SAR test Report Part2

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RF Exposure Info

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onetecH Calibration f Laboratory of g. Schvelsarcher Kalbrtanst Schmid & Partner g Serviee sase @hstomage Engingering AG 5. Senideninne dit Bovgnaonsransd.0%eRurchSuttarand Srine Catoraton Serice Accsto by n Ssn Acrusiaton Srvcn(AS) Accredtatono: SCS 0108 The iss Accredtaton sevise is onoi sigatones t the EA ultiert mgreamentthe recognton ofcatbaton cotentes cien ‘Ontech(Dymsiee) Geritems No: EX3—3832_Fob19 [CALIBRATION CERTIFICATE ] otea Ex3pV4 — SNiansp Casratonsacesreto OA CALO118, OA CAL—1210, OX CAL—1445, CA CAL—23v5, OA CAL—25u7. Galloration procedure fordosimelric E—feld probes Cattatoncae Febmary27, 2010 This caivnionce comnrih rncennty tnatoalsansrts.anch reiee t oysea int t masimonts (5) The measromens an h uncennnie ut cotderce rotabiy are ave on ha ooseand e par o h contcate Adcasnalorshav boeeondete in i esn abwnar aci ensromen tenpestue (25.3an uty «ToK Calbaten EavsmentssedETE ertellercaltmtn) Prroy Sundacs o CalDise CenicreNs) Ermpren romimearne sn moure vemses e r1rcarman__| se rorerseuocimnen on rosow otisets me 2rrorera) heess Poversemor hi20 su mas othertt te zrrcxr weew Ratueres 20 99 Atorater_| S Ssrtt @00 otieris te ziroaen xo ores sw oo 1obecho prtseoDera beeso Relweria PoveEssove sn sois »rprete e Eseonbecth Brefe Seantiy Suniecs 6 Chex ue Intome Sveaie tres rover new cssizn su conmmore 61018 inhoos ctex Jnte) Inrowe ateck Jin2o Frove semerExtion sn ivanomer ot:ocin home crea Jnt8)_| intowe ces Jundo Pove semsorseeizn s scomomo 0tA1 n roumces Jant?)_ ntowsechec Jin@ f greornseerc sn vesermerrce otu9torowse teck auei nrowme enc hna NeveAeoarEsosen o uoeovoirr 3hate—tt(nrovtecrec Oxt1@) Inrowmectece Occto Te Tore Fiea Cattaietty Ghiseon GicayTesvicin Aooomity: kampdoie ies nigee % inons Fatrany 2 200 Thecalbaioncuifcnssha o e eorsicnd messin it wihotwten asoorofteivontoy Centeate No E9.032.rento Page totz0

oneTecH Calibration Laboratory of & ScoizenscherKalbnertorat Schmid & Partner q Sirdersuiie otiomnage Engineering AG . sinmemizem a ts Zovghnusstrasse @800 utch, Sutzorans Smss Catbraon Servce Accmote byh SunsAecstaion Sevce(SA8) Aesestaion io: 5CS 0108 ‘he Sviss Resrodtation Sericn s oneofthe signitros o e EA Mubtistrl Agrromonfor in recopntn f calbrton coitnten Glossary: TSt ssue simulatng iquld NORMuyaz sensitity in ree space Comt senitviy in TSL / NORMcyz uce diade compression point or erest factor(Tiduty_cycle)ofthe RF signal AB.0.D modulstion dependant Insanzation parameters Pobization o (a rotation around probe s Polariaton 9 8 retaton around an axis tat is in the plane normal io probe uis (at measurement center). te., 4 = is normal t probe mds Comector Angle information used in DASY system to algn probe sensor X t therobot coordinate system Calibration is Performed According to the Following Standards: a). IEEE Sid 1826—2013,(ERERecommended Practi for Determining Ihe Roak Spatla—Averaged Speciic Absoriton Rate (GAR) in the Human Head from Wreloss Gommunicatons Dovices: Measuremnent Techniques, June 2013 b). I2G 62200—1,""Measurement procedurefor the assessment ofSpacife Absorption Rate (SAR) Tom hand: held and bod—mounted devices used nextto the ear (requency range of 300 Niz to 6 GHz‘, July 2016 ): 120 822002 "Provedure ta determine the Specife AbsoritonRate (GAR) for wreless comninicatidevices. used in clase provimiy to the human body (Reauency range of 30 itz to 6 GHz]®, March 2010 4). KoB 869504‘SAR Measurement Requrementsfor100 Niz to 6 Gitz Methods Applied and Interpretation of Parameters: * NORMcy.z Assessed for Eied polaizaton =0 (1= 900 Mz in TEcalt (> 1800 MHtz: R22 wavequide) « are onlynfermediate values, .. the uncertaintes of NORNx yc does not affecthe E—hld uncerainlnside TSL (see below ConF) * NORM(ay 2= NORMxy:a" requancyresponso (see Frequeney Ressonse Char), This ineanization is imlemented in DASY4 software versions latethan 42. The uncertainy ofthe feauency response is included in the stated uncertainy of Conv: * DGPxgia: DCP are numerisal Incarization paramelers assessed based on tdata of power sweep with CW signal o uncerainty requted}. DCP does not depend on frequency nor media. + PAR: PA s he Peak to Average Rato thatis not calbrated but determined based on the signal characterstcs * Auyias Brosa: Cayze: Oxy,a: VRkyi: A,B, G, are numencalineanaton parameters assessed based on the dala of power sween for specife modulao signal The parameters do not dapend an Requency nor madia. VR s the maximum callation range expressed in RNMS vollage across e dode * Convand Boundany EifectPerameters: Assesaed in Rat phantom using Efeld (or Temperature Transter Standartfor 1 : 00 MHz) and nside waveguide using analyicalfeld dtibtons based on power maasurements for1> 800 NHe. The same setups are usefor assessment fthe parameters agpled for bovndary compensaton (alpha, dapih) of which tysical uncertinty values are gven, Thece parametersare used in DASY4 software to improve probe accuracy close t the boundary, The senstlvly in TS corrsponds to NORMsyyz * GorvE wheraby the uncertainy earespondts to hat gven for ConvF. A requency dependent Gonveis used in DASY version44 and igher which ow extending the valdity fom x 50 Mz to 2 100 Mz * Spheralisotropy (3D deviatlrom isotropy)—in a fald of ow gradient realized using a fat phantem exposed by a paich antemna + Sensor Offse: The senso offet correspand to the ffset o viual measurement centerfrom the probe to (on probe is No tolerance required * Connector Angle: Thangle is assessed using the nformaion gained by determining the NORM (no wncedtaintyrequired) Conteate No: Ex0—4082.rani® Prge 20120

onetTecH exsovs — sass? February 27, 2010 DASY/EASY — Parameters of Probe: EX3DV4 — SN:3832 Basic Calibration Parameters SensorX Sensory SensorZ Une (e2) Nom (uVi(Vim) o4a o4a o7 £10.1% DcP (my)" 102.1 100.2 103.5 Calibration Results for Modulation Response ty Communication System Name c o ve Max Max an my dov. Une! the?) 0 ow x 100| o0 Tes1 £30% 247 % Y 100 tss z 100 tos 10552— Puise Wavelom (2oone, 10%) x 2i3 1000 |_soo_| £31% 266% aaa Y 2050 soo z 2120 soo 10353 Pulce Wavefom (200ne, 20%) x zose s30 |_sao_| 212% 235% AMA [¥ 1936| |_200 . > — _ 2 sor| _____| 800 10354: Pulse Wavefom (200riz, 40%) x 2151 596 |_soo £12% 296% AMA Y irs: 950 ommowennke 2 2083_ Ecom 10355— Pulse Waverom (200riz. 60%) x zear 222 1200 +12% 296% Ana Y 1516 1200 2 Pior 1200 10s67— GPSK Wavelom, 1 NRe x 1205 o00 |iso0—| s25% 225 % an y 7er 1500 2 02e 1500 10388—— GFSR Waverom; 10 Mz x 117| ons |is00 213% 50% Ann y Tss 1500 2 Tore 1500 To5ds— 6d—OAifWavefom, oo kiz x zes sor |iso0_| 207% 296% AMA y 1620 100 2 198 100 10305— 64—GRMWavelom; 40 Ne x 1ea1_| ono 1500 £23% 90% AMA y 1546 1500 z 1569 1800 Tord—~| wian copr, sA advie x 1588 on0 |iso0—| 214% 235 % AMA Y 1543 1500 2 1536 1500 Note: For detalls on UID parametors see Appendix The reported uncertainty of measurementis stated as the standard uncertainty of measurement multiplied by the coverage factor k=2, which for a normaldistribution corresponds to a coverage probability of approximately 95%. " The uncetinias of Nom XY2 do notatfectthe Eld uncertainy nside TSL (see Pages 5 and 6) " Numeral incarzaton parameter uncertanty not requres * Uncarint is detemined using the mas,deviaton rom {nest ressorse applying ectongular itfouton and is exsressed for thesqsare ofhe oidvatie Certficate No: EX3—3832_Feb1d Page 3 of 20

oneETECH W Page 34 of 78 Report No. OT—190—RW/D—036 exsove—sNsss February 27, 2010 DASY/EASY — Parameters of Probe: EX3DV4 — SN:3832 Sensor Model Parameters C2 a T1 T2 T3 T4 TS T6 l lia vi msV* |_ms.V7! ms y is x 492 36541 35.01 18.01 0.76 5.08 115 0.40 1.01 Y 444 340.08 37.15 13.78 0.85 5.08 0.00 061 1.01 2 ars sa600 sizs 2004 036 s.10 143 o31 101 Other Probe Parameters Sensor Arangement Trangular CGonnector Angle () se8 Mechanical Surface Detecton Mode enabled Oplical Surface Detecton Mode disabled Probe Overall Length 397 mm Probe Body Diameter 10 mm Tis Lengh 9mm Tip Diamoter 25 mm Probe Tip to Sensor X Galtoraion Point 1 mm Probe Tip to Sensor Y Galtoration Point 7 mm Probe Tip to Sensor Z Calibration Point 1 mm Recommended Measurement Distancefrom Surtace 14 mm Gertficate No: EX3—3832_Feb19 Page 4 of 20 EMC—008 (Rev2) ONETECH Corp.: 43—14, Jnsaegol—gl, Chowol—eup, Gwanglu—s, Gyeangg—do, 12738, Korea (TEL: 82—31—700—0500, FAX: 82—31—790—0500)

oneETEecCcH exsovs— sNgose February 27,2019 DASY/EASY — Parameters of Probe: EX3DV4 — SN:3832 Calibration Parameter Determined in Head Tissue Simulating Media Relative Conductivity Depth® Une 1(z pormittivity" (Sm)" ConyEX ConvEY ConvEZ Aipha® |__(mm) (ke2) 150 523 076 11.50 11.50 1150 0.00 1.00 +133 % 300 453 087 10.87 10.87 10.87 o7 1.30 +193 % aso 435 osr 1021 1021 1021 ois 180 +133% 750 419 o9 aor aor o7 ose oso £120% 835 415 0.90 9.19 9.19 9.19 0.54 o.85 £12.0 % 200 a1s oor aos o5 o5 o4 oss +120% 1750 40.1 137 8.10 8.10 8.10 0.36 0.85 £12.0 % 1950 400 140 T78 778 7.78 0.30 0.85 +120 % 2300 sos 167 237 137 zar osr oss £120% 2450 so2 180 zi Ti Tn om oss +120% 2600 so0 198 7.00 7.00 7.00 oa1 o8s £120% 3500 are 291 se0 s.0 s.eo ors 120 a1e1% 3700 377 312 a.60 5.60 5.60 023 1.20 £19.1% 5200 36.0 456 5.18 5.18 5.18 0.40 1.80 £18.1% 5300 369 4176 505 5.05 5.05 0.40 1.80 £19.1 % 5500 356 496 an 4n 4 o40 180 a121% se00 355 so7 45e a.so ase o40 180 a191% seoo ss3 sar 467 467 «67 o«0 iso +1s1% ©Frequency vaidy above 300 NKz t x 100 MHz only aplesfor DASY w#.4 and higher(see Page 2. olsn s restrcted to x 50 MYz. The uncerainy s the RSS ofhe Gonv® unceriaity atcaltvatlon reuensy and the unceraint fortinlcated reauency band. Frecuency valdty below 300 ite i 2 10 25,40,50and 70 Mz for GonvE assossments at 30, 68, 128, 190 and 220 Niz resnectvaly Valty of Conve assossedat 8 Nt is 4.: and GonEassesned at 13 Mz is 9—10 ME: Above 5 GHz ecuency valdy can be eatendec to 110 Mitz * Attrequencies below 3 GHtthe valety o asue patametes(x anda) can e relced to : 10%uid compensaton fomut is aped o «peasured SA values Atfecuenciesabove 3 Gtethavaldty o Wparamalers(sand ) is resioced o £ 5. The uncerainty is the RSS ot tne ComP: uncertaintyfor indicated trgettssue paramoters " Aohalbesth are deternined duing caltraton. SPEAG varant thatve remning deviatondueto the bounday ffctalter compensaton is always lass than= 19 frreauencinsolow 3 Gtz and below + 2% for roquencies betwwan 24 GHtz atary itance arger than halthe mrobe damaterrom the boundary Cerlficate No: EX3—3832_Febt Page 5 of 20

oneETEecCcH exsovs— sNsase February 27,2019 DASY/EASY — Parameters of Probe: EX3DV4 — SN:3832 Calibration Parameter Determined in Body Tissue Simulating Media Relative Conductiity Dept® Une 1(042)°_|_ Permitivity" (8im)" ConvEX ConvEY ConvEZ_| Aipha® |__(mm) (ke) 150 619 o0 m0s mos 1105 om i0 +13% 300 seo os2 is1 1osi fost om 130 183% aso ser css 1o4s io4s 1o4s on 180 +tas% 750 ss5 086 936 930 930 ost 080 £+120% s3s s52 oor o13 a13 o13 o«s os1 +120% 200 sso 105 803 a03 ass oss oss +120% 1750 se« 149 zee 1ee 1ee o42 oss £120% 1950 se3 182 zs7 zer Leu ose ose £120% 2300 sa9 181 123 123 123 o«s oss £120% 2450 sar 195 zi9 z19 719 o42 ose +120% 2600 sas 215 zi4 nia Te os1 080 £120% 3500 s13 sa1 sse sse sse ors 12 a131% 3700 s1.0 as5 629 629 629 o2s 12 a131% 5200 490 530 469 469 460 oso 180 +131% sa0o as9 s42 454 454 a54 oso 180 +13.1% se00 «0 se5 44 44 ana oso 180 £131% seoo «5 srr 404 404 a04 oso 180 +131% seoo 482 8.00 412 412 a12 oso 180 +13.1% © Frequency vaiity above 300 We of :100 itz only apples forDASY vé—t and igher (se0 Page 2else i resticedto : 50 Mite. Te uncerinty i the RSS ofthe Gory® uncertinty t calbraion requency and the uneeriintfor the infcated requency band. Frequency vaidty lelow 300 MHtzis 2 10,25, 40,50 and 70 Nitz for Con® assessmentsat 30, 8,128, 150 and 220 MiHz respectvaly, Vality ofConv® assessed t 8 Mc is 49 Ntz and Conntassessed at13 itz is —19 MEtz: Above 5 GHz requency valdly can be extended to % 110 Ntz © Atfrequencios blow 3 GHt the valdtyoftssun parameto(cand ) can on relmad to : 10% if avid compensation formulis applix to monsured SAvalues Aferuencies above 3 Giethe valty o tisve narametes(cand )is restrted o 2 5%. The urcensinty is tRSS of the GonE uncetaintfo incfoale trgotUssunarimatars * AlhalDeothare deternined duringcallation, SPEAG varantshat e remairing devaton duetothe boundry lfectafter compensatin is always lass than 19 forrequercias below 3 Gtz and blow + 2% for requenciesetween28 Ge atary detance large tan ha e probe to dtarmetefom the boundaty Cortficate No: EX3—3832_Fonto Page 6 of 20

onetecH excovs—swarse Feumar27, 200 Frequency Response of E—Field (TEM—Cellsift10 EXX, Waveguide: R22) is Frequency response (normalized) as | ar}— (Ep ommE irmn mm immmmaitmmal o § k 200 Gerifcate No: EX33032Fobi® Page 7 ot20

onetecH excov—susese Februaey 27, 2019 Receiving Pattern (§), 8 = 0° 12600 MHz,TEM 1=1800 MHz.R22 ost Eefard oo Pm a 4 t Rat] «ht ntihe Uncertainty of Axial Isotropy Assessment2 0.5% (ke2) Conticate No: EX—3802.rabto Page 8 otz0

onetecH oove~snaese Fobray 27,2010 Dynamic Range f(SARness) (TEM cell, f,= 1900 MHz) 10 3 & & E 10 n in io 10 3 1o SAR [mWems] & revcomfuisona sn aT 1 J i. g . £.«) . . #°fIIT & t alllt »4 CH T | t 2 [: LNHE : 4 Al+ % I im ds dn de io ce in SAR {mWemd] o compemies Uncertainty of Linearity Assossment: £0.6% (k22) Conttcate No: Ex33032Feoro Page not zo

oneTecH exaovi—snssse retrsay27, 2010 Conversion Factor Assessment t= 900 Mz WGLS Ro (4.comt) t= 1750 hiWGLS R22 (_come) Deviation from Isotropy in Liquid Error (0, 8), £= 900 MHz s as so4 or oo or on os of io Uncertainty of SphericaIsotropy Assossmont: £28% (re2) Cortfcate No: Exo—sts2.reoto Page t t 20

onetTecH exsove— sNanse February 27, 2019 Appendix: Modulation Calibration Parameters U Rev Communication System Name Group PAR |Uns (d8) (ea) o ow ow 000| 247 % 10010_| CRA sart Vallaaton (Square, 100ms, tome) Test 1000 x06% 1011 ons uison weony weoun 201| xe6% Toorz_| can iE€E a02 1t wi 24 oiz (DSSS, 1 Nes wows 127| £66% Too13_| oas iEEE 802119 w2.4 on (DsS$—OroM. 6 Mops) woan 946| x96% T021 pac est—ro0 (rova, oMeiq can 930| +08% 1oozs_| pAc ephs—ro0 (romn, GMe TNO) on asr +e0% 1co2t bac Gprs—Fop (rown. ver, Th 0—1) Gsu 650| ze6% 1oozs DAG Ebee—Fo0(ToWn, aPSK. TNO) com 1262 xe6% Tooze orc Eoee—rop (rowa, apsk. TN 0—1) Gem ass +98% Tooer onc epns—roo (rowa. oMsk, TO12) esn 480| +a6% 1ooze bac Gensrop (rowa.se Th 0—123) con 35 sea% 1ooz ore Ebge—roD (TDMA. srsx. TNO—1—2) esu 776| +90% 10030 Gha iEEE 802.15.1 Blustoon (GFSr, D) Emen 530 z96% Toost CA iEEE 202151 Bustooh (GFSK, D) Buetooih 187| «o6% 10032 CA iEEE 802.151 Buetoot (GFSk, D) Buetoon 116| e60% 10083 GAA_| iEEE 802.16.1 Bluetootn (PIR—DGPS, Dit?)_ Bluetooth .78 £90% 10034 CA iEEE 802.15.1 Bustoon (PIZ—0GPS, on®) Buetoon 453| +90% 10038 Sha_| iEEe 802.15.1 Blustoot(PMM DapSe, D) Bluetooth 309 290 % 1oos6 GAA_| IEEE 802 161 Bluetoot(G—DPSK, Or1) Buetoon a01~| +a0% 10037 CA 1EEE 802 16 1 Buetoot(@—DPK. OG) Buetoon __]_477_| 206 % 10036_| CAA_| 1EEE 602151 Bluetooth(8—OPSK, DHS) Buetoon 410| +e6% 10036 cr cpmzao (RtT. RCt) coments _1 57 +ee% Tooes oan 141 i5—130 FDD (TOMWFOM, PIM—DOPSK. Halrate) aues 77e +86% Tocas Can isevemma5es FDD (FoMAFin Aves ow £90% Toots Can bEGT (FOD. TOMAEDN, GrS, Ful Sit24) _ beer 1380 +e6% 1o0i5—| ons DEGT (ToD, TOMWEOM, Grsx. Double Siot 12] pecr 1079 +08% Toose can Uiits—TDD (To.SCOnMA, 1 28 Meps) Toscowa 1101 +06% 1ooss onG EbgeFDD (TOM®, apSK, TN 04—2.3) com ose ree% 10050 ons iEee a02.1 o wiei2.4 onz (DS8S. 2 Mopo) win 212| +e6% 1o0e0 oA iesE 802.1 1b Wiei2.4 Gnie (DSSS, 5.5 Mopa) wow 2s3 ree% Toost oA6 iEEE 8021 to W2.4 Ghz (D5S5. 11 bps) wow 300 +a0% 10062 CAG ieE 802.1 tah Wis 5 Ghz (OFONM.6 Mops) wow a60 +s0% 1o0ss_| cAG iEee 002.1 tah Wfi 5 GHz (OFOM, 9 Moos) wow se5 +e6% Tooes ChG ieee 802.1 am Wis 5 Giz (OFONM. 12 Mops) wow EromiEccy Toues CAG iEEE 802.1 ah Wii 5 Oz (OFONM, 18 Mops) won a00_| <a5% 1ooss GAG iEEE 802.1 tamWii 5 Ghz (OFOM_ 24 Mope) wow ase o6% Toos? CAG iesE 802.1 tam Wisi 5 Gite (OFDM, 36 Mops) ww Torr +96% Tooes CAG iEEE bo2.1tam Win5 Gite (OFON. 48 Nope) wow foat +e6% Tooes CAG iEEE 802. 1aih wir 5 Oiz (OFOM. 54 Mops) wow tose +30% Toor1 ohB ieEE a02.1 1W2 « onz (©Sesioron a Mops) wes oss +96% 1oorz GaB ieE 802 1 1We24 Git (DSSSIOFDN12 Mops) woan promincern 1oors ons iesE 802119 wiri 24 aite (DBSSIOFDN18 Mops) wow aer +s6% 10074 caB iEEE 802.119 Wii2.4 aite (DSSSIOFDN, 24 Mope) We 1030 296% Toors GAB iEEE 602.110 W2 a onz (DSSS/OFDN 30 Maps) wiky 1077 +aa% Toure Ga iEEE 802 1 19 W24 Gi(DBSS/OFDN 48 Mops) wows 1ose ze6% Toor? ons iEEE 802.113 W2 4 Gite (DSSS/OFDN: 54 Mope) wows 1c +96% Toosi cas coMizove (IxTT. RC3) commenns |_sor + e6% Toss—| CAB 15—51 115—130 FDD (TDNWFDN Pi2—DarsK, Fulrate) Aues 477 +a0% 1ooso onc Grrsron (rown, GMsk, Th 04) com 65e +96% 1ooer ons uisF50 (hsor® weoux s9e +96% Tooss oa6 uisFOD (SupA, Suviest2) weona 305 +96% Toes paG_| EOGE—FpD (Town 6PSK, TN 0) com ass +96% 1orop ons LTE—FD (GC—FOM\, 100% R&. 20 hiz apSi) Ceros ser 196% Toror Gae Lre—ro (SC—FOMA. 100% RB. 20 Nx. 16.GAM LTeroo 642| +96% Toroz—| oae LTe—Foo (sc—rom, 100% Re. 20 Niiz, 6r—cAN) tTero0 600| +90% Toros onG Lre—Too (Gc—Fom. Too% Re. 20 Niz. orst) tetbo oze +06% | Totos GaG_| Lre—Too (Sc—oMn. 100% RB. 20 Nz. 16.CA tretoo sar 106% Toros—| Gro Lre—to (sc—rom. 100% Re. 20 Ninz. St—oAm)— trempo 1001 +96% Totos_| orG Lre—rpo(Sc—FoNA. 100% RB. 10 Ni. aPst) tTeFpo 580 +90% Certficate No: EX3—3802_Feb1d Page 11 o 20

onetecH exsovs— sngose February 27, 2019 Tor0s one LrE—Fop (SC—Fov® 1oo% RG. o Miiz. 16.aAt trerbo a45 ze5% Torr| cac_| LtE—Fop (sc—Fov, 100% RG, s hke. aPSi) treFbG s7s +05% Toi11 cas LTE—FDD (Sc—FOMA. 100% Ro.s NHe, 16:0AN) LTeFD0 644| x95% Torl2_| caG Lre—roD(GC—roma. 100% Re. 10 hMnz. Gt—Gan) Lrerbo ase a06% Torls ca6 LrE—FOD(GG—rDMA. 100% RG. 5z. B1—OAMY LtEFOD sez xo6% Tot1é GAG_| IEEE 802.1 n (HT Greenfeld, 135 Mops, BPSK) wiew a10_| +05% 10115 CAG_| IEEE 8021in (HT Greenfeld, 1 Mops. 16—0AM) woay a40 +95% Toris CAG 12EE 802 11n (HT Greenfeld, 135 Vbps. 61—GAN) wrew ais +96% 10117 GAG IEEE 802.11n (HT Mxed, 13 5 Mops, BPSE) woay aor +05% T0118—| GaG 1EEE 802.1 n (HT Mived, 81 Mbps, 16—GAM wory ase +06% Torie—| CAG i6EE 802.1in (HT Mved. 135 Vibps, 64—0AV) wia a13_| a06% 10140 cE LTe—rop (GC—Fomh. 100% Re. 15 Wz 16.A LTEFOD 649 x96% Torn ce Cre—rob(sC—roma t00% Ra, 15 Mzz. St—oan) LrEFoD 655 +as% Tora2 Cae LTE—Fpo (sc—rovm, 100% Ro, 3 Muz. apSi) LTerbo 573 +06% Tords CAE LTE—FDD (sC—FOVA. 100% RG. a Mz. 16—@AN) L1EFDD 635 296% Toras cae LTE—FDD (SC—EDVA.100% Ro. 3 Mkz. Bt—QAM) LTEFOD 6cs x96% Toras car Lrefpo (sc—roma.Too% Re, 14 Ne onei) LrEFoD s76 za8% Totds oar_| LTE—Foo (Gc—roMA,1oo% R6, 1a We 16—GA0) LTeFbp 641| xa6% Torar Car LTEFon (Gc—FoVh. 100% R6. 1at Mz. 6t—0) LTEFOD 672 x96% 1otds CAE LTEFOD (GC—FoWn, 50% RS, 20 Mkz, 10—GANM LTEFOD 64z xe6% To1se ce LTe—FoD (sc—Fowa, 50% Re, 20 Miic. St—QAn) LEFOD 6c0 +96% Torsi GaG_| Lre—roo (Gc—roMn, so% Re, 20 hike, aPSiQ LteoD aze +o6% Torse Gae Lre—roo (Gc—romn. sov ho. 20 Miz. 16:GAt) cre00 sez 206% Totss CaG LTE—Too (Sc—Fo. 50% Re. 20 Mrz. 6t—GAM) isuem 1oos +96% Torss Cae Lre—FOD (sc—romh, 5o% RB, 10 likz. GPSI) LTEFOD 575| »06% To1es cas_| LrEFOD (Sc—Foma, 50% R6, 10 Nikz. tsoAM) LteFb eas +96% Torse oa6_| LEFon (sc—Fomh, so% ho. 5 Mhz, aPS) LtEFOD a7e «96% iorer CAG Lre—Fod (GC—FDMA. So%e Rb, tihz, 16:Q0 LTEFDD e49 a90% To1se cas LtEFDD (SC—FOMA, 50% Ro, 10 z. G£.oAN) Lrerbp se2 +06% Torse cae Lre—FoD (sc:rom, sos: ma. 5 MzSEGAM) tTerbG ase 256 % Toreo cae LE—FDD (Sc—Fowh, 50% ho. 15 ihc. apsi) LreFo0 sez +96% Toie1 CAE LTEFDp (GC—FDMA. So% Re. 15 Mz 1G—GAM L1EFOD 645 a08% Tore2_| cae LTEFDD (sc—Fomh. 50% ho. 15 niz. Gt—0A LTEFO0 ase +06% Tores car LtE—FDp (sc—roNA,se o. 14 hine.aPSi) LTeFbo sa6_| +985 % 1oier car LTE—FOD (sc:romn, so% e 12 Maz. 16.Gal) LreFo0 621| 295% Tores car LTe—rpp (sc—romn, 5o% hB14 Maz. St—GAn) LtEFOD 679 x96% To1es cas LrE—op (sc—romm, 1 Re, 20 iz arst) LTEFOG 575 +a6% 10170 on LrE—Fob (GC:FoMA1 ho. 20 Nike, 16000 LiEFDD as2 sa0% Torri_| Ane LTE—FoD (Gc—Fomn, 1 Re. 20 Miz. G+—0A) LiEFOD 640| x98% 1172 ca6 Lre—Tod (GC—FoMA. 1 Re. 20 whz, orsi) Lte—f00 a2 «06% wizs can Lre—ToD(GG:FoMA, 1 RG, 20 Mvz, 160M Lre7o0 948| za5% 10176 CAG_| LTE—TDD (GC—FDMA, 1 RB, 20 Miz. 64GAV) LTE—TOD 1025 +96% 10175 caG LTE—FOD (SC—roun1 Re. to wke, arst) LtEFO 572 z06% 1oi7e_| ca@ Lre—rob (Sc—Foma1 Re. to like. 16oam) LreoD 652 a96% Torr?_| Gal LTE—FDD (GCFOVA,1 RS, 5z. GPSQ tTeroo a7s |ee% Toire caG LTEFOD (Sc—FoMh, 1 Re 5 Mitz, 16.0A teroo as2 +a5% Toz Cac_| Lre—roD (SC—foun1 Re, 10 NHe: etOA) LtEFO 650 206 % 10120 caG_| LrE—FoD (SC—FoWh1 Re. 5 Miz, Gt—GAM) LrE—roD 650 +96% Tore1 ons Lreron (sc—roma 1 ho. 15 Miz. arsiy teroo 572| ase% Toree cae LTE—FOD (c—Foun 1 Re. 1s hkz, 160A treroD 652 <a0% Tores AAb LTe—oD (SC—FouA, 1 Re. 15 hive, GGA) LrEFOD Feomieccra Toes cas LE—FOD (sc—romn1 Re. 3 Miz. PS LtErOD ara 296% Tores cas LE—FOD (SC—FOMA,1 Re3Mz. 16.0A00) Lrero Ceomieccys Torse Mn LTE—FOD (sc—Fomn,1 ho 3 Miiz. Se:an0) terbo s50 «56% Toisr car LTE—FOD (sC—EDMA1 Re. 1.4 ViHz, arsi) LrerbD 573 296% Toras oaF LTE—FDD (SC—FOMA1 RB. 14 Miz. 1€.0A0 L1EFOD 652 a96% Torss Anr_| LTE—FDD (SC—FONA1 Ro, 14 Miiz. St—00) trerbD 650| as6% 10195 GAG_| IEEE 8021 i (HT Greentld, 65 Vips, Beai) worn a00 +50% T004 CAG_| IEEE 802.1 n (HT Greenfeld, 30 Mops, "6—aAN) ww a12 +05% 10185 GAG IEEE 802.1 in (HT Greentaia, o5 Mops, 6t:0AV) woay a21 «95% 10196 GAG_| IEEE 802.11n (HT Mixed65 Vops, BPSQ w 810| +05% Torar CAG_| IEEE 802.1 n (HT Mixed. Sa Mops, 16—@AV) wikt a13_| +55% 1ores CAG i6€E a02.tin (HT Mxed. 65 Mops, GEOM) woay a27 +96% Tozt GaG iEEE 802.1 in (HT Mized. 7 2 Mops, BPSQ wom s03 +35% Cortficats No: EX3—3032_Febt Page 12 or 20

onetTecH waove— snasse Fabuary27,2019 iecesszim n itcE 80 tn i i Coan Cortfcate No: Ex0asc2.Feoto Page 13 o 20 vre en uencmm gn wrmie weme mm s myrcine ==

onetTechH exsove— sNiaoge February 27,2010 Tosns Mb LrEFDo (sc—FoNAso% h. aMr. sr—oam LErpd 660 290% 10301 AAA 1EEE 802.16e WiMAX (29.18, Sms, 10Mkz. GPSI PUSC) winrx 1203 «96 % 10302 AMA IEEE 802.16e WiVAX (29:16, Sms, toVz. GPSK, PUSC, 3 GTRL WiMAKX tasr 296% symbois) T0503 AA i2E 802.16e WiNAX 115. Sms, T0Mke. GAGAN. PuSo) wark iesz sosk Tos0s AMA 1EEE 60216e WiMWX (29—18, Sms, TOMz. 6ACAN, PUSC) wivys 1186 +a6% 10305 AAA IEEE 802.16e WINAX (31:16, toms, 10iiz, BECAW, PUSC, 15| WiiiAx To| 205% symbols) Tosos AAA iEEE 802.16e WINAX (29.16, Toms, towiz, GeaAM PUSG, 18| WiiAx tar £05% symbols) Tosor MAAA leeE 802.160 WiNAX (25.16, Toms, 1oMiz, OFSR, PUSG, 10 wiax Taas £95% symbois) Tosns AAX_| iEee e02e WINAX (20.16. Toms, 10uiz. 169AM. PUSC] wivek Tss soa% 10308 AMA 1EEE 80216e WINAX (20.18, Tome, 10liiz, 160AM, AMC 28, 16 WiWAX fass z98% symbois) Tosto AAX iEEE 8o2.i6e WiNAX (20 18, toms, 1olnz, aPSX, AMC 28, 18— Waink Tar 205% symbols) Toart AAb| Lt—rob (sc:romatovk Rs, 15 MPS trerpo sos_| <90% 1oss w bents en 1051 +86% Tone m ibente pen 1948 ze6% Toa1s MB ie€eao2io win21 onz (DSSS, 1 Nops. Sope outy cyoo) wow 171 <96% 10518 MB tege802.119 Win 2.4 Grte (ERP—OFM 6 Mops. Sbpe duty cyao)_| WLAN a36| +06% 10317 AnG i€GE a02.11a i: 5 Gite (OFONM, 6 Mors. SGpe duly oyde) wony a36| +06% 10362 AMA Pulse Wavefom (200#e, 10%) Generc 1000 +306 10358 AAA| Puise Wavefom (200rie, 20%) Genenc 690| z08% 10364 AAA Puise Waveform (2001iz40%) Genere sos +08% 10355 AAA Puise Wavefom (200riz. 60%) Gener 222| a00% 10356 AMA Puise Wavefom (200riz, B0%) Genere osr |205% 10387 AAA GPSK Waveom.1 Mitz Generc s10 +36% 10300 AAA GPSKWaverom, 10 Miz ~| Genere 522| 206% 10506 AAA 6t—0AMM Waverorm. 100 Kiz Genenc o2 a96% 10308 AMA 6H—GAMd Wovelorm; 40 NHz Gererc ear x96% 10500 AAD 1EEE 802.1 tac Wiri (2OMHe, 64—OAM Stpe duly cyoe) woan a3r_|+06% | T6z01 AAD 16EE 802.11ae Wiri (0Mez, 64—GAN, Sope duty cycle) wow a00 +06% 10502"| AAD iEEE 8021iac Wiri (@OMHe. 64—GAM, Sdpc duly oy) wow a53 290% Tor0s MB Comz000 (hev—50. Rev. 0) comeons 376| +96% Toiot AB_| CoMEZ000 (mEV—D0, Rev. A) commano |_s77_| +96% 10805 as comzo00. Ros, 082. scro. Ful Rare commento 522| +96% 10610 AAF LTE—T0o (GC—FOM.1 RB, 10 Miiz, aPsr, UL tETbD 7ee 206% Subttame=2.3.47.8.0, Subrame Contetl Torns Am_| wuak copr, 6t—oAM onz Genen as <se% Toits AMA 1EEE 502.1 19 WiFi2 4 Ghiz (SS5, 1 Maps: S9pe dulycyeie) ww 181 | z05% Toe1e AAA 12EE ao2 11q WiF2 4 Giie (ERP.OFDN, 6 Mops: $Gpe duty cyo) WUWN az +e6% 1617 AAB 1e€E a02.tiam wiei5 Giiz (OEON. 6 Maps. 99pe duty cycie) wow a2 <o6% Torts AM i2EE a2119 WiFi 24 Giie (D5S5—OFDWM, 6 Mops, $9pe duty cyole, WLAN aid 295% Longpreambule) Tore RAX ieE 602119 Win24 Gitz (DSSS—OFDM, 6 Mops, Sove duy cyole, WLAN s10 zs6% Short preambule) ARG_| iEEE 002 1 in (HT Greonfold, 7 2 Mops. SrSr) wow a3 <9s% T01z3 AAB 16e #02.11n (HT Groentlld, 43.3 Mops16—GAM) waan aa7—| 208% Toras AAG 12EE 802.1in (HT Greentels, 72.2 Nops. 64—0A) wow 840| +06% 10825 AAG_| 1EEE 802—11n (iT Greenteld, 15 Mops. BPSE) ww a41_| +a6% T04ze AAG_| 1EEE 802.11n (HT Greonfels, 90 Mops, 16—0AM) wiw a45 +e6% To82r AAB_| 18€€ 802 1 n (HT Greentleld. 150 Mbps. 6t—OANY ww a41_| 196% 10830 AAD LTEFDD (GFOMA; 5 Aiz. E—Tir3.1) LEFDG s25 +96% Toas1 Mb LTE——00 (orown, o Miz, E—tii3 11 terop 630 ree% 10432 AAG LTEFDD (GFDNMA; 15 Wic. E—T31) erbo 6ai re6% Torss AAG LrE—FOD (OFDNMA. 20z. E—Tm3.1) tTerop _|_a3t <ea Torss AAA W—CDMA (BS Test Model 1. 64 bFGH) We aeo +90% 10435 MF LTe—Too (SC—FONMA.1 Ro. 20 Vine. arsr, UC tmetob 782 £96% Subttome=234,7.8.0) Toir AAG_| LTE—Fo (OFDMA. 5 Miz, E—TM31. Gipping a%) teron _|_Tse 266% Toéas AAD CTEFOD (GFDNM10 lkz. E—TM 1, Clppin 44%) tTerop Tss 196% Toi9 AAG LTEFDD (OFDNMA. 19 hike. E—TM 31. Cipng 444) terop s1 x96% Torso AG LTE—DD(FDNMA 20 iie. E—TM 31. Cipping 44%) terop 748 +08% Cerbficate No: EX3—3032_Feotd Page 14 of 20

onetTecH exsove— sNsoue Febmuary 27, 2019 T0iG1 _TAAA W—COMA (BS Test Model1 64 DPCHL. Cipping 24%) weoua 7so s96% Toso AAB 1EEE 202.tiac Wiri (160MHe, S4—OAMSope duty cycie) whew aes +96% Toisr Ana UiMTS—roD (bc—nsorn) Weat 662_| 206% 10i88 AMA CDMAZ000(1x£V—00, Rev. 6.2 camers) commzore 65 z96% Tosss MA COMAZ0O0 (1xEV—D0. Rev. . 3 camers) commzons "|_a2s +a6% Tosso nA UMTS:FDD (WGoWn. Ar weouw 230| x06% Toier MA LTE—ToD (SC—FDMA,1 RB, 14 NiRGPSR, U treroo Tez 296% Suptames23478.0) Tore2 AAA Lre—Too (C—FOM7 R&, 14 Niz, 16—0a0, UL tremoo a30 z95% Subtrame=23,7.8.9) Tores MA LrE—Top (6G—FDMA. 1 RB, 1.4 MHe, G4—GRV. UL tremo a56 z95% Sublfame=2.34.7.8.0 Toies AAB LrE—Top (GC—rDMA. 1 RB, 3 hihz, aPSF, UC tremoo Tas z95% Subtame=2.34,7.0.9 Toles AAB LrE—To0 (SG—FDM. 1 RB; 3 hHe, to—GRM, UL. tremo sa2 s9s% Subtrame=23.47.89) Toiss MAB Lte—T00 (SC«FDMA 7 Ra. a Niz, se—oa. UL tremo asr za5% Subtrame=2.34.7.8.9 Toser MAE Lre—100 (GC—FOMA. 1 RB. $ Wihe. GPSF U tretoo Tas zesw Subtame=2 347.6.9) Tosee ANE LTE—T0D (GG—FOMA, T R6, 5 hMiz, 16—GRM, UC temo s3 z90% Subtams=234.7.8.9) Tosse MAE LTE—ToD (SC—rOMA, 1 Ro, 5 NMiz. 6%—GRM. UL Lreod ass £90% Supttame=2.34.7.0.9) Tosro ANE| Lre—to(GG—rDMA, 1 RB, 10 Nie. Grsr, U treo Tss z56% Subtame=2347.0.9 Toari ME LrE—To(GC—DM. 1 RB, 10 Nine, 1s—oAn. U tremo a5r £95% Subfame=2347.8.9) Toir2| ME LTe—rod (SGFDMA. TR6, 10 Miiz, Gr—oAn, UL trembo a5r £90% Subfame=234,7.8.9 Toara ARE LTE—T00 (GC—rOMA. 1 RB. 16 Miz. GPS¢. U tremo Te ras% Sublrame=2347.8.9) Tosra ANE Lte—toD (GC—rOM, 1 RB, 16 tinc, 16—0A0, U tremo s3z 295% Subrame=2.34,7.0.9) Toirs ME LTE—T00 (GC—FOMM, 1 RB, 15 Vine. si—oAM, U tre7oo a57 «96% Subfame=2.3.7.8.0 Toar? AnF CTE—Too (Bc—roM, 1 Re, 20 Miie. ts—oM. UL LtET0D aa2 +96% Subltame=234.7.8.0) Tosra AAF Lre—Tod (GG—FMA, 1 RB, 20 NMic, 64—@AM. UL LteToo a57 £95% Subttame=234,7.8.9) To47a AMA LTE—Too (sc—FoNA, S0% RG. 14 Ninz, asr, U teTbo Tra ze8% Subtteme=294,7,0.9) Toase AMA: LTE—ToD (Sc—rDMA, 50% Ra. 1ie 16—GAMUL tremo ais z96% Subtome=2347.8.9) Toser ARA Lre—TDD (GC—FONMA. So% RB, 14 Wie, G—0AM, UL tTeoo a4s :98% Subttame=2347.8.0) Tez AB LTE—Too (SC—FOMA. 50% RB 3 ViRz. GrsX, UL. tTetos Tr +s6% Subfames23478.9) Toss AMB LrE—top (6C—FOM. So%e RB, 3 Miiz. 16.aAM. UL tTemo ase £96% Subteme=23.7.69) Toase Ani Lre—o0 BcDits. S0% RG; 3 Mz G—GRAMUC TTETo5 sar <90% Subtome=2347.8.9) Toiss NE Lre—rop (GC—FDNMA. So% RB, 6 Niz, GPSR, U trEto Tso 235% Subtrame=2342.0.9) Tores AAE Lte—Too (SC—FDMA. 50% Ra, 5 Miiz. 16—00, U tremo ase r95% Suptteme=224789) Tossr—| AAE LTE—T0D (GC—FDMA, 50% RB, 5 Nine, Gr—oRM, UL trerpo seo s95% Subeme=2347.0.0 Toiss AAE Lre—roo (GC—OMA, 50% RB. 10 MiHe. GrSK. UL tremo T70 +95% Subtrame=234,7.8.9) Tosss ME Lre—Too (6C—rOMA, So% Re. to hne, 1é—GAM, UL trembo wat 290% Subrame=234,7.8.0) 1oéao MAE LTE—TOD (SC—FDMA, 50% RB, 10 VMz, 64—OAM; UL LTE—TDD a51 £96% Subame=2347.0.9) Tosot MAE LTE—ToD (GC—rDMA. S0% Re, 15 Mrz. oSr, U tremo Th £00% Subrame=2.34,7.8.9) Certicate No: EX3—3032_Feb19 Page 15 of 20

onetTechH exsovs— SNouz Fobrmary 27, 2019 Toase MAE LTE—ToD (GC—rOMA. So% Ro. 1s nie, 16—GAM, UC temo ai1 za5% Subttame=234,7.8.0) Tores AAE LTE—ToD (GC—FONMA,so% Ro. ts uz. Gi—GAN, UL tretoo ase 205% Suptamen234.78. Tss AAF LTE—T0D (GC—FOMA.su% Re. 20 une, orsk, UC treToo T7a z96% Subrame=2.34,7.8.9) Tds AAF LTE—Too (Gc—rDMA, 50% RB, 20 ninz, t6—oAM, U treo sar 200% Subtame=2.347.8.0) Torms AAF LTE—Too (Gc—tFDMA So% Ro, 20 hnz, se—GaM, U treoo asi £05% Subfamen2 347. Tosr AMA LTe—Too (Gc—FDMA Too% Ro,1 z. arSK, U tretop Ter 206% Subtrame=2.34.7.0.0) Toses ARA LTE—Too (Bc—DMA, itow R&,14 Miz, 16—anM, U tremo a40 200% Subtame=2347.8.9) Toids AMA Lte—To (GC—FDMA. 100% RB, 1. hMvz, sr—GAM, UC tretoo ses z0a% Subtrame=2.347.8.0) Tosoo AAB LtE—Too (sc—FoWA, soo% R&, Ninz, aPsic, U tremo Tar 293% Supteme=234,7,0.9) Tosot AB| LrE—ro0 (Sc—tFDMA. oo‘ RB. a uiiz, 16—aAM, U temo a4 z96% Subtame=2.34.7.8.9) Tosor AB Lte—roo (sc—FDMA Toom Ro, a hnz, se—aan, UC tremo as2 z95% Subtame=2 347.8.0) Tosos AAe Lre—Too (sc.roma, soow Ra; s Niz, onsU tremo T72 z9a% Subtame=2 34.7.8.0) Tosos ARE LTE—ro(5C—rDMA. Too% Re, s hMrz, te—aam, UC temo aa1 zesw Subtame=2.4.7.8.9) __| Tos0s AAE Lre—roo (Gc——pM\, Too% RB, 5 Miz, ss—oAM, UL treto as % Subttame=23.47.8.0) Tosos ARE LTE—Tho (s0—rbMn. oo Ra, 10 Miiz OrSC, UC temwo Th ass% Subttame=2.34.7.8.0) Tosor anE| Lre—roo (Bc—romn, toow R, 10 Viiz 10—oan. UC temo a36 255% Subtamee234,7.8.0) Tosos ARE LE—ToD (GC—rDMA, 100% RB, 10 Niz d—aAM., UL tretoo as5 s95% Subame=234.7.8.0) Tw aie PTob ontnth Too% RB, 15 Vine, GrsK, UL tetod 7oo z56% Subrame=2 34.7.8.01 Tosto ARE Lre:Top (sc—fomn, foo% Ra; 15 ¥irz 16—Gan, U tretod 845 z095% Subtame=23.47.8,0) Tosit AAE| Lre—Top (sc—roi, foo‘e R, 15 inz G4—GAn. U tetbo as1 295% Subtrame=234.7.0.9 Tostz| AAF LTE—Top (Gc—fDWMA Yoow RS, 20 Mz arar, ut tietbd T 206% Subtame=2347.0.0) 10813 AAF LTE—TOD(SC—FOMA, 100% RB, 20 VMiiz, 16—QANMUL LTE—TDD 842 £98% frame=2 3478.9 Tosts ARF LE—TDD (SC—FDM. 10o% R&, 20 Niz Si—oAm, UC terbo Bas 295% Subtame=23.47,8.0) Tosts AAX| i€Ee aos1 io Wii 2 4 GHz (DSSS. 2 MapsSope duy syole) wow 150| +s5% 10516 AAA iEEE 802 11b Wi2 4 Ghiz (DSSS, 5.5 hibps. bape duty cyeie) www 157 +08% Tostr| AMA iE€E 802.1 to WR2.4 Ghiz (DBSS, 11 Mops: Sope duly eycl) wiks 150| +95% Tosie MB iEEE a02 1 1ah Wii5 Ghiz (FOM, 9 Mpe, Sope duty cyele) wow azs—| <oas Tosta AAB iEEE 802.1 tam WiF5 GHHz (OFDM, 12 hMbps. ope duty cycle) wias a30 zs6% 10520 AAG iEEE 8021 tah Wii 5 Giiz (OFONM, 18 Mops. 99pe duly cycl) ww a12°| +96% Tose1 AAB_| i6€E 802.1 tah WiF 5 Giiz (OFONM, 24 kops. 99pc uty cyce) woa L9r ze6% 10522 AAB iEEE 8021 am wiis Ghiz(GFOM, 36 knps, Sape duty cyce) wasn s45 <06% Toszs AAB 1EEE 8021 iah Wiri 5 GHz (OFOM. 4s libps. S9pe duly cycie) wean Eromieces 10528 AB ie€E a02.10h win 5 Griz (GFDM, 58 libps. 99pe duty cxce} w a27—| reew Toszs wnB ieE 002.1 tee Wiri (2OMiHe, MGSO, Supe cuty cycie) wean ase [ 196% T05ze ARG 1EEE 802 1 tae WiFi (20MiHe, MGS1. S9ve uty cydle) wean a42 [ +06% 10527 AMB 1BEE 802 1 1ae Wiri (@OMiz. MGS2: S9pe duty cycie) wew a21°| s06% Tosas AAB_| isE 802.1 tac Wirs (2OMHz. MGS3. 9ope duty cycle) wian a30—| ra6% 10529 AnB iEEE 8021 10e Wiri (20Me, MGS4, Sape auty cyaie) ww a30 +00% 10591 AAB_| 1EEE 802.1 tas WiFi (20Me. MCSG, #9po duly oyole) WAN 845 296% Toss| AAB iEEE 602. facWiFi (20ViHe, MCST, #9pe duly oycle) wean a20 £96% 1ossa Ad—| ieE a02.tiae Wi (2OMHe, MGSe, S9pe dutycycle) wian ase ro6% Tossa MB iEEE 607 1ae WiFI (OViie, MCSO, SGpe duty oydle) wian a4s +a6% Cerbicate No: EX3—3832_Feut9 Page 16 of 20

onetTecH exsove— sNsese Fobruary 27, 2010 Tosss AnB 1EEE 5021 ae We (MONN. MGSI: Sope duly aye) wow promiecces 10536 MAB 1EEE 602.1 tac Wiri (0Miie.MCS2, S9pe duly cyciet wowy as2_| 2a0% Tosar AAB 1EEE 802.1 e Wiri (d0Me. MGSS. S9pe duty oyde) Wokn a44_| za6% Tosab AAB 1EEE 802.1 e Witi (d0Vile. MGSA. S9pe duty oyde) wuw asi zas% Tosdd AAB 1EEE 802.1 tac Wiri (40Mie. MCSS, 99pe duly cyac) ww a30 +06% Tost MB 1EEE 802.1 tas Witi (0Miie, MCS7, S9pe duty cyae) wow a40| +50% To5a2~| MB 1EEE 802.1 tae Wiri (20Miiz.MGSB. Supe duty cy) worn ass +a0% Tosds MB 1EEE 802.1 tac Witi (d0Me, MGSD. S9pe duty cyle) wokn as5 +s6% Tosta AAB 1EEE 002.1 Tac WiFi (BOMHz. MCSO. SGpe uty oyde) wokn a47 +30% T05d5 MB IEEE 802.1 tas Witi (BOViHe, MCS1. B9pe duty cyale) whey ass +a0% Tosde AAB 1EEE 802.1 tac Witi (BOVe. MCS2. Supe duty cycle) worn a35 +s0% Tosdr AnB 1EEE 002.1 tac Witi (B0Mz,MGSS, S9pe duty cyle) worn 849| +s0% Tosds MB iEEE 602.1 oc Witi (BOMH. MGSA. S9pe duly cye) ie a57 +a5% 10550 MB 1EEE 802.1 Tac Wiri (BOMHe. MGSG. 9upe duly oydle) wow 530| =36% Toss1 AAB iEEE 802.1 ts WiFi (BOMie. MGSF, 99pe duty cyal) woky a50_| 2003 10552 MB 1EEE 802.1 tas WiFi(BOVi, MGSB. O9pe duty oycle) woah s42| x96% Tossa A iBE802.1 s Wini (BOV, MGSS, S9pe duty oycle) view s45 +96% To5se AAG TEee 802.1 To Wiri (1o0MNz. MGSD, Sope duty oycle) woiw a4s +08% 10505 AAG iEEE 802.1 oc Wiri (1o0Miz: MGS1, 99pe duly cycle) wow aar +96% 10566 AAG IEEE 802.1 e wini(1600MWz. MGSz. 9pe duty cycle) woky a50 +a0% Tossr AAG IEEE 802 1 e Wini(160MHe, MGS3. Bope duty eycl) whew a52_| x95% Tosse AAG_| 1EEE 8021tae Wii (160Mile. MGS4. bope auty eycle) woan a61_[ »98% T050 AG NEEE #02.1 Te wini (TooNHz. MGSG_ B9ve duly cycl) ww an reas 10561 AG IEEE 802.1 ae wini(1boMz: MGST. Sope duty cycl) ww ase z96% 105602—| AAG iEEE 802.1 e Wiri (160NiMz. MGSS, 9Gpe duty cycle) woew aso +95% Tosea AAG 1€EE 802 1ae Wiri (160Mie, MGS3,Bopo duly eycle) woay arr ze6% 10564 AAA (eee 802.119 Wiri2.4 Ghz (DSSG—OFDN, 9 Mbps, S9pe duty wian a25 226% qyclel Toses AMA iEeE a02119 Win2.4 Gnz (DSS—OFDN, 12 Mops, S9ve duy woy ais zes% eycle) Tosee in EeE ao2 mg wiiz s onz (Dass—orbh, is Wops, sopc ouy wiay ais zse% oycle) Toser ARA ieEE 802119 W2.4 Griz (DSS—OFDN, 24 Mops, 99pe duly viay a00 z36% cyce) Toses MA ieEe02.119 Wirr2.4 Giie (DSSS—OrDM, 36 Wops, Sope ouly wian aar z96% erde) Toses AM iEEE 802119 Win2. Giie (DSS—OFoN, db Mops, Sope duly wo a10 z35% sycle) Tosro MA iEEE 802:119 Wii 2.4 Giiz (DSS5—OFDM 54 Waps, Sape cuty woan a30 z30% cyde) Tosri Ain i6E a02 11 Wiri2.4 GHe (DSSS1 Nbps. Sope duly cyol) wory Tss <so% 10572 AAA iEEE a02.1 o Wi:2.4 hz (@985. 2 Mops, Sope duty cycie) woay 100| +00% 10573 MMA_| 1EEE 802.11h WiFi2.4 Gite (DSSS, 5.5 Mogs, 9Opc duty cycle)_ WA 198 196% Tosra Aan ieEE a0211 wiri2.4 ane (PSSS, 11 Maps, Sope duty oycle) wor 19 +a0% Tosrs AAA ieee 802 119 Wiri2.4 Ghz (DSSS—OFDH, 6 Mbps, 80pe duty wian as0~| £0% eycle) Tosre AMA| iEEE 802119 Wini 2.4 Gie (DSSS—OFDN, 5 Wbps. Bope duly wed seo z85% oyde) Tosr? AMA ieee 02119 Win 2.4 Ghz (DSSS—orn 12 Mos. Sope auly wiky aro £96% cyde) Tosre AnA eE eoz11g wini 24 Gnz (bass—Orbi1, 16 Weps, Sope auly woay a4s £90% eye) Tosre ARA i€ee o2119 Wim2a nz (DSS—OFDN, 28 Mops, ©0pe culy wiay ase z90% eyde) Tosen AMA iEEE 602119 Wir2.4 hz (DSS—OFDN; 36 Mops, S0pe outy wow a76 £95% cyde) Toser AMA ieEE 802119 Win2.4 Ghie (DSSS—OFN, 48 Mops, S0pe duly wory a3s £95% orde) Toser AMA ieE 002119 Win2.4 Snz (DSS—Orpi, 54 Mops, $ope duly wory nor £90% erde) Tosss MA ieee 02t tam Win 5 Gnz (OFDN6 Mops: S0pe auly syle) wow as5 rea% Tosea MB 1EEE 02 1 aih Wis Ghz (OFDM9 Moge, Sope duly cye) wony a60| +e5% Toses AAs iEEE 602.1 tah Wisi 5 Gife (OFONM, 12 Meps. ope duly cyele) wory a10 z069 Tosee AnB 1EEE a02.1 taWis 5 GHz (OFDM, 16 Maps. 90pe duly oyele) wosy a45 £o6% Toser Ais ieE 802.1 tairWis 5 GHe (OFDM. 24 Mps. 90pe duty syele) wow a36 <00% Cerifcale No: EX3—3832_Fob10 Page 17 of 20

oneETEecCcH exsove— snasse February 27, 2019 Toses AAs iEEE a02.1 tam iWn s Giz (OroM, 36 Nlbps. Sope duly excle) wow Eromiiecces T05e9| AnB 1EEE 802. 1am Wii s Ghz (OFDNM, 4b Nops. 9ope uty cycl) wors a35 xo6% 10500 Ans iEEE 802.Tiah Wiri 5 Gitz (OFOM, 54 Mops. S0pc duty cycle) wiy ser 206% 105e1 AA8 1EEE 802.1 n (HT Mixed20Mie.MCSO, $0pe duly eyce) wos ae: x06% 10502 AAs 1EEE 802.1 n (HT Mixed20Miz. NMCS1, $0pe duy eycle) wokn a79 2a5% 10505 ANB 1EEE 802.1 in (HT Mived, 2oMie: MGSZ, Sope duty eyae) wow se« xos% 10504 AAB IEEE 802.1 in (HT Mixed 20Mie.MGS3, ©0pc duly eyoe) wow a7a—| x06% 10505 AAB_| IEEE 802.1 i (HT Mixed20Mie.MGSA, $0pc duty eycl) wokn ars »a0% T05a6 AAB IEEE 802.1 n (HT Mxed20Miz.MGSS, $0pc duty cyce) woww an_| 296% 10507 AnB 1EEE 802.11n (iT Mired, 20ine, MGS6, 90pe duty cycie) wokn 872| xos% 10508 AAB IEEE 802.1 in (HT Mixed 20Mie, MGS7, S0pe duly eyoe) ww a50_| x06% 10509 AAB IEEE 802.1 n (HT Mixed. 40Mfie,NCSO, 90p duly eyde) woan a79_| xa0% 10500 ANB 1EEE #02.11n (HT Med. a0MHiz:MGSA, Sope duty cyol) wow ass 205% Tosot ANB NEEE #02.1 in (HT Mved. 40Miie: MGS2, S0p duty eyce) win s82_| +95% 10602 AAB IEEE 802.1tn (HT Mixed. 40Miie, MGS3, 20p duty cycle) WUAN 894 +908 % Tosos An@ iEEE 802.1 o (HT Med40Mie. NCSA, $0pe duly eyce) woky a03 ra6% Tosos ANB iEEE 802.1 in (HT Mixed. 0Mie.MGS5, Bope duty eyoe) wows a70_| x90% 10505 NB 1EEE 802.1 in (HT Mixed. a0Miie. MGSG. S0pe duty eyde) wias as7—| +953 10506 B 1EEE 602.1 n (HT Mived. d0Miic. MGS7, 90pc duty cyle) wokn as2 z093 [—Tosor—| AAB_| 1EEE 802 1 Tae witi (@OMHe. MCSO. bops duty cycle) woan s5t_| +a0% 10508 AAB iEEE 602.1tae Wirs(20MHz, MGST, 90pe duly eycle) weay arr x06% Tooos| Ana iEEE #02.1 1e Wini (20MHz, MCS2, Sope duty eyele) w asr x95% TosiD wb iEEE 202 t1ae wini POVz MGss, Sope duly eyo) wtals s1s_| z55% Tost1 Mn ieE 802.1 ts Wiri (20MiHe. MGS4. $ops duty eycle) ww a70 206% To512—| An 1EEE 602.1 tas Wirs(2OMiHe. MGSS, $0pc duty oycle) wokn a17 x083% 10519 AMB 1EEE 602 1 To WiLi 2OMGSG. Sope duty oycie) wows a9r| ze8% Toord ANB IEEE 802.1 tac Wini (POMz. MGSTSope duty eycle) wow aso zea% Toats Ans ieEE 802 1 c Wini (2MHe. MGSB. Sope dity oycle) woan ase xa5% To5te Ama iEEE 002.1 tac Wiri (AOViiz. MCSO, $0ps duly cycle) wes as2 zes% To517—| AAB| IEEE 8021 1me wiri dOnz, MGST, Sope duty ycie) wew poomireres Toat ANB IEEE 802 1 Tae witi(#0MRz. MGS2. Sope duly oycie) wew a5e_| a95% To5te AA8 1EEE #02.1 To Wiri (AOMiHMCS3,20psdury cycie) wow as0 +s0% T05z0 AAG iEEE a02.1 tac witi (dovie. MGS4, b0pe auty cycle) wow sar a96% 10821 AAB IEEE 602 1 tac WitiOMMGSS, S0pe duty eycie) woan a77 x05% T05z5| w iEEE 802.1 e Wiri (OVine. MGS6. Sope duty cycle) ww ass +a0% Toszs Ane iEEE 802.1 tac Witi (dOMie. MGST, $0ps duly cycle) worn as2—| +a0% 1os2e Ano 1EEE 802 Thac Wis (d0Mrz.MCSS, S0pe duty cycl) ww a90 x06% 10525 AA 1EEE 802 1Tae WiFi (dONHe. MGSO, Sope dily eycie) wow a96 +a5% To5ze wA iEEE a02.1 o Witi(BOMHe. MGSO. G0pe duty oycle) woan ass <e5% Tosar AAB iE€E 802.1 ts Wiri (BOViHe. MGS1, 90ps duly eycle) wew as0 +00% Tosze Ans iEEE a02.1 tac Witi (BOVineMOSP, $0pc duly oycle) wekn a7~| «96% To5ze| As iEEE 802.1 tae Wiri (@OMHz. MGS3. #ope duty cycle) wian as5 +95% 10530 s 1EEE 802.1 ae Wiri (@Ovine. MGS4. bops auly oycle) whew 672| 290% Tosst AAB iBE802.1 ts Wiri (BOMiHe. MCSS, ©0ps duly oycle) worn aa1_| 206% To5s2| ANB IEEE 802.1 c Witi (BOViHeMCSO, $0pc duly cyele) wian a74 +06% T0533 MA| 1EEE 802. 1 me wiei (BOMHe. MGST, Sope duty oycie) woan an za6% Tossa w6 1EEE 602.1 ae Wini (BOM. MGSB. S0ps duly eycie) ww a50 za5% Tosas Ans iE 802.1 as Wiei (BObiH, MGSo, 60ps duty oycle) ww a81 2a0% Tosae wiG i€E a02.1 tae Wiri (60MHe: MGSO, 00veduly cyol) wow aes| +oo 10537 AAG 1EEE 802.time W(16oMMic.MGS1. S0oe duly eyd) woa a79—| ze8% Tosse| mc (16ouiHe, MGS2, S0oe duty cye) | ww ans +a8% Tosse AAG 1EEE a02.1 tas Witi (160MHe, MCS3, 90veduly cycl) | wian as5 x05% To5do_| AAG 1EEE 802.1 tae Wiri (160Winz. MCSA, 90ne duty cycle) [ wow a9e +95% Tostn AAG iE€E 802.1 tac WiFi (oobie, MGSS, 0nc duty cycle) | woan se +96% 102| mc (1eouibe, MGSS, $05e duly cyde) woa 906| +965 Tossa MG 160blHz.MCS7, 90e duly oyde) ww aso +55% Tosas wiG| 1EEE 602.11e Wiri(PooMne. MGSS, Sose duty cycl) wow 905 +e6% Tosts AAG IEEE 602 1 tae Wini (60lMHe, MGSS, 9bne duty cyol) wow on 206% Tosds AAF LTE—TOD (GC—FONA. 1 Ra, 5 Nikc. GPS<,UL Subtrame=2.7) LTeoD Tiee +96% Tostr Anr LTE—ToD (Sc—rOMA. 1 Ra, 20 Mnz aesK, UL Suotrame=2.7) CTET0D Tee +95% 10648 AMA_| GDMAZI00(1x Advanced) SoMRz000 349 +96% Toss2 AAD_| LTE—TOD (OFDMA. 5 Mz E—TM3.1, Cloping 489 LTeroD a91 +e5% 10853 AAD LTE—TOD (OFDNMA. 10 Wikic. E—TM 31. Gipping 44%) LtETOD 742 x08% Tosss Anp LrE—ro(OFoma, 15 Miz. E—TM 31. Gipping 4di) Ererop 690| zas% Certficate No: EX3—3832Fobtd Page 18 or 20

exsovs— sNisasz February 27, 2010 Tosss AAE_| LTE—TOD(OFDMA20 ViHz, E—TM3.1. Gipping 44%) trembo T2 206% 10666 AAA Puise Wavefom (200Hz, 10%) Test 1005 +96% 10660 AAA_| Puise Waveorm (200Hz, 20%) Test 69e +96% 10860 MA Fulse Waveform (200tiz. 40%) Tost 390 2e6% 10661 AAA Puiso Wavelom (200Hz. 60%) Test 22| +96% 10662 AAA Puise Wavelom (200Hz, 80%) Test osr +96% 10670 AAA_| Bluetootn Low Energy Sheioot 219 +96% Tosr1 AAA 1EEE a02.1 tax (20MHz, MGSO, S0pe duty excle) wow a0e +06% 10672 MA 1EEE 602.1 tax (20MRz, MGS1, S0pe duty cle) wom a5r £96% 10673 MA 1EEE 8021 Tax (20MERz. MGS2, Sope duty cycle) wokn a7e +96% Tosra AAA IEEE #02.1 tax (20Miz, MGS3, Sope uty eycle) worn a7+ +96% Tosrs w¥A 1EEE 6021 tax (20Miz, MGS4, S0pe duty cxcle) woky as0 +06% 10676 MAA IEEE 802.1 fax (20Miie. MCSG, O0pe duty yele) wokn a17 z06% Toor? AMA_| IEEE 802.tax (20MHe. MCSG, 90pe duty cyolo) wow a7s +96% Tosr_| AAn iEEE 802.1 tax (20Miiz, MCST, $0pe duty cycle) wow a7s +a6% 10679 AAA_| IEEE 802. Tax (20Miz, MCSB, $0pc duty cyce) WUsh sse +98% To6so us IEEE 8021 tax (20Mz, MGSO, Sope duty cxde) woay as ra6% Tose1 MAA 1EEE 802.1 tax (20MHz, MCS10. SOpe duly cyole) wow a62 +96% 105e2 AAn 12EE 802.1 tax (20Miz. MGS11, S0pe duty cyole) wows ass +a6% Toses Jn 1EEE 802.1 tax (RoMz, MGSO, #ape uty cyole) woay a42 +98% Tosea WA 1EEE 602 1 tax (20Miz, MGST, $ope duty cycle) wokn aze +06% 10005 AMA_| IEEE 802. ax (20Vide. MGS2. 9Gpc duty cycle) woay an rs6% T050b w0R 1EEE 802.1 tmx(PoMHz, MGSS. ve duly evce) wory peamiecrys Toser AAA 1E 802 1 tax (20MHz. MGSe. 9ope uty cyle) wow a45_| +96% Tosas WA 1EEE 602 1 tax(20Miz, MGSS, 99pc duty cycle) woan az ze6% 10688 AAM iEEE 02 1 fax (20MHz. MGSG, OGpe duty cyce) wow ass zas% 10690 AAA_| 1EEE 6021 ax (20MHz. MCST, SGpe duly cyde) wo a20 +96% 10691 AAA_| 166E 802.1tax (20MHz MCSB, ¥ape duty exce) woiw a2s +06% Toess AAA 1EEE 802 11x (ZoMHz. MGSo, Sope duty cvce) wown az s08% Tooas wA 1EEE 602 1tax (2OMz. MGS10. 9bpc duly cyole) wow a2% +96% Toses Amn 1EEE 802.1Tax(20MHz. MGST1. 9¥pe duly cyole) wory s5r +96% Toses JXA 1EEE 602.1tax (d0MHe. MGSO, $0pe duty cxcl) wow a7e +06% 10606 AMA_| iEEE 8021tax (d0Miiz, MCS1, 90pe auy cycle) worn a91 +96% 10807 AMA_| IEEE 802.1 fax (d0Mie, MGS2, 90pe duty cyole) wow a61_| +96% Toose AnA 1EEE 602. s (doMHe. MCSS, S0pe duty eycl) wow ase +96% 10808 AAA_| i€EE 802.tax (20Miz, MGSA, 90pe duty cycle) wosy aa> +96% 10700 AAA 1EEE 8021Tax (doMHe, MGSS, S0pe duty cyd wirs a75 x96% Torot AMA_| iEEE 802.1 tax (d0Viiz, MCS6, 90pc duly cyela) w aae +96% 10702 AA IEEE 802.1 tax (d0Miz, MCST, 90pe duly cyclo) wow a70_| +98% Yoros Aivs iEEE 802.1tax (d0Miz. MGSS, S0pe duty cycle) won as2 +96% Toroé MA 1EEE a0—1ax (doMH, MGSO, G0pe duty cycl) wokn a5e +96% 10708 MA IEEE 802.1 tax (d0Miz. MGS10, S0pe duty cyele) woan aee +e6% Tores AMA 1€€€ 80211ax (d0MHz, MGS1 1 S0pe duly cycle) wow see zesn Toror—| ANA iEa02.1tax (d0Miiz, MCS0, 9upe duy cyole) wow e3z «96% Toros AMA IEEE 802.1tax (d0Miiz, MGS1, 9Gpe dutycycle) wow a5s +98% Toron MA_| iEEE 802 1 tax (40Mir, MGS2, 9ope duty cycle) worn ass +e6% Torto_| AMA iEEE 602.1 tax (10Miz. MGS3, 99pe duty oyole) wow a20 +96% Torii_| AMA iEEE 602.1 tax (d0Miz, MGSA, Sope duty oycle) wokn as +90% Tortz_| Ana iEEE 002.1tax (d0Miz, MGSS, pe duty oycio) womn #or +96% Toris—_| MA 1EEE 602 1 tax (doNriz, MCS Gpc duty crole) wowy ass +95% Yoria MA 1EEE 602.1 tax (10Mz, MGS7, 99pe duty oycle) wowy h26 +06% Toris As 1EEE 8021Tax (10Mz, MCS, Sope duty crcle) wo aas_| +00% Torie AAA 1EEE 802 1 t (doMz, MGSo, #ape duty crele) woan a30_| +96% Tori7_| AAR 1EEE 602 1 tax (dONMiz, MGS10. 96pe duty cycle} wow aas +96% Tori® AMA 1EEE 602.1 tax (d0Miz, MGS11. 9Ope duty cycle) woay sa +06% Torie AMA 1EEE 802.1 tax (BOMz, MCS, $ove duty cxde) wow as1 +06% Torzo AnR i€EE 0e 1 tmx (BobMz, MGST, Sope dutyeycie) wowe aar +06% Torz1 AMR 1EEE 602 1 tax (BoMHz, MGS2, G0pe duty cxde) wow h76 £96% 10722 AM\_| iEEE 002.TTax (B0Miz, MGS3, OOpe duty cyclo) wow ass +s6% Torza AnA 1EEE a02 1 tax (BobMz, MCSé, Sope duty cxce) wow a70_| +96% Torzs MA IEEE 802.1tax (BoMiz, MGSS, S0pe duty cycle) wow s90 +o6% Toras AM._| 1EEE 802 1 fax (BOMHz, MGSS, 90pc duty cycle) wow a7e +96% Torze MAA 1EEE 8021tax (B0MHz, MGST, S0pe duty cyce) wosy a72_| +96% Tora7 AMA_"| IEEE 8021tax (@0Mir, MCSB, 9Ope duy cyole) woky ase +06% Certficate No: EX3—3832_Feo19 Page 19 of 20

Page 50 of 78 Report No. OT-19O-RWD-036 EMC-003 (Rev.2) ONETECH Corp.: 43-14, Jinsaegol-gil, Chowol-eup, Gwangju-si, Gyeonggi-do, 12735, Korea (TEL: 82-31-799-9500, FAX: 82-31-799-9599)

oneTechH Calibration Laboratory of g. Sewalamrincher Kaltrdignnt Schmid & Partner q Service suisse otslanrage Engineering AG Servirio sviezero d tarturm (Imaghauasttanse 43, 8004 Zurich, Swtzeriana S smies cabration Sarvice Accredited by ine Sm Accrndiaton Svicn (SAS) Acsteciation Na. SCS 0108 The Swies Accreditalion Eervice is one of the aignatories tothe EA Muilateral Agreementfor he tecognition of callration certfieston chen BVKorea (Dymstec) Cerificas Ho: D900V2—10080_Apr19 CALIBRATION CERTIFICATE Ooea DS00V2— SN:1d060 Caltraton orocedients) OA CAL—O&M1T Calibration Procedure for SAR Validation Sources between 0.7—3 GHz Caltration cate: April 25, 2019 "This calbraton cerificale documentsthe tracoabity t nationalstandards, which realce the physicaunits of measurements (SD. The measirements and the uncertainies wih confddence probabily are given on thefolowing pages and are par of the corticat. Allcalbrations have been conduted in the closed laboratory facit emvronment temperatur (22 2: 3)°C and humi iy <70%. Calbration Equipment used (M&TE crticalforcalbraton) Primany Standards n« Cal Date (Cortfcate No.) Scheduled Cabration Power mater NRP Sic rourze 08—Apr—19 (No.217—o2sc202e09) Apr2o Poner sensor NRP—291 sn: rosas 08—Apr—18 (No.217:o0000) Aprco Power sensor NRP:291 stt rosess 08—Apr—10 (No.217.00009) Apezo Reference 20 0B Attonuator shtsose 209 0t—Apr—19 (No.217.00804) Aprzo Type—N mismatch combinaton SN:5047.2/06027 Ot—Apr9 (No.217.02805) Aprzo Raference Probe EX3DVs sn: rom 31—Dc—18 (No. EX3—7340 Decto) Dec—t9 oaee stt sor o1—0s—18 (No. DaE&—s01_Oott8) cce Socontiry Starcarts n« hvekpute (h noun Sehocue Ghack Fomet mewEaavon h aenssieets 01—00—i5 in nowe deak Feb im In house chadts 0ct20 Powe sensot P B1A Sn Uoaresersa Or0cets (nhoime ce Do—in) in heuse chack: Oct20 Pomer sansor 1 manta an Meravoeiy f—omds (howecneck Oc in héuse chicks Octia AF giwals hss Sit.0s sn roo02 1dum15 j house shock Gct—10) in houw chic Gcrad Hotvon Analyzor Aglent Eesidh s Lsetoanity SiAAanta nbousncbeckOctt) in nouw check: oottm Name Furction Galbvatod by Gausio Leatier Caboratary Techician Avormed by Kaie Poiovie Techrical Mirager eE tssued: Apri 25, 2019 This cltation cotfinie shal not b eproduced except in ul wthout wtten appravalof taboratory Certfcate No: DS00V2—18069_Apria Page 1 of8

oneETECH N# Page 52 of 78 Report No. OT—190—RWD—036 Calibration Laboratory al S¢hnwnisuriachor Kaltderdionst Schmid & Partner Servicw suisus dtisionnage Engineering AG Seevitia svizzero ditaraturn Zoughousstraase 63, 9004 Zurich, Sultzertand Swias Gallation Service Acereates ty the Swits Accrediilan Bervice (5A5) Acereaiatios No: SCS 0108 The Swizn Actraditaion Servico is one of he aignatories to the EA MuillatoralAgrosmant for the recegnition af calliration cerifcates Glossary: TSL tissue simulating liquid ConvF sensitivity in TSL / NORM xy,z NA 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, "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 c) IEC 62209—2, "Procedureto 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" Additional Documentation: e) DASY4/5 System Handbook Methods Applied and Interpretation of Parameters: * 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. * 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. * Feed Point Impedance and Return Loss: These parameters are measured with the dipole positioned under the liquid filled phantom. The impedancestated is transformed from the measurement at the SMA connector to the feed point. The Return Loss ensures low reflected power. No uncertainty required. * Electrical Delay: One—way delay between the SMA connector and the antennafeed point. No uncertainty required. * 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%. Certficate No: D900V2—14069_Aprid Page 2 of 8 EMC—008 (Rev2) ONETECH Corp.: 43—14, Jnsaegol—gil, Cnowa—eup, Gwanglu—s, Gyeonggi—do, 12738, Korea (TEL: 82—31—709—0500, FAX: 82—31—700—0500)

oneTecH Measurement Conditions DASY system coniquration, as far as not given on page 1. DASY Version Dasys vse.102 Extrapolation Advanced Extrapolation Phantom Modular Fiat Phantom Distance Dipole Conter — TSL 15 mm with Spacer Zoom Scan Resolution d dy, dz =5 mm Frequency 900 Mz « 1 MHiz Head TSL parameters The folowing parameters and calculations were applied Temporature Permittivity Conductivity Nominal Head TSL parameters 220 °C a15 0.97 mhoim Measured Head TSL parameters 20 02)°C 41626% 0.94 mhoim 26 % Head TSL temperature change during test <05°C SAR result with Head TSL SAR averaged over 1 om" (1 g) of Head TSL Condition SAR measured 250 mW input power 2.68 Wikg SAR for nominal Head TSL parameters normalized to 1W 1.0 Wikg # 17.0 % (kx2) SAR averaged over 10 em" (10 g) of Hoad TSL condition SAR measured 250 mW input power 1.72 Wikg SAF for nominal Head TSL parameters normatized to 1W 7.01 Wkg 2 16.5 % (k=2) Body TSL parameters The following parameters and calculations were applied. Temperature Permittivity Conductivity Nominal Body TSL paramoters 220°C sso 1.05 mho/m Measured Body TSL parameters 220 +02)°C 53626 % 1.04 mhoim £ 6 % Body TSL temperature change during test <o5°C — SAR result with Body TSL SAR averaged over 1 em(1 g) of Body TSL Condition SAR measured 250 mW input power 2.76 Wikg SAR for nominal Body TSL parameters normalized to 1W 11.1 Wikg 2 17.0 % (k=2) SAR averaged over 10 cm‘ (10 g) of Body TSL condition SAR measured 250 mW input power 1.79 wig SAR for nominal Body TSL parameters normalized to 1W 7.17 Whkg £16.5 % (kx2) Certficate No: D900V2—10069_Aprid Page 3 of 8

oneETECH Nt Page 54 of 78 Report No. OT—190—RWD—036 Appendix (Additional assessments outside the scope of SCS 0108) Antenna Parameters with Head TSL Impedance, transtormed tfeed point soon—31jn Retum Loss —80.0 48 Antenna Parameters with Body TSL Impedance, transformed to feed point a710—s0j0 Return Loss —24.5 0B General Antenna Parameters and Design [ Electrical Detay (one direction) 1411 ns After long term use with 100W radiated power, only a slight warming of the dipole nearthe 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—circuted for DC—signals. On some ofthe 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 Conditons® paragraph. The SAR data are not affected by this change. The overall dipole length is stil according to the Standard. No excessive force must be applied to the dipole arms, because they might bend or the soldered connections nearthe feedpoint may be damaged. Additional EUT Data Manufactured by Speag Certficate No: D900V2—14069_Aprid Page4 of 8 EMC—008 (Rev2) ONETECH Corp.: 43—14, Jnsaegol—gil, Cnowa—eup, Gwanglu—s, Gyeonggi—do, 12738, Korea (TEL: 82—31—709—0500, FAX: 82—31—700—0500)

onETECH N# Page 55 of 78 Report No. OT—190—RWD—036 DASY5 Validation Report for Head TSL Date: 25.04.2019 Test Laboratory: SPEAG, Zurich, Switzerland DUT: Dipole 900 MHz; Type: D900V2; Serial: D900V2 — SN:14069 Communication System: UID 0 — CW; Frequency: 900 MHz Medium parameters used: £= 900 MHz; 0 = 0.94 S/m; £, = 41.6; p = 1000 kg/m‘ Phantom section Flat Section Measurement Standard: DASYS (IEEE/IEC/ANSI C63.19—2011) DASY52 Configuration: * Probe: EX3DV4 — SN7349; ConvF(Q.61, 9.61, 9.61) @ 900 MHz; Calibrated: 31.12.2018 * Sensor—Surface: 1.4mm (Mechanical Surface Detection) * Electronics: DAE4 Sn601; Calibrated: 04.10.2018 * Phantom: Flat Phantom 4.9 (front); Type: QD 00L P49 AA; Serial: 1001 «_ DASY52 52.10.2(1495); SEMCAD X 14.6.12(7450) Dipole Calibration for Head Tissue/Pin=250 mW, d=15mm/Zoom Scan (7x7x7)/Cube 0: Measurement grid: dx=Smm, dy=Smm, dz=Smm Reference Value =65.71 V/m; Power Drift=0.01 dB Peak SAR (extrapolated) = 4.10 W/kg SAR(I g) =2.68 W/kz; SAR(IO g) = 1.72 We Maximum value of SAR (measured)=3.61 W/kg —2.40 —4.80 7.20 5.60 12.00 0 dB =3.61 Wikg = 5.58 dBW/kg Certficate No: D900V2—10069_Aprid Page 5 of 8 EMC—008 (Rev2) ONETECH Corp.: 43—14, Jnsaegol—gil, Cnowa—eup, Gwanglu—s, Gyeonggi—do, 12738, Korea (TEL: 82—31—709—0500, FAX: 82—31—700—0500)

OnETECH Nt Page 56 of 78 Report No. OT—190—RWD—036 Impedance Measurement Plot for Head TSL 900. 000000 MHz 50 872 C1 7 57 793 pF 3.05989 C) 00 000000 MHz 31.577 mU "s —72 350 ® ChilAug= K Chi: Start 700.000 MHz stop 1.10000 CHz 8000 ivlHz —30.028 d8B Certificate No: DB00V2—1d069_Apr19 Page 6 of 8 EMC—003 (Rev.2) ONETECH Corp.: 43—14, Jinsaegol—gil, Chowol—eup, Gwangju—si, Gyeonggi—do, 12735, Korea (TEL: 82—31—799—9500, FAX: 82—31—799—9599)

onEeTEcH DASY5 Validation Report for Body TSL Date: 25.04.2019 Test Laboratory: SPEAG, Zurich, Switzerland DUT: Dipole 900 MHz; Type: D900V2; Serial: D900V2 — SN:14069 Communication System: UID 0 — CW; Frequency: 900 MHz Medium parameters used: £=900 MHz; 0 = 1.04 S/m;s = 53.6; p = 1000 kg/m‘ Phantom section: Flat Section Measurement Standard: DASY5 (IEEE/EC/ANSI C63.19—2011) DASY52 Configuration: * Probe: EX3DV4 — SN7349; ConvFQ®.78, 9.78, 9.78) @ 900 MHz; Calibrated: 31.12.2018 * Sensor—Surface: 1.4mm (Mechanical Surface Detection) * Electronics: DAE4 Sn601; Calibrated: 04.10.2018 * Phantom: Flat Phantom 4.9 (Back); Type: QD 0OR P49 AA; Serial: 1005 * DASY52 52.10.2(1495); SEMCAD X 14.6.12(7450) Dipole Calibration for Body Tissue/Pin=250 mW, d=15mm/Zoom Scan (7x7x7)/Cube 0: Measurement grid: dx=Smm, dy=Smm, dz=Smm Reference Value = 60.75 V/m; Power Drift = —0.00 dB Peak SAR (extrapolated) = 4.08 W/kg SAR(L g) =2.76 W/kg; SAR(IO g) = 1.79 Wikg Maximum value of SAR (measured)=3.67 W/kg [d 0 ~2.20 ~4.40 —6.60 a1.00 0 dB = 3.67 Wike = 5.65 dBWikg Certficate No: D9OOV2—1d060_Apri Page7 of 8

OnETECH Nt Page 58 of 78 Report No. OT—190—RWD—036 Impedance Measurement Plot for Body TSL 400 000000 MHz 47 .098 §] 35,503 pF ~4.9010 ©1 10.000000 MH2z 5§ 797 m —117.29 * Ch 1 Augs 20 e e Chi; Stast 700000 MHg —— Sbig 1.10000 OHe 800 400000 1 —24, 540 dB Certificate No: D900V2—10d069_Apr19 Page 8 of 8 EMC—003 (Rev.2) ONETECH Corp.: 43—14, Jinsaegol—gil, Chowol—eup, Gwangju—si, Gyeonggi—do, 12735, Korea (TEL: 82—31—799—9500, FAX: 82—31—799—9599)


Document Created: 2019-10-31 01:29:15
Document Modified: 2019-10-31 01:29:15
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