z N/A not applicable or not measured Calibration is Performed According to the Following Standards: a) IEEE Std 1528—2013, "IEEE Recommended Practice for Determining the Peak Spatial—Averaged Specific Absorption Rate (SAR) in the Human Head from Wireless Communications Devices: Measurement Techniques", June 2013 b) IEC 62209—1, "Procedure to measure the Specific Absorption Rate (SAR) For hand—held devices used in close proximity to the ear (frequency range of 300MHz to 3GHz)", February 2005 c) IEC 62209—2, "Procedure to measure the Specific Absorption Rate (SAR) For wireless communication devices used in close proximity to the human body (frequency range of 30MHz to 6GHz)", March 2010 d) KDB865664, SAR Measurement Requirements for 100 MHz to 6 GHz Additional Documentation: e) DASY4/5 System Handbook Methods Applied and Interpretation of Parameters: e Measurement Conditions: Further details are available from the Validation Report at the end of the certificate. All figures stated in the certificate are valid at the frequency indicated. e Antenna Parameters with TSL: The dipole is mounted with the spacer to position its feed point exactly below the center marking of the flat phantom section, with the arms oriented parallel to the body axis. a Feed Point Impedance and Return Loss: These parameters are measured with the dipole positioned under the liquid filled phantom. The impedance stated is transformed from the measurement at the SMA connector to the feed point. The Return Loss ensures low reflected power. No uncertainty required. e Electrical Delay: One—way delay between the SMA connector and the antenna feed point. No uncertainty required. e SAR measured: SAR measured at the stated antenna input power. SAR normalized: SAR as measured, normalized to an input power of 1 W at the antenna connector. » SAR for nominal TSL parameters: The measured TSL parameters are used to calculate the nominal SAR result. The reported uncertainty of measurement is stated as the standard uncertainty of Measurement multiplied by the coverage factor k=2, which for a normal distribution Corresponds to a coverage probability of approximately 95%. Certificate No: Z16—97195 Page 2 of 8

!.\r@ In Collaboration with a (:S CALIBRATION LABORATORY Add: No.51 Xueyuan Road, Haidian District, Beijing. 100191, China Tel: +86—10—62304633—2079 Fax: +86—10—62304633—2504 E—mail: ctt@chinattl.com Htp://www.chinattl.en Measurement Conditions DASY system configuration, as far as not given on page 1. DASY Version DASY52 52.8.8.1258 Extrapolation Advanced Extrapolation Phantom Triple Flat Phantom 5.1C Distance Dipole Center — TSL 15 mm with Spacer Zoom Scan Resolution dx, dy, dz = 5 mm Frequency 835 MHz +1 MHz Head TSL parameters The following parameters and calculations were applied. Temperature Permittivity Conductivity Nominal Head TSL parameters 22.0 °C 41.5 0.90 mho/m Measured Head TSL parameters (22.0 £0.2) °C 41.4 +6 % 0.92 mho/im +6 % Head TSL temperature change during test <1.0 °C =——— ———— SAR result with Head TSL SAR averaged over 1 _cm"‘ _(1 g) of Head TSL Condition SAR measured 250 mW input power 2.41 mW /g SAR for nominal Head TSL parameters normalized to 1W 9.46 mW ig * 20.8 % (k=2) SAR averaged over 10 cnm" (10 g) of Head TSL Condition SAR measured 250 mW input power 1.58 mWw /g SAR for nominal Head TSL parameters normalized to 1W 6.23 mW /g * 20.4 % (k=2) Body TSL parameters The following parameters and calculations were applied. Temperature Permittivity Conductivity Nominal Body TSL parameters 22.0 °C 55.2 0.97 mho/m Measured Body TSL parameters (22.0 £0.2) °C 55.8 £6 % 0.95 mho/m + 6 % Body TSL temperature change during test <1.0 °C ———— ——— SAR result with Body TSL SAR averaged over 1 C¢m:" (1 g) of Body TSL Condition SAR measured 250 mW input power 2.36 mW / g SAR for nominal Body TSL parameters normalized to 1W 9.60 mW /g + 20.8 % (k=2) SAR averaged over 10 cm" (10 g) of Body TSL Condition SAR measured 250 mW input power 1.59 mW / g SAR for nominal Body TSL parameters normalized to 1W 6.44 mW /g £ 20.4 % (k=2) Certificate No: Z16—97195 Page 3 of 8

r a in Collaboration with § p _e _a@ 04 ( N CALIBRATION LABORATORY Add: No.51 Xueyuan Road, Haidian District, Beijing, 100191, China Tel: +86—10—62304633—2079 Fax: +86—10—62304633—2504 E—mail: cttl@chinattl.com Hittp:/‘www.chinattl.en Appendix Antenna Parameters with Head TSL Impedance, transformed to feed point 45.50— 3.43j0 Return Loss — 24.6dB Antenna Parameters with Body TSL Impedance, transformed to feed point 47.50— 7.29j0 Return Loss —22.10B General Antenna Parameters and Design Electrical Delay (one direction) 1.497 ns After long term use with 100W radiated power, only a slight warming of the dipole near the feedpoint can be measured. The dipole is made of standard semirigid coaxial cable. The center conductor of the feeding line is directly connected to the second arm of the dipole. The antenna is therefore short—circuited for DC—signals. On some of the dipoles, small end caps are added to the dipole arms in order to improve matching when loaded according to the position as explained in the "Measurement Conditions" paragraph. The SAR data are not affected by this change. The overall dipole length is still according to the Standard. No excessive force must be applied to the dipole arms, because they might bend or the soldered connections near the feedpoint may be damaged. Additional EUT Data Manufactured by SPEAG Certificate No: Z16—97195 Page 4 of8

‘!\w in Callaboration with t s e a g ! TTL CAUBRPNHON LABORATORY Add: No.51 Xueyuan Road, Haidian District. Beijing, 100191, China Tel: +86—10—62304633—2079 Fax: +86—10—62304633—2504 E—mail: cttl@chinattl.com Hittp://www.chinattl.cn DASY5S Validation Report for Head TSL Date: 10.26.2016 Test Laboratory: CTTL, Beijing, China DUT: Dipole 835 MHz; Type: D835V2; Serial: D835V2 — SN: 445 Communication System: UID 0, CW; Frequency: 835 MHz; Duty Cycle: 1:1 Medium parameters used: £ = 835 MHz; 0 = 0.922 S/m: s =41.42; p = 1000 kge’m3 Phantom section: Right Section Measurement Standard: DASYS5 (IEEE/IEC/ANSI C63.19—2007) DASYS5 Configuration: & Probe: EX3DV4 — SN7433; ConvF(9.82, 9.82, 9.82); Calibrated: 9/26/2016; * Sensor—Surface: 2mm (Mechanical Surface Detection) e Electronics: DAE4 Sn777; Calibrated: 2016—08—22 & Phantom: Triple Flat Phantom 5.1C; Type: QD 000 P51 CA; Serial: 1161/1 * Measurement SW: DASY52, Version 52.8 (8); SEMCAD X Version 14.6.10 (7372) Dipole Calibration/Zoom Scan (7x7x7) (7x7x7)/Cube 0: Measurement grid: dx=5mm, dy=5mm, dz=5mm Reference Value = 58.51V/m; Power Drift =—0.02 dB Peak SAR (extrapolated) =3.63 W/kg SAR(I g) =2.41 Wi/ikg; SAR(10 g) =1.58 W/kg Maximum value of SAR (measured) =3.07 W/kg aB 0| o —2.09 —~4.18 —6.27 —8.36 —10.45 0 dB =3.07 W/kg = 4.87 dBW/kg Certificate No: Z16—97195 Page 5 of 8

e In Collaboration with ) _7"7%, s_B _2 _0 _3 _ CALIBRATION LABORATORY \igs»"" Add: No.51 Xueyuan Road, Haidian District, Beijing, 100191, China Tel: +86—10—62304633—2079 Fax: +86—10—62304633—2504 E—mail: cttl@chinattl.com Http://www.chinattl.on Impedance Measurement Plot for Head TSL »1 835,00000 MHz —24.574 d6 30. 00 20. 00 ~40. 0C —s0.00 ! — 3 PD@A sii smith (@+]x) scale 1.000U0 [ri bel] >1 $35.00000 mHz 45.517 n —3.4308 o 5§5.5§Z—pF _ _-"’I ‘."\\ % 4 x £ Ilf r’/—\ I $ l \\ "\._ \\ C $ e * > ks _A_ 1 Start 635 MHz IFBW 100 Hz Stop .085 ce tm Certificate No: Z16—97195 Page 6 of 8

3 In Collaboration with CALIBRATION LABORATORY Add: No.51 Xueyuan Road, Haidian District, Beijing, 100191, China Tel: +86—10—62304633—2079 Fax: +86—10—62304633—2504 E—mail: cttl@chinattl.com Hitp://www.chinattl.en DASYS5 Validation Report for Body TSL Date: 10.26.2016 Test Laboratory: CTTL, Beijing, China DUT: Dipole 835 MHz; Type: D835V2; Serial: D835V2 — SN: 445 Communication System: UID 0, CW; Frequency: §35 MHz; Duty Cycle: 1:1 Medium parameters used: £= 835 MHz; 0 = 0.952 S/m; &, = 55.79; p = 1000 kg/m* Phantom section: Center Section Measurement Standard: DASYS (IEEE/IEC/ANSI C€63.19—2007) DASY5 Configuration: e Probe: EX3DV4 — SN7433; ConvF(9.5,9.5, 9.5); Calibrated: 9/26/2016; « Sensor—Surface: 2mm (Mechanical Surface Detection) s Electronics: DAFE4 Sn777; Calibrated: 2016—08—22 a Phantom: Triple Flat Phantom 5.1C; Type: QD 000 P51 CA; Serial: 1161/1 * Measurement SW: DASY52, Version 52.8 (8); SEMCAD X Version 14.6.10 (7372) Dipole Calibration/Zoom Scan (7x7x7) (7x7x7)/Cube 0: Measurement grid: dx=5mm, dy=5mm, dz=5mm Reference Value= 56.01 V/m; Power Drift =0.01 dB Peak SAR (extrapolated) = 3.44 W/kg SAR(I g)=2.36 W/kg; SAR(10 g) = 1.59 W/ikg Maximum value of SAR (measured) =2.95 W/kg ~1.93 —3.86 ~5.78 —£.21 —9.64 0 dB =2.95 W/kg = 4.70 dBW/kg Certificate No: Z16—97195 Page 7 of 8

& In Collaboration with 7‘7‘jJ, a CALIBRATION LABORATORY T‘/ Add: No.51 Xueyuan Road, Haidian District, Beijing, 100191, China Tel: +86—10—62304633—2079 Fax: +86—10—62304633—2504 E—mail: ettl@chinattl.com Http://www.chinattl.on Impedance Measurement Plot for Body TSL Tri S11 Log Mag 10.00da/ ref 0.000de [F1] 50. 00 >1 835.00000 MHz —22.066do 40. 00 30. 00 20. 60 10. 00 0. 000 pl 10. 00 —20. 00 —30. 00 —40, 00 —50. 00 a. PB si1 smith (R+]jx) scale 1.000Uu [fi del] »1 §35.00000 mHz 47.495 n —7.2889 o 26.1530—pF | (1 Btat 635 Mz trew 100 e Stop 1.095 ocz lR Certificate No: Z16—97195 Page 8 of 8

NCL CALIBRATION LABORATORIES Calibration File No: DC—1748 Project Number: 5822 Client.: BACL Corp. Address: 6/F, the 3rd Phase of Wan Li Industrial Bldg., Shihua Rd., FuTian Free Trade Zone, Shenzhen, China C ERTIFICATE OF CALIBRATIO N It is certified that the equipment identified below has been calibrated in the NCL CALIBRATION LABORATORIES by qualified personnel following recognized procedures and using transfer standards traceable to NRC/NIST. Validation Dipole (Head & Body) Manufacturer: APREL Laboratories Part number: ALS—D—1900—S—2 Frequency: 1900 MHz Serial No: 210—00710 Calibrated: 20 September 2017 Released on: 27"" September 2017 This Calibration Certificate is Incomplete Unless Accompanied with the Calibration Results Summary [< Released By: Art Brennan, Quality Manager NQL CALIBRATION LABORATORIES Suite 102, 303 Teny Fox Dr. Division of APREL Lab. Kanata, ONTARIO TEL (818) 435—8300 CANADA K2K 3.11 FAX (613)435—8306

NCL Calibration Laboratories Division of APREL Laboratories DC—1748 Conditions Dipole 210—00710 was a re—calibration. Ambient Temperature of the Laboratory: 21 °C +/— 0.5°C Temperature of the Tissue: 21 °C +/—0.5°C Attestation The below named signatories have conducted the calibration and review of the data which is presented in this calibration report. We the undersigned attest that to the best of our knowledge the calibration of this system has been accurately conducted and that all information contained within this report has been reviewed for accura Art Brennan QM Primary Measurement Standards Instrument Serial Number Cal due date Tektronix USB Power Meter 11C940 April 13, 2019 Network Analyzer Anritsu 37347C 002106 Jan. 26, 2019 Agilent Signal Generator MY45094463 Dec. 11, 2017 Dipele 5N 210. 00710 Page 2 of 7 This page has been reviewed for content and attested to on Page 2 of this document.

NCL Calibration Laboratories Division of APREL Laboratories DC—1748 Calibration Results Summary The following results relate the Calibrated Dipole and should be used as a quick reference for the user. Mechanical Dimensions Length Height Diameter 67.5 mm 39.5 mm 3.6 mm Tissue Validation 4 Dielectric Conductivity, Tissue Frequency constant, ar o [S/m] Head 1900 MHz 39. 44 1.41 Body 1900 MHz 52.70 1.57 Electrical Specification Tissue Frequency Return Loss SWR Impedance Head 1900 MHz —28.662 dB 1.077 U 52.368 Q Body 1900 MHz —22,498 dB 1162 U 55.211 Q System Validation Results Tissue Frequency 1 Gram, Wikg 10 Gram, W/kg Head 1900 MHz 42.14 21.89 Body 1900 MHz 42.11 2212 Head Body Ares Scan B Sif fiammalrtissn3¢ & X Axis (mm) X Aws om) 8 Y Axis (mm) Dipele 21000740 Page 3 of 7 This page has been reviewed for content and attested to on Page 2 of this document.

NCTL Calibration Laboratories Division of APREL Laboratories pe—itss Introduction This Calibration Report has been produced in line with the SSI Dipole Calibration Procedure SSI—TP—018—ALSAS. The results contained within this report are for Validation Dipole 210—00710. The calibration routine consisted of a three—step process. Step 1 was a mechanical verification of the dipole to ensure that it meets the mechanical specifications. Step 2 was an Electrical Calibration for the Validation Dipole, where the SWR, Impedance, and the Return loss were assessed. Step 3 involved a System Validation using the ALSAS— 10U, along with APREL E—020 30 MHz to 6 GHz E—Field Probe Serial Number 225. References o IEEE Standard 1528:2013 I|EEE Recommended Practice for Determining the Peak Spatial—Average Specific Absorption Rate (SAR) in the Human Head from Wireless Communications Devices: Measurement Techniques EN 62209—1:2006 Human Exposure to RF Fields from hand—held and body—mounted wireless communication devices — Human models. instrumentation, and procedures — Part 1: Procedure to measure the Specific Absorption Rate (SAR) for hand—held mobile wireless devices o 1EC 62209—2:2010 Human exposure to RF fields from hand—held and body—mounted wireless devices — Human models, instrumentation, and procedures — Part 2: specific absorption rate (SAR) for wireless communication devices (30 MHz — 6 GHz) o D22—012—Tissue dielectric tissue calibration procedure o. D28—002—Dipole procedure for validation of SAR system using a dipole o IEEE 1309 Standard for Calibration of Electromagnetic Field Sensors and Probes, Excluding Antennas, from 9 kHz to 40 GHz Conditions Ambient Temperature of the Laboratory: 21 °C +/— 0.5°C Temperature of the Tissue: 21 °C +/—0.5°C Dipole Calibration uncertainty The calibration uncertainty for the dipole is made up of various parameters presented below. Mechanical 1% Positioning Error 1.22% Electrical 1.1% Tissue 2.2% Dipole Validation 2.2% Combined Standard Uncertainty 3.88% (7.76% K=2) The Following Graphs are the results as displayed on the Vector Network Analyzer. Gipule 210.007 10 Page 4 of 7 This page has been reviewed for content and attested to on Page 2 of this document.

