SAR Report Part 3

FCC ID: BEJ14HK701G

RF Exposure Info

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FCCID_4031166

D Dt&C Exsovs— sn:seso Juy 26, 2017 10508— LTE—TD (GC—FDMA, 100% Re, 10 x 459 LX 19000 223 800 1+06% AB MiHiz,64—QA, UL Subliame=23.47.8.0) y sar| saat irao soo 2 |_a46 |_7oss fese so0 Tosos— Er—ToD (GC:FDNA, too% RB. ts x se3 Teas mast 225 oo £95% AnB Milz. GPSK, UL Sublrame=2.34.7.8.9) C 446 T162 1640 80 2| _sar 7aas fear soo 10510— LTE—TOD (SC—FDVA, 100% R&, 15 x 489 71A 1886 228 800 me Miiz, 16—tAUL 286 % Subttame=23.4,7,8.9) y «31| saer irss s0 2 |_asi _|_foss 830 s00 Tost1— tTE—Ton (GC:rouX. oo‘ RG, is xX as0 Toss 1870 225 s00 290% ns VHz, 6t—QAM, UL Subtreme=23.4.7.6.) y a3r se rar Eoo 2 |_a8a ~|saso 1849 soo Tosta:| tTE—toD (GCFonX. oo% RB, 20 x |a7s 7ear mar 225 soo £99% Bro Milz, PSK, UL Subtrame=2.3.,7,8.9) y |ass 7310 fase sos 2 |se2 |_rerr 2052 soo Tosts: LTE—ToD (GGFDNA toon ns20 X ass miee 1o7 225| soo 296% ane Mriz, 16—0A, UL Subtiame=2.3.47.8.0) Y 421 ESen 176 800 2 43 Ton 1847 800 Tosta: LTE—ToD (GC—roun, o% o. 20 X| 470 Toss fea2 225 800 £56% ane Mz 6+—OAM, UL Subtiame=2.347.8.9) Y 423 C648 17.50 800 & Chal 70.15 128 800 Tosts: |icccomtmwn24Gnz(ses.2 x i0s cass feir o00 is00 266% AMA Mps, 99pe duty cycle) y ose s2a2 aze iso0 2 |_ose 6349 tes7 100 Tosie |ieccanifewini24Gnz(pssS.55 x 136 ar70 zore o00 ts00 256% Ana Mops, 98pc duty eycle) Y 055 6695 1548 1500 2 062 Tose 1785 1500 Tostr— iEcc oor nb w24 Gnz(pess, 11| x ond eaas i77s 00 ts00 286 % AMA Mbps, 99pe duty excle) y |aso sais fase 100 2 |oss |saas isar 1500 Toste— iEcCBORTanwnSGnz(OroMa x 450 Grad| f6a9 600 ts00 286 % AMa Mops, 99pe duty excle) y 240| sez tss 150 7| 246 —|_seso 1620 1500 Tosts: iEEEGO2TTanwrisonz (roM, i2 x «or 6742 tose 000 1s00 290% AM Mbps, 99pe duty oxcle) Y 455 669 16.18 1500 2 462 67.00 1630 1500 Toszd: ieeEB02tranwris onz (orpM, 8 X ass ar40 iess G00 iso0 250% Ama Mops. 9pe duty eycte) Y 440 6685 1600 1500 2 448 67.0 1622 1500 Tosrr— |iEEEBOZTianWinsGnz(orDM.24 x «40 a740 tose 000 1900 290% Ama Mbps, 98pe daty excle) y is sess fear Tsoo 2 |_aa1 eros fe21 1500 Tosae iecEBoZtamwirison@ (orpw.as x «52 orse tesi 000 1900 295% AnA Mps, 9pe duty eyclo) Y 439 6e04 16.17 1500 £ 447 67.15 1631 1500 Cortficate No: EX8—3800ult Page 30 of 36 m wwenwapwwre £o ie se sagtny wire ne raws s inrepors esw uow uppizre cugeareve ies

D Dt&C Exsove— sNisou0 July26, 2017 Tosrs: icE BoztanwisGnz(oromas x 442 eras 1650 ooo iso0 +90% Ana Mbps, 9pe duty cyce) v |—ast seor 1607 1505 2| aar |_oros 1018 1500 Tosat— iEEESDZTaMWirSGHz(OrDM.5¢ x a4s ordd tose o00 tso0 £96% Ani ‘Mbps, 99pe duty cycle) v a3s sose fons 100 2| 442| er0e 1oar 1500 Toszs: 12eE e0z.tee win @oniic, MGso, xX 445| sese fe20 o0o tsoo z06% AnA 99pe duty oycie) y 130| se0p 1677 1500 2 448| seir 1989 1500 Tos2e— 1EEE 802. Ts Wini (Povinz, MGSt, xX ass sear ieas ono is00 z86% AMA 99pe duty eycle) y «40| seze 1589 1500 2| asr ces feo2 is00 Tosar= 1EEE 802.ttae W(ovine, MoSZ, x ass seas 1628 000 isoo 206 % wma 9ope duty cycle) y 442| cez 1585 1500 2z |_aso soas 1556 1500 Tosze—| 122E 802 teo Win (Poninz, MGSS, x asr seas ieai oco 1500 z86% Ani 99pe duty eycie) y 445| seze 1586 1500 2| «s1 sear foso 1500 Tosz5— 1EEE 8021 tas Wiri (@OVinz, MCSa, x asr sess rsar on 1500 £96% AMA 99pe duty cycle) y |—aas ceze fese Teas 2| ast cear foso 1s00 Tosar— 122E 802.tteo Win(Poviz, MGSe, xX ass sear ieai ooo is00 286 % Ani 99pe duty excl) y |_a40 seze 1986 1500 2| _ais sost 1589 1500 Tossz— iEEE 802. Ts Wini (Zovinz, MoSr, x ad2 comr 62e ono is00 r86% Ana 99pe duty eycie) y |_izs se | 1627 1500 2 |_a36 sean 1589 1500 Tosas— 1EEE 6021tae Wini (Zovin, MCSo, X ase seme reai Obe 1800 £95% Eo 99pe duty cycle) v|_aas cese tose 1so0 2z |_ass |_sost 1559 1500 Tosse: TEgE 802 t eo Win (€ONiNz, MCSO, x s10| seaz 1625 600 1500 286% Ams 98pe duty excie) y |aso sear es 1500 2| sos seat 1608 1500 T0s35— 1EEE 002. es Wiri (@OVi, MCS1. xX si5 sass fear one ts00 295% AhA 9ope duty cycie) y sor seas feot 1500 z[ sn _|_seer _|_te 10 1s00 Tosse: 122E e02.ttee win(@Ninz, MCSZ, xX sos sear f63s ano is00 ze6% Ana 9pe duty cycle) Y ass oaas tsse 1500 2z|_as0|_sees 1608 1500 Tosar—— i€EE e02.teo im (doNinz,MCSS, x so9 sear iea2 on 1800 206% Ana 9gpe duty cycie) y |_aso sear isar 1500 2| sor seeo 1606 1500 Tosde— 1EEE 002.1 tas Wini (dovinz, MGSa, xX si6 seen es Ono ts00 z86% Ama 99pe duty eycie) Y sas sead 1600 1500 2 sa2 soso ooo 1500 Tosio: 122E 502. 1 Te W(@OVinz, MGSG, xX s40 seso fese oto 1500 x95% Ama 9ope duty cycie) y «98| sese 1600 T500 Z—|_s0s sase 16.10 1s00 Certfcate No: EX3—3030_Jult? Page 31 of 38 m wwenwapwwre £o ie se sagtny wire ne raws s inrepors esw uow uppizre cugearar ces

D Dt&C Exsove— SN:s0z0 July20, 2017 Tosar— iE€E 802. e Win (ovinz, MGST, x s06 seeo feso ons fs09 £95% Ani 99pe duty cycle) v |_aor saze 168 1500 2 sos saas| fooe 1500 Tosiz— i€€E 02ttee win (@ovz, MCSS, x s23 seas fese ons 1500 £99% Ann 99pe duty cycle) Y 512| sose Toor 1500 2 |_s19 seor 16.10 1500 1o5td: 12E 8021e Win @oviz, MCSS, x s20 seas fear one 1800 295% AmA 99pe duty cycle) Y |_si9 sear ons 1500 z |_s2s case foi2 1500 Tosda— iEEE a02.tac Win(GoMz,MGS0, X S42 semo reze ons 1500 £95% AMA 99pe duty cyole) y 53e sear 1685 1s00 2| s3e ces roos 1500 Tosis 12EE 002ttee Win(Govinz, MGST, x sso arze reso One 1600 £95% Ana 9pe duty cycle) y |_sso sosz fem T00 2 |_see coss 1618 1500 To5db: 1EEE 602tee i(Boviz,NCSZ, xX s46 eros ieai onn 1500 £98% AnA 99pe duty oycie) y s3 sas 1586 1500 2 sz sar 1607 1500 Tosir: i€EE 002.1Tas in (Bovinz, NCSS, xX ss3| ari0 fea2 on0 1s00°| 290% AmA 99pe duty cycle) v—| ~sar| sees foor is00 z |_sa9 sose| t608 1500 Tosib 12E002.1tee Win (@oVinz, MCS4, xX s7o ari0 iess 605 1500 £99% AMA 99pe duty cycie) y sse arzs 1630 1500 2| sea arar 1639 1500 10550 1EEE 0021 tae Wiri (Bovinz,MCSo, xX s48 ari0 1ess 000 1500 £90% Ann 9pe duty cycle) Y 542 6608 1606 1500 z |_sas sose ion 1500 Tosst— 1EEE 802.1tae Wiri (Bovin, MGSr, x s49 er10 feao 00 1800 z35% Ani 90pe duty cycle) v |_sar sess ises 1500 2z |_sar_| seat 1606 1500 Tos52— i€EE 802.1 ts wini (@omnz, Mose, x s4s sees re2s ono 1s00 296% ama 9pe duty cycle) y |_sae sose 1ssr 1500 2 se sor foor 1500 Tosss— 12EE 802.1 e wini (Gowz, Moso, x ss0| sear reas ono 1800 296% Ana 9pe duty cycle) v |_sao seas isse 1500 z |_sa6 |_sazo teos 1800 Tosse— i€EE 602. tiacwin (1oo\inz, MGso, x sa2 erzi 1632 000 1500 290% Ama 99pe duty cycle) y |s7s sare 1603 1500 z |_s7e soss f6:t0 1500 Tosss— ieeE 60z.ttacwim reominz, Mcst, x ses ards 64 000 1500 £90% AMA 99pe duty cycle) y |_ses sase fode 1500 2 589 67.20 1021 1500 Tosse: i€EE feoztacWim reoinz.MCS2, X see ers2 645 000 1500 £90% AMA 99pe duty cycie) y se sros fere Tse0 z |_sor srze t62s 1500 Tossr— i€EE 1602.tiecwin 1eo\inz, MGS3, x a2 eras 142 000 1800 290% AnA 99pe duty oycie) v see sees fers 1500 2| ses srir 120 1500 Certficate No: EX3—380Jult? Page 32 0136 bvvoee wwenwapvwrse £o ie se sagtny wire ne raws s inrepors esw uow uppizre cugearevi ies

D Dt&C Exsove— sNi30s0 July26, 2017 Tosse— iEEE tov2.traewini(roouinz.MGsd, x sos srar iesi ooo is00 £90% Ana $9ve duty cycle) y |~see|sree| Toae isos 2z |ses |srar| 1620 1500 Toseo:~| 1EEE 1902.trae wini (rooumz, MGss, x s00 arae 1oas G00 1500 £90% Ana. 9gpe duty excle) y |sar sese foae T00 2z sez |arie_| to2e 1500 Tosei——| 122E 1e02.tiae wini reowme, wosr, x see sr40 i6s0 000 iso0 +50% Ana 9pe duty excle) v seo some 1620 1500 2 |_see ori 1028 1500 Tosez: iEEE too2.ttaewini(Tooie MGss, X se8 res ioed o00 1so0 £90% Ama 99pe duty excie) y |_see sras_| 1030 1500 2 |sse sra1 fean 1500 Toses— iEEE 1ov2ttaewini(roouia MCSs, X o05 sr5d 1652 on0 1sa0 +50% Am 99pe duty excle) y 535| sros 1622 T500 2 |_s00 6728 t630 1500 Toses— ie€es02 11 wini 24 Gne Dase— xX ase eras ree0 o4s 1800 296% Ama OFDM9 Mbps. 99pe duty excle) Y 472| sare fozs 1500 2z |_are |_sose 163 1500 Toses: iEeE 02119 Wiri24 onz Poss— x sos sres 1691 o6 1800 206% Ana OFOM, 12 Mops, 99pe duty cycle) v ass arar 1656 1500 2| aso srar 1650 1500 Toses: iegeso2 11 i2« onz oess— x ~asr arar i674 ons 1800 z08% Ama OFOM, 18 Mbps, 88pe duty cycle) y a7s orc2 rese 1500 2| ass or21 foas 1500 Tosar— iEee so2 119 Wny 2onz poss— x a21| arer is ons 1500 295% on OFDM24 Mops, $9pe duty oycle) Y 479 6745 1675 1500 2| asr sres 1685 1500 Tosee: 1eE 02 119 Wri24 onz (ose— xX a7r srar 650 ons isoo 258% Ana OFDM, 36 Mops, Stpe duty oyole) y |_ass se7e 1608 100 2 |_a7a |_sess 1625 1500 Tose0— ieee a02.—119 Wiri2.4 Gne (Dose— xX aso saie iz oa6 ts00 206% Ana OroM 48 Mbps, 29pe duty cycle) y a7s srar toms T500 2| ass srar fosr 1500 Tosro— Ees soz119 wni 2s onz poss— xX aso srea irie oas 1800 286% Ana OFDM, 5¢ Mops, $9pe duty cycle) y a7s oras fore tsod 2 |_ase|_ore0_| 1680 1500 Toart— iE€E ao2. 1 wiri2 4 onz (oss, 1 X 120 seeo ira o%s fs00 z96% ana Mbpe, 00pe duty cye) y ts sz foze Tsoo 2| 125 ssa0 feis 100 Toare: |iEccaoztibwriziGh2(bass,2 x is2 or77 irbs 046 1800 £98% Ama Mops, 9Ope duty cyce) y 120| sar 1oeo Too 2 127 sois iess 1200 Tars— iEcemo2tibWn2z4GHz(ass.s5 x 10000 forso 4841 045 1300 £99% Ana Mps, 9Ope duty excle) y 135 Tsz mar Too 2z |_aor gsss 2700 To Tosre— iE€EBoZTTbWiRZ4GHz(DSSG, 11 x 182 7eso 2291 045 1300 295% Ama Mops, $0pe duty cyole) y i2r san 1621 1800 2z 4s 7aer foot 1800 Certficate No: EX3—3030_Jult? Page 33 or 38 m wwenwapwwre £o ie se sagtny wire ne raws s inrepors esw uow uppizre cugear ze ies

D Dt&C Exsovs— shi3030 July 26, 2017 Tosrs. i€gE so2. 119 wini 24 onz fpsss— X| &s1 eros e70 ons foo s95% Ana OFDM, 6 Mss 20pe duty excie) v |_asr —|_sear 1630 Too z |aso—| cast reae 100 Tosre: ieE a02. 114 wini 24 on (psss: xX ass erzs 1679 045 1300 298% Ana OFD, 9 Mps. s0pe duty cycle) v |_ass seat 1630 Tos 2 |_ae |_er00| t6s2 1300 Toorr— ieee soz.tig wini 24 onz psss— xX ass aree iess o46 1300 299% Ama OFDM, 12 Mbps, 9Opc duty cycle) y |_an sros toss oo 2 |_azo |_ras foor 1800 Tosre: 1€EE an2119 wei 24 on(osss— X aga arge 1ror 046| 1300 £00% AMA OFDM, 16 Mbps, $0pc duty orcle) y |_ase erzi Tess Too 2 |_470 ara2 torg 1oo Tosro— i€€E eoz11 w24 onz psss— x a40 sass fese 045 1300 £99% AMa OFDM, 24 Mps, 90pe duty exce) v 137 sear fese 1500 2| 140 sass t607 1300 Tosso: i€ee so2119 wri 24 onz poss: xX ass seos feas o4s 1300 £95% Ama OFOM, 38 Mips, 90pe duty cxcle) y |_aa1 seas 1680 T00 z |_aso_| sazo_| 1609 1200 Toser— ieee so2 119 w2 onz oss— xX ass eres 1705 on5 fs00 £95% AmA OFOM, 48 Mbps, 90pe duty cxde) y ass orze fose es z |_ao1 _|_ora9| fore 1300 Tosse— ie€e o2119 wri24 onzSss— x a42 sass en o4s 1300 295% AMA OFDM, 54 Mbps. 90pc duty exce) y |_aze sen is 100 2 430| caso fost 1200 105sd— 1EEEOURtanWimsGnz(oroms x ae1 aros 1670 046| 1800 286 % Lo Nbps, 9Opc duty cxce) Y 451 6661 1630 1300 2z |_aso sasi foat Ew Tosss— ie€€avatianwrisone(oromMo x es ar20 to79 G46 1900 295% ama Mbps, 9Opc duty cyce) y 4s sast fese Too 2 |_as1 sroo fese 1900 Toses— iEEEBOZtTanWirisGHz(OFDW. 12 x ass arss iess o6 fsoo 206% Ama Mops, SOpe duty cycle) y |_an sros ress Ew z|_aro sras reor 1900 Tosse: iEccoratianwinsonz(romio x 474| arz4 tror o6 1800 286% AMA Mbps, 9Opc duty cyce) y as2 srai ess oo 2 470| era2"| i69 1300 Toser— iEEEa0ZtamwWiis GHz(OFDM. 24 x 449 sess i6s2 o46 fsno 256% AmA Mops, 9Opo duty cycle) v asr sear isse 1300 z| 446 soss t607 1300 fosss— iEEEODZTamWimSGHz(OrpM.s6 x ass coss iess od6 fsno 296% Ama Meps, 9Ope duty cxcle) y aa1 seas is80 1oo 2 450 66.70 1608 1900 Tosss— iE€EODRTaMWiSGHz(OrDM. 48 x es es i0s o6 tono 286% Ann Nbps, 9Ope daty cxcle) y |ass| srze fese Too 2 «s1 sra9 67e 1300 Tosed— 1EEE 02 fanwiis Gnz (OFDM.5¢ x 442 sees 1609 o46 1s0o 296% AnA Nbps, 90pe duty cycl) y 42e san iss Too z| 490 sese iss 1200 Cortficate No: EX3—3930.Jult? Page 34 of 36 m wwenwapwwre £o ie se sagtny wire ne raws s inrepors esw uow uppizre cugeareve ies

D Dt&C exsove— shis0s0 July26, 2017 Toset— 122E 602.11n T Wied, 20vinz, X| aro sris 679 ons fsoo 286% Ana MGSO, 90pe duty cycle) y ~aer sezo fear Tso0 Zz |_a7a cear iess 1900 | Tosez——| ieEE 80211n (it Moed, 20ez, x aot sras i6902 oas ts00 z08% AMA MCSN, 80pe duty cyde) v |a7o sroo fose oo 2 |_asr orig f6er 1200 T05dG— 1EEE 002.1 n (NT Med, 20Mnz, x ase eras re79 ods reno £96% AmA MCS2, 80pe duty cycle) y «71| saer i640 Too 2z «70| sros 1654 1200 Tosoa— 1EEE 802.11n (HMxed, 2oMhe, xX 4ss ersa iess o4s fano £98% AMA MCS3, 00pe duty oycle) y |_a7r sros 65e 100 2z 4ss erze 1661 100 Tosds— 12EE 802.11n (HNved, 20Mz, x ass erso fear ons 1s00 £95% Ana MGSé, s0pe duty cycle) y a7s orge 1eas Tso0 2 482| orzs ies 1800 Tosds: 12EE 802.11n (rir ho. 20me, X aze ers0 fear oas 1200 296% Ana MGSS, 90pe duty oycie) y as0 saso fear Ew z|_azs sr2ai 1661 1300 1050r—.— 1€EE 802.1 n (HT Med. 20Niz, x ars sras 1674 o4s 1soo x86% Ama MCSG, 90pe duly cycle) __ v|_as sose 1532 oo 2| «70| sr09| toas 1200 T05d6:— 1EEE 002.11n (hT Mxed, 2oiz, xX aze sres iros oas 1300 x35% Ama MGST, 80e duty cyle) y «s1 arn feai 1oo 2| aso era tove 1300 Tosod—| 1EEE 802.1 n (rt Mxe, soe, xX s40 eras reai o%s 1s00 £96% Ama MCSO, 90pe duty cycle) Y 534 6115 1664 1300 2| sze eree 1070 1200 T0500—— 1EEE 802.1 n (HT Med, doMiz, x as0 ore1 iros oas fs00 £96% AMA MGS1, 90pe duty cycle) Y ~sas orar ie78 Too 2| sas srss 1oas 1200 Tosot— 1EEE 802.1 n (hT Mxed. aovin, xX s4z sres i6ss oas 1sno z38% Ama MGS2, 80pe duty cyole) v| s3 sreze 1670 To z sso era2 forr 1200 T05dz:— 1EEE 802.1 n (AMxea, aonthz, x sse arir 6e5 oas tano #96% AMA MCS3, SOpe duty cycle) v sas srar isee 100 2| sst orse fore 1300 Tosud:— 1EEE 002.11n (hMved, sonine, xX ser sans 2s ons fsno 295% Ana MGRA, 00pe uty oyele) y se orer fess Tsoo 2 |_sse oree ir0e 100 T0806— 12EE 802.1 n (HT NMixed. doVic, X sar eree iros oas fs00 x95% Ana MGSS, 90pe duty oyclo) y |_sa1 sras 1677 100 2 545 6146 1682 1300 10605—.— 1EEE 802.1 n (hT Mixed. doNiz, x ss sr7e tor oas tan0 ze6% AmA MGSG, 90pe duty cycle) v|_sas sree 1e7e 100 2 |_sas "|_orse 1680 1200 10506 1EEE 802.1 n (hT Mad. oNiz, x s26 ari1 ree0 ods feno ze6% Ana MGST, S0pe duty cycle) y s2 sare fes oo 2| 52s seso 1640 1500 Certfate No: EX3—3080_Jult? Page 35 or 38 bvvoee wwenwapvwrse £o ie se sagtny wire ne raws s inrepors esw uow uppizre cugeacececes

D Dt&C Exsove— sN:sos0 July 25, 2017 Tosor— iegE eo2.tTecwin @onz, MCSn, x «62 sass 1647 oas 1300 299% Ana S0pe duty cycle) y is1 sant 1806 oo 2| ass sez 1620 1900 Tosos:—| i2E a0z.tac win(2onimz, MCS1, xX a70 sass 10e3 oa5 900 £80% Ama Sope duty cycle) y |_ase sasr fex 100 2 |_a10 _|_sas0 1635 1300 Toons: iEEE a02.rrecwin (eonmz, MGSZ, X as8| sarr 1647 o45 1300 190% Ama 50pe duty oycle) y iss sezo 1808 100 Z|_as« seas 1618 1300 10510: 1EEE 602. tec Win(rotMic, MGS3, X aua sems 1004 O46 ts00 £90% AMA S0pe duty oyole) y |_aso sase te20 Too 2 |_aso seeo tss 1300 10or1— 122E e02.ee win(rovinz, MGSA, xX ass sare tds 048 1900 £90% AMA 90pe duty cycle) y |_as2 seir foos 1oo 2z |_as0 seai 1620 1300 Tosta— 12E 602. ttee in (2ovinz, MGSS, xX ass seso fass o%6 1300 £99% Ama 90pe duty cycle) y |_as1 sez Teor Too z|_a61 sass fe2 1300 Tosrs: ieEE a02.ttec win (GoMiiz, MGSS, X ass sare 1e3 o%6 1300 299% Ani 90pe duty oycie) y ~a50| san nase es 2| «60| ses0| 16.10 1300 Toora: 1EEE 802. ec Wim oniz, MGSr, xX &s1 saso fess 045 1300 £99% Ana 90pe duty cycle) v |_aar sese io9 Too z|_ase sese 1635 100 Tosts:—| iEEE e0z.rree wim Goviz, MGSS, X &4 sess fezs o45 1300 2995% AmA 90pe duty cycle) y is1 sase 180 100 Z |_as0 sezs 1997 1300 Toste: 12EE 602.teo Win(oMiz, MGS0, x s25 seme iess ods fs00 £90% Ana 90pe duty oycie) y si5 sez fezs 1oo 2| s21 sasr 1634 1300 T0617— 12EE 802. hec Win(oNiic, MGST, xX s31 sror ies 045 1300 299% Ana 90pe duty oycle) y sz0 sase 1620 1200 2 |_s2r sara 1640 1300 Toote: 122E e02.hee Win(aovMric, MGSZ, xX s21 sros iesd o%6 1300 290% Ana 90pe duty cycle) y sn sase es Too 2| sa7 sere feaa 1300 Toato: 12EE 802. tiac win otMic, MGSs, xX s21 sees teso o%6 1300 £90% AM S0pe duty cyole) y sz sese fede 100 2z s18| sase 1625 1300 Toszo— i€EE 8021 es Wini (dVinz, MGS4, X s20 sess iess o4s 1300 196% Ama 90pe duty cyole) ___ y ~si9 sase tz Too 2 528 6658 1632 1300 Toazt— i€EE 002.1tae Win (doVin, MCSS, xX sa1 sro2 io ods 1500 £90% AM 30pe duty cycle) y 521| sass ear 100 2| sar sara 1652 1300 Toszz> 12E002ts W(dovine, MCSG, xX sar aris rea2 ons 1300 £90% Am 30pe duty cycle) y sz sess 1646 1800 2| s2r sass 157 1800 Cortficate No: EX3—3030_Jutt7 Page 36 or 38 bvvoee wwenwapvwrse £o ie se sagtny wire ne raws s inrepors esw uow uppizre cugear ce ies

D Dt&C exsove— sNis0so Juy 20, 2017 Toszs— 122E 602.1ee Win(doNiz,MCST, X si9 seer fs4s ons oo sa% Am 90pe duty cycie) ¥ sos sa1s raos Tsoo 2 se [ss 1622 100 Toaae: 1egE s02 tee win (aovmz, MGSs, xX ~sas case feso ox6 1800 £95% Ama $Ope duty cyde) y 2e caar foze Too 2 sar caor 1os8 1900 Toozs: 12EE 602. es win (aoNic, MGSo, x sea ords fess o%5 1300 £95% Ana 90pe duty cycle) y sao cass feas Too 2| sar |arie ie 1300 Tosze: 12E 802. 1ac Win(ooMHiz, MCSO, xX ~sso sear fea1 ons fsno z88% AmA 30pe duty excie) y sas se| 1o21 Too 2 se saes 1630 1500 Toszr—— 1€ge 602.Tiac win oouie, mos1, xX s sra9| te7s oas 1300 255% wna 90pe duty eycie) y se sase 1645 Tsoo 2 [ss oris 1es2 1800 Toaze— 1EEE 802.1 ee Win (BoViNz,MCS2, xX sse easo fe42 o4s fs00 za5% Am 80pe duty oycie) y sar cean reo8 Too 2| sse ces fe21 100 Toazs: 1EEE 602. t ec Win (GoMz, MGSS, xX se« eass reas ons 1300 £96% An 90pe duty cycle) y s5e ces feas oo 2 seo san foa2 1500 Tosso—| 122E 602.tee win(Goviiz, MGse, xX aes ca0s fass o4s 1300 295% ama $0pe duty cycie) y se oras 1ea 1soo 2| ses |orza tezs 100 Tosat—— 1EEE 802.1 tas Wiri (@Ovine, MCSS, x se sans iras ons reno se6% Ana 30pe duty cycie) v |_sao arse fear w 2| sar orge 1688 1300 Tossz: 1EEE 802.ttee wini (@ovin, MGSe, xX s7s sre0 fese o%s 1300 295% AM 90pe duty cycle) y sas orie 1ess T09 2| sn orza fe7 1500 Tosss— 12EE a02.1eo Win(Bolinz,MGsr, xX ~see on tase 4s 1300 295% Ama 90pe duty cycle) y sez casr fea Tsoo 2 |seo sass fost 100 Tosse: 128E e02. Nee winoiz MGSs, x ~ses sri8 tess ons ts00 288% Ana 30pe duty cycic) y [ss mss tss 100 2| ss0| saso f6a2 1500 Toass— 1EEE 002. 1e Wini (sovinz, MGSo, xX sas sess sse o4s 1en0 295% Aan 90pe duty cycie) _ y |_s3o sear fose oo 2 |_sas seir 1579 1200 Tosse— 1EEE 1602.ttee wii(reoviHic, MCSO, x sar er20 1ear 046 tooo £96% Ama 90pe duty cycle) y sao carr foze oo 2 594 6697 1638 1300 Tosar— iE€E tov2.tteewiri(iooMmic Moor, x 610 orse 1672 045 1900 £90% Am 90pe duty cycle) y es ora9 feas 1soo 2 |_sar or30 rese 1900 Tosas—— 1EEE 1802.ttae Wini (reouine, MCS2, x 611| or84 16170 045 1300 290% Ana 20pe duty oycie) y |sor ori2 feas Tsoo 2z |_sos srar t6s0 1300 Certfcate No: EX3—3080_Jult? Page 37 or38 bvvoee wwenwapvwrse £o ie se sagtny wire ne raws s inrepors esw uow uppizre cugearevi ies

W©Dt&C exsove— sNi30s0 Juy 26, 2017 Toeso. iE€E 1eo2.tteewin (reownz, Moss, X 605 arar fe7i ons 300 295% AnA 90pe duty cycle) Y |_sor oroz 1642 Tsoo z |_sos orai| io51 1300 106d0— 1EEE 1002.1 tae wiri (roomne, MCS4, X 08 era5 i604 48 1300 195% ESS 90pe duty cycle) y see se |®s 1oo 2 |_sos 6722 1645 1200 Tosit— iEE deb2fteeWiri(ioomi moss, x ois Grar ioe2 O46 1800 206% $Ope duty oycle) y |_sus saor 1638 Too 2| 610| o716| feas 1500 Tosip—| iE€E teo21tae wiri(roowne, MGSs, X o8 or0s t693 26 1300 295 % AMA 90pe duty cycle) Y so0 arzi ss5 1oo 2| s14 sra2 1e3 1200 Tosis— iEEE iGortracWi(eomnz Mosr, x o Gr31 fote 048 1900 265% Ama 90pe duty cycle) y |_ses sess 1ear 100 2 |ses 709| toas 1300 Tosts— iEEE obztmmewiri(ioomiz Moss, x oiz orer toss O46 1800 z86 % Am 90pe duty cycle) y ~sor arn fest oo 2| sos sras 1665 1300 Tosis: ie€E fovztmmewini(ioonizMCSs, X 628 erez i6ro o46 1800 296 % Ama 90pe duty cycle) y |ais oris foas 1500 2| 619| orse foso 100 Tosie:— LTE—ToD (GC—roMA1 Re, 5 he, X dane 1sair a4m4 a30 on £96% ac GPSK, UL Subtfame=2.?) y 12se forse ssis o 2z sees 1sbse asor soo Tosir— UTETOD (GC—FONM.1 RB. 20 Viiz, x sare i2rer aase 830 so0 195% we rst, UL Subtrame=2.7) T 1083 9905 3640 600 2| se 18300 a482 coo Tosds—— GDMAZO0D (ix Advanced) x os2 sess tass ono is00 298 % Ama y ose o2z oz Tsoo z oss sase fos1 1500 * Uncetainy is determinad using the max. devtion rom linarresponse appbingrectangular isocton and is expressed orthe sqvare o the field value. Certficate No: EX3—3030_Juli7 Page 36 of 38 Arerersr=ou iquieyioumur nsm wie vupyiny e nevaan w uns epen s

Report No.:DRRFCC1809-0098 FCC ID:BEJ14HK701G Attachment 2. – Dipole Calibration Data TRF-RF-601(02)160407 Prohibits the copying and re-issue of this report without DT&C approval. Pages: 95 /121

D Dt&C Calibration 1 Laboratory of S Schweizerischer Kallbrierdionst Schmid & Partner g Service suisse d‘étatonnage Engineering AG Servizio svizzoro ditaratura Zeughausstrasso 43, 8004 Zurich, Switzerland S swiss Calibration Service Aceredited by the Swiss Accredtation Service (SAS) Accreditation No.: SCS 0108 The Swiss Accreditation Service is one of the signatories to the EA Multilateral Agreement forthe recognition of callbration cortiicates Client DT&C (Dymstec) Cortificate No: D2450V2—726_Sep17 CALIBRATION — CERTIFICATE I Object D2450V2 — SN:726 Caltoration procedure(s) OA CAL—05.19 Calibration procedure for dipole validation kits above 700 MHz. Callbration date: September 19, 2017 This caltvtion certficate documents the tracoabiltyto natlonalstandards, which realiz tho physical uns of measuremonts (S1. The measurements and the uncertaintieswith confidence probabity are given on the folowing pages and are part ofthe cortficate. All alibrtions have been conducted in the clsed laborataryfacily: environment temperature (22 + 3)°C and humidity < 70%. Callbration Equipment used (M&TE criicalfor calbration) Primary Standards n« Gal Date (Conticate No.) Scheduled Calibraton Powor meter NRP sNt torze Oi—Ap—17 (No. 217—0z521/00502) Apers Power sensor NRP—291 shtrosese Ot—Ape7 (No. 217—02521) Apers Power sensor NRP—201 sit toomes O+—Ape17 (No. 217—02502) Apers Reforence 20 dB Attenuator s sose (20i) Or—Ape17 (No. 217—00508) Apers Type—N mimatch combination SN:5047.2/08027 O7—Apr—17 (No.217—02509) Apers Reference Probe EX3DV4 Sht roso 31—May—17 (No. EX3—7349May1?) May—18 oage Sit sor 28—Mar—17 (No. DAE4—601_Mart?) Marts Secondary Standards PB Chack Date (n house) Scheduled Check Power meter EPM—A42A shtcosresoro« 07—0ct—15 (i house check Oct—18) in house checic Oct—18 Power sensor HP 8481A sn: ussraczres 07—0ct—15 (in house check Oct—16) in house checic Oct18 Power sensor HP B41A sitMvatogest? 07—0ct15 (house chock Oct—16) in house chocic Oct18 AF generator RRS SMT—06 sn: tooure 15—Jun—45 (ihouse chock Oct—16) in house checic Oct—18 Network Analyzer HP 8753E sn: ussracoses 18—0ct01 (n house chack Oct—16) in house checic Oct—17 Name Function Signature Galibrated by: Joton Kastratl Laboratoy Techrican Approved by: Katja Pokovie Technical Manager /Z( %fi Issued: September 19, 2017 This caltration coricate shall not breproducad oxcoptin ful wihout writon approvalof tlaboratory. Certficate No: D2450V2—726_Sep17 Page 1 of 8 m wwenwapwwre £o ie se sagtny wire ne raws s inrepors esw uow uppizre cugeareve ies

D Dt&C . : Calibration Laboratory of o, Fu7 & Sohweizerischer Kallbrierdienst Schmid & Partner . Service suisse a‘étatonnage Engineering AG C semigsssnastomum Zeughausstrasse 43, 8004 Zurich, Suitzeriand 5. swiss Calibration Service Accredited by the Swiss Accreditation Service (SAS) Accreditation No.: SCS 0108 The Swiss Accreditation Service is one of the signatorios to the EA Multilateral Agreement for the recognition of callbration certifiates Glossary: TSL tissue simulating liquid ConvF sensitivity in TSL / NORM xiy,z N/A not applicable or not measured Calibration is Performed According to the Following Standards: a) IEEE Std 1528—2013, "IEEE Recommended Practicefor 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 800 MHz to 6 GHz)®, July 2016 ©) IEC 62209—2, "Procedure to determinethe 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 spacerto 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 impedance stated is transformed from the measurementat 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 antenna feed 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 normaldistribution corresponds to a coverage probability of approximately 95%. Cortificate No: D2450V2—726_Sp17 Page 2 of 8

D Dt&C Measurement Conditions DASY system confiquration, as far as not given on page 1. DASY Version Dasys vs2.10.0 Extrapolation Advanced Extrapolation Phantom Modular Flat Phantom Distance Dipole Center— TSL 10 mm with Spacer Zoom Scan Resolution dx, dy, dz =5 mm Frequency 2450 MHz + 1 MHz Head TSL parameters The following parameters and calculations were applied Temporature Pormittivity Conductivity Nominal Head TSL parameters 220 °C soe 1.80 mho/m Measured Head TSL parameters (22.0:02)°C 37.8 26 % 1.86 mhoim + 6 % Head TSL temperature change during test <0.5°C SAR result with Head TSL SAR averaged over 1 cm° (1 g) of Head TSL CGondition SAR measured 250 mW input power 18.3 Whkg SAR for nominal Head TSL parameters normalized to 1W 51.9 Wikg 2 17.0 % (k=2) SAR averaged over 10 om* (10 g) of Head TSL condition SAR measured 250 mW input power 5.22 Wikg SAR for nominal Head TSL parameters normalized to 1W 24.5 Wikg = 16.5 % (k=2) Body TSL parameters ‘The following parameters and calculations were applied. Temperature Permittivity Conductivity Nominal Body TSL parameters 220 °C 527 1.95 mho/m Measured Body TSL parameters (g2.0:02)°C 51.926% 2.04 mhoim +6 % Body TSL temperature change during test <05°C SAR result with Body TSL SAR averaged over 1 cm* (1 g) of Body TSL Condition SAR measured 250 mW input power 12.9 Wikg SAR for nominal Body TSL parameters normalized to 1W 50.3 Wikg = 17.0 % (k=2) SAR averaged over 10 om* (10 g) of Body TSL condition SAR measured 250 mW input power 6.05 Wikg SAR for nominal Body TSL parameters normalized to 1W 23.9 Wikg > 16.5 % (k=2) Certificate No: D2450V2—726_Sep17 Page 3 of 8 bvvoee wwenwapvwrse £o ie se sagtny wire ne raws s inrepors esw uow uppizre cugearevi es

D Dt&C Appendix (Additional assessments outside the scope of SCS 0108) Antenna Parameters with Head TSL Impedance, transformed to feed point s26 0 +4.0jn Retum Loss —26.6 48 Antenna Parameters with Body TSL Impedance, transformed to feed point 494 n +6.5 jn Return Loss —23.7 4B General Antenna Parameters and Design [ Electrical Detay (one direction) 1.160 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 antennais 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 stil 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 Manufactured on January 09, 2008 Cortiicate No: D24GOV2—726_Sept7 Page 4 of 8 bvvoee wwenwapvwrse £o ie se sagtny wire ne raws s inrepors esw uow uppizre cugearve ces

D Dt&C . : DASY5 Validation Report for Head TSL Date: 19.09.2017 Test Laboratory: SPEAG, Zurich, Switzerland DUT: Dipole 2450 MHz; Type: D2450V2; Serial: D2450V2 — SN:726 Communication System: UID 0 — CW; Frequency: 2450 MHz Medium parameters used: 2450 MHz; 0 = 1.86 S/m; &;= 37.8; p = 1000 kg/mJ Phantom section: Flat Section Measurement Standard: DASY3 (IEEEAEC/ANSI C63.19—2011) DASY52 Configuration: + Probe: EX3DV4 — SN7349; ConvF(8.12, 8.12, 8.12); Calibrated: 31.05.2017; + Sensor—Surface: 1.4mm (Mechanical Surface Detection) + Electronics: DAE4 Sn601; Calibrated: 28.03.2017 + Phantom: Flat Phantom 5.0 (front); Type: QD 000 P50 AA; Serial: 1001 + DASY52 52.10.0(1446); SEMCAD X 14.6.10(7417) Dipole Calibration for Head Tissue/Pin=250 mW, d=10mm/Zoom Scan (7x7x7)/Cube 0: Measurementgrid: dx=5mm, dy=Smm, dz=5mm Reference Value = 110.8 V/m; Power Drift = —0.06 dB Peak SAR (extrapolated) = 26.9 W/kg SAR(L g) = 13.3 W/kg; SAR(1O g) = 6.22 Wkg Maximum value of SAR (measured) = 21.0 W/kg ~4.00 —8.00 12.00 —16.00 —20.00 0 dB =21.0 W/kg = 13.22 dBW/g Cortificate No: D24GOV2—726_Sep17 Page 5 of 8

D Dt&C Impedance Measurement Plot for Head TSL 19 sep 2017 os:szine E2 sa i ues «sassee sou0a. 26284 oi 2 450.000 o0ltz $ R der c x; 153 L id enz si1__cos _s ceerer —20_as —25.531 00 2 s50.000 go0 iz __] "J Co C m __ 1 $sns dn —I $ 185 | l .L }— 4___. _ | _1 «44— .‘ 7 a_ _ _ _ } _0 mucecch... 1 [ _ o=4 ma| m i— 3+ o cn lde rastanies sropo e anfirgron s 1 eBh hn oanoniomnntonee I iremicmrarer Certficate No: D2450V2—726_Sep17 Page 6 of 8 bvvoee wwenwapvwrse £o ie se sagtny wire ne raws s inrepors esw uow uppizre cugsar e nes

D Dt&C . : DASYS Validation Report for Body TSL Date: 19.09.2017 Test Laboratory: SPEAG, Zurich, Switzerland DUT: Dipole 2450 MHz; Type: D2450V2; Serial: D24SOV2 — SN:726 Communication System: UID 0 — CW; Frequency: 2450 MHz Medium parameters used: f= 2450 MHz; 0 = 2.04 $/m; & = 51.9; p = 1000 kg/m> Phantom section: Flat Section Measurement Standard: DASYS5 (IEEEATEC/ANSI C63.19—2011) DASY52 Configuration: * Probe: EX3DV4 — SN7349; ConyPF(8.1, 8.1, 8.1); Calibrated: 31.05.2017; + Sensor—Surface: 1.4mm (Mechanical Surface Detection) + Electronics: DAE4 Sn601; Calibrated: 28.03.2017 + Phantom: Flat Phantom 5.0 (back); Type: QD 000 P50 AA; Serial: 1002 + DASY52 52.10.0(1446); SEMCAD X 14.6.10(7417) Dipole Calibration for Body Tissue/Pin=250 mW, d=10mm/Zoom Scan (7x7x7)/Cube 0: Measurement grid: dx=3mm, dy=5mm, dz=5mm Reference Value = 104.9 V/m; Power Drift = —0.08 dB Peak SAR (extrapolated) = 25.4 W/kg SAR(I g) = 12.9 W/kg; SAR(1O g) = 6.05 W/kg Maximum value of SAR (measured) = 20.3 W/kg ~4.00 —8.00 —12.00 16.00 —20.00 0 dB = 20.3 W/kg = 13.07 dBW/kg Cortiicate No: D2450V2—726_Sop17 Page 7 of 8


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Document Modified: 2019-09-21 21:32:57
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