SAR Report Part 3

FCC ID: JOYJA53

RF Exposure Info

Download: PDF
FCCID_4183024

_U Dt&C _ _ Exsove— sh:asse May 31, 2018 T0506— LTE—ToD (GCFDOMA, 100% R8, 10 x a7o miar 79 223 soo £96% Aac NMHz, 64—QAV, UL Subrame=234.7.8.9) — y s2r case 606 200 z 342| erse 1655 80.0 10509— LTE—TOD (SCFDMA, 100% RB, 15 xX 615 oi zis 223 soo £96% AaC MHz, OPSK, UL Subframe=2,3.4.7.8.0) y sze sare 1670 200 2z 300| sase i7ar 80.0 10510— LTE—TOD (SCFDNMA. 100% RB, 15 xX s17 mios iess 223 soo £96% AC MHz, 16—QAM, UL Subtramo=2.94.7,8.0) y |_see sare 1630 so0 2 381 6752 1671 80.0 T0511— LTE—TOD (GCFDVA, 100% RB, 15 x sis rosr fsss 225 soo 296% mc MHz, 64—QAM, UL Subtramo=2.34.7.8.0) v |_s7o sass 1629 200 z |_see orse 1668 800 Tost2— LTE—To(GCrom®, too% Re, 20 x 72 Toas rm2s 225 800 £96% AnC MHz, OPSK, UL Subtrame=2.3.4.7.8.0) y |_s5o sass 1692 so0 z 380 Tiie 1772 so0 Tos13— LTE—TOD (SCFOMA, 100% R8, 20 X s14 Tim 89e 225 s00 £96% Anc MHz, 16—QAM, UL Subtrame=2.34.7.8.9) y 35e saer 1e3 so0 z 370| sres 1627 200 Tosta— LTE—TDD (SCFDMA, 1oo% RB, 20 x so5 ross fase 225 800 £96% AnC Mriz, 64—OAM, UL Subtrame=2.34.7.8.0) y sez saer 1629 500 z |_ar6 sr3i 169 s0.0 10515— IEEE 802.1Tb Wiri 24 Ghz (DSSe, 2 x o1 ss0s feas 000 1500 £96% AMA Mops, 99pe duty cycie) y oss azse 1425 1500 2 |_oss size 1532 1500 Toste: |iEEEBOZTTWEZ4GHz(DSSS.55 x a06 102 si2s 000 isno 290% AM Mops, 9Bpe duty cycle) y |oss 7zer 1eat 1500 z o2 Tess i2 1500 Tost— |leeEBuzTWm24GHz(DSSS. 11 x ose se40 1839 ooo isn0 296% AAA Mops, 99pc duty cycie)_ y |_oar si8r fa7i 1500 z oss sasr 1630 1500 Tosts— ieeEBoztianwinsGiz(OrDM,a x «87 8707 1651 odo ts00 296% Ans Mops, 99pc duty cycie) y |_azs sare 1604 1500 2z a21 orie 1620 150.0 fosts: |iEeEBOZTianWirsChz(FDM, 12 X 489 sr3s 1664 odo i500 196% ans Mops, 99pe duty cycie) y aar saar ts 1500 7z 145 sr3s 1633 1500 Toszo— |iEEEBOZTianWinsGhz(OFDM, 16 X 474 or36 ies on0 1500 296% as Mops, 99pe duty cycle) v| 4z sos 1604 1500 2z |_as1 or 28| 1620 150.0 Toszi— |iEeEBoZTianWirsGhz(OFDM. 24 x ase er30 i6890 on0 is00 £96% Ans Mbps, 99pe duty cycle) y 1e sea1 eor 1500 2z |_a2s srze 1620 150.0 Tosse. |lEEEBO2TanWRSGHz(OFDM. 36 x a72 sra4 isei ono 1500 296% Aas Mops, 99pe duty cycle) y |_az sass fenn T500 2| a2z0 sras 1033 1500 Cortficate No: EX3—3866_May18 Page 30 of 39 inrnrovnvane wompng « nere ons wiaing repris im w roe mepnvnes