NCL Calibration Laboratories Division of APREL Laboratories pc—tma $11 Parameter Return Loss Head Frequency Range 1868.68 MHz to 1934.44 MHz S11 FORMARD REFLECTION L4 5.8584 1 + $on REF B.000 d8 CFFSET LOB MAGNTTUDE »REF=—26.234 8 4.800 d8/DIV 8.30° OFFSET rHARKER 2 1.900000 OHz ~280.602 dB aRKER TO MAX MaRKER TO MIN 1.958680 6Hz —20.022 «B to 934437 bHz —20.012 48 4 : — — : — MARKER READOUT 1.700560 GHz 2.099900 FUNC T 1ONS Body Frequency Range 1882.37 MHz to 1928.52 MHz S11 FORHARD REFLECTION CH 528584 t — #1 nm REF B.A00 dB DFFSET LUG MAGNITUDE »REF=—20.004 8 3.800 d8/DIV 8.00° OFFRET PHARKER 2 1.900080 OHz ~22.498 dB MaRKER TO MAX MaRKER TO MIN 1.882373 6He , —20.012 dB 928524 6Hz to ~20.005 «B & : — — — — MaRKER READOUT 1.700560 GHez 2.099900 FUNC T 1ONS Dipcle 21000710 Page 5 of 7 This page has been reviewed for content and attested to on Page 2 of this document.

NCL Calibration Laboratories Division of APREL Laboratories DC—1748 SWR Head 311 FORHARD REFLECTION O# 1 — §°1 5.0584 mm REF ©.800 48 DFFSET SHR »REF=854.955 nU 300.000 mUZD1Y 0 .00° OFFSET »NARKER 2 1.900000 6Hz 1.077 U MARKER TO MAX MaRKER T0 MIN 1 1.868680 CHz 1.223 1 3 1.934937 bHe 1433 H MaRKER READOUT 1.700560 GHz 2.899980 FUNCT 10M3 Body 811 FORARD REFLECTION C# 1~— $11 5§.0584 mm REF 0.800 48 UFFSET SHR »REF=854.955 nU 300.000 mU/D1Y 8. 00° OFFSET PHARKER 2 1.900000 6Hz 1.162 1 MARKER TO MAX MaRKER TO MIN bob. Hz m w =o a ol io c 6Hz © 1,.224 I MARKER READOUT 1.700560 GHz 2,099980 FUNCT 108 Dipcle 21000710 Page 6 of 7 This page has been reviewed for content and attested to on Page 2 of this document.

NCL Calibration Laboratories Division of APREL Laboratories DC—1748 Smith Chart Dipole Impedance Head S11 FORMARD REFLECTION 1 0# 1 + .811 5.0584 nm REF INPEDANCE .000 48 OFFSET 0.00° OFFSET RNARKER 2 1.900000 GHz 52.a60 1 —2.738 j0 MARKER TD MAX HaRKER TO WILN .B6B68N CHz §7.927 1 7.378 j8 234437 UHz 41.020 7 —4.263 j9 MARKER READOUT FUNCTIONS 1.700560 — 2.099980 6Hz Body S11 FORMARD REFLECTION 1 tX 1 ~ gff IHPEDANCE 5.0584 im REF .000 48 UFFSET 0.00° OFFSET »NARKER 2 1.900000 GHz S1.211 —5.845 )9 MARKER TO MAX MARkER TO MIN 1.882373 BHa 61.085 9 137.319 jmf 3 1.928524 bHz 14.594 1 7.006 j9 MARKER BEADOUT FUNCTIONS 1.700560 — 2.099980 6Hz Dipcle 21000710 Page 7 of 7 This page has been reviewed for content and attested to on Page 2 of this document.


Document Created: 2019-05-15 03:12:19
Document Modified: 2019-05-15 03:12:19
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