D Dt&C EX3DV4~ SN:3866 May 31, 2018 10523 IEEE 802.112h WiFi 5 Giz (OFOM, 48 x 4.60 6727 16.49 0.00 150.0 290 % me Mops, 99pc duty cycle) Y 414 6o.93 16.03 1500 2 423 6741 16.28 150. 10524— EEE 802.11ah WiFi 5 Griz (OFDM, 54 x 4.67 67.30 16.60 0.00 150.0 196 % ma Mops, 9pe duty cycle) Y 447 6o.00 16.17 1500 2 425 6733 16.3 1500 10525 IEEE 802. 1ac WiFi (20MHz, MGSO, x 463 66.35 16.20 0.00 150. £06 % AnB 9Ope duty oycle) Y 4.20 65.00 15.74 1500 $ 429 6648 15.97 150.0 10526— 1EEE 802. 1tac Wii (20MHz, MGS1, xX 484 66.77 1634 0.00 150.0 1£96% AnB 90pe duty cycle) Y 432 66.28 15.85 150.0 z—|a41~|_sera_| 1608 1500 10827— 1EEE 802.1tac WiFi (2OMHz, MCS2, x 476 66.76 16.31 0.00 150.0 296 % And 99pe duty cycle) y |izs—| sz 1a7e m £ 4.34 66.73 16.08 150. 10528 1EEE 802. 1 1ac WiFi (20MHz, MCS3, xX 4.78 66.78 16.34 0.00 150. 206 % me 9ope duty eycle) Y 427 56.26 15.82 1500 2z |_a36~|sere_|_i6.06 1500 10520— 1EEE 802.1 1e WiFi (20MHz, MCS4, X 4.78 66.78 16.34 0.00 150.0 200 % ro 80pe duty cycle) Y 427 66.26 15.82 150. 2 436 66.74 16.06 1500 10831— 1EEE 802. Tac Wiri (20Mrz, MGSo, x 4.79 60.98 16.37 0.00 1500 190 % MB 99pe duty cycle) y i2 sz en 1500 Z|a32~|_sare 1604 1500 Tose2:~| T€EE 802 1ac win oNinz, MCST, x asa sass 1633 600 is00 206 % AAB 80pe duty cycle) [ y ag~—| sn ns Tson & 421 So.64 15.98 150. 10533 IEEE 8021 1ac WiFi (20MHz, MCSB, x 479 66.80 16.32 0.00 150.0 20.0 % Ae 89pe duty oycle) Y 427 60.34 15.83 150. € 436 6683 16.07 1500 10534 1EEE 802. 1ac WiFi (40MHz, MCSO, x 5.27 66.05 16.39 0.00 150.0 296 % AnB 90pe duty cycle) Y 483 66.25 15.90 150.0 2 490 6064 16.07 1500 10536 1EEE 802.1 12c Wiri (GOMHz, MCS1, X 5.34 66.90 16.3 0.00 150.0 196 % we 39pe duty cycle) ¥ 4.87 50.3 15.96 1500 z[ ass |_sere 162 1500 — 10536 IEEE 802. 1ae Wini (dOMHz, MCS2, X 22 67.00 16.38 0.00 150.0 196 % e 99pe duty cycle) Y 4.76 66.38 15.9¢ 1500 2 483 66.78 16.12 150. 10537— EEE 802. 1 Tac WiFi (#OMHz, MCS3, X 528 66.96 16.36 0.00 150.0 196 % ane 39pc duty cycle) Y 483 50.3 15.04 150. z[ 489| seze en 1500 10538 IEEE 802.1 1e Wisi (dOMHz, MCSA, x 5.38 67.00 1641 0.00 150.0 206 % ane 80pe duty cycle) Y 480 66.34 15.06 150. € 495 66.70 16.12 1500 10540— IEEE 802.11ac Wiri (40MHz, MCS6, xX 520 66.96 1641 0.00 150.0 296 % Ams $9pe duty oycie) Y 482 66.30 15.96 1500 2z a80 seer 642 1500 Gertficate No: EX3—3806_May18 Page 31 of 30 en e wwenwa se w £o ie se sagtny ww n raws w se reprs esw oo upprene cugee se uy

TD Dt&C EXGDVS— SN:3806 May 31, 2018 10501— 12BE802.—1ac Wini (dovinz, MGsr, X s2e ces i6ar one is0n 296% AAB 99pe duty cycte) Y 481 66.21 15.90 1500 2 4.00 66.62 16.07 1500 10542——| 1EEE 802.1ac Wiri (dowiz, McSs, x s4z seso fess o00 is00 +96% as 99pe duty cycle) Y 4.96 66.32 15.97 1500 2 5.03 66.60 16.13 1500 10543 IEEE 802.1 tac WiFi (dOMHe, MCSO, x 551 66.90 16.40 0.00 1500 296% ans 29pe duty cycle) y sos sead fe0r 1500 C 5.00 66.74 16.18 1500 10544— EEE 8021 tac WiFI (BOMHz, MCSO, x 5.55 66.9¢ 16.30 0.00 1500 206% AAB $9pe duty oyole) y ExH 6632 15.89 1500 & s2e |_sase 16.04 1500 10545— IEEE 802.1tac WiFi (GOMHz, MCS1, x 5.79 6730 1641 0.00 1500 296% AnB 99pe duty cycie) y 535 6677 16 07 1500 § EES 6704 16.18 1500 10546— IEEE 802. 1 tac WiFi (GOMHz, MCS2, x 565 6723 16.40 0.00 1500 £96% AnB 99pe duty cycle) ¥ 20 éeai 1502 1s00 2 527 sear 1607 1500 10847— 1EEE 802.1tac WiFi (BOMHz, MCS3, x 574 erze iea2 o0 is00 +96% Ans 99pe duty cycie) y |s20 sese 1897 T500 z [ss« coss 1611 1500 Tosis— IEEE 802.1tac Wisi (BoMHz, MCSA, xX s06 se10 1670 on0 is00 £96% Ans 99pe duty cycle) y |_sas orie_| 1625 1500 2| sas or42_| 1035 1500 10590— EEE 802.11ac WiFI (GOMiz, MCSG, X 5.07 67.18 16.38 0.00 | 1500 £96% And $9pe duty oycle) y |_sar soee 1603 1500 2z |_sar cose 1015 1500 Tosst— 1EEE 802.1tac Wisi (GOMHz, MCST, xX see sras 1636 O00 1800 296% Ans 99pe duty oycle) y s20 ssa1 1586 T500 z[ o26 core 1603 1500 1oss2. 1EEE 802.1 ac Wim (Bovinz, MGSe, x sse eros ieze on0 1500 296% And $9pe duty cycie)_ y si8 soas 1580 1500 2 |_s2ze soas 1606 1500 Tosss— 12BE 802.1Tac Wimi (boMnz, MCSo, x see er0s i63 On0 1800 +56% AAB $9pe duty cycie) I y |_s2e sose 1590 1500 z s30 sere 1605 1500 Tossd— IEEE 602.1tac Wii (160MiHz, MCSO, xX |saa~| erzo iear on0 is00 +90% mac $9pe duty cycle) _ y seo sses isso 1500 2 |_ses 6689 |_16.10 150.0 Tosss— 12E 802.1tac Wisi (roonz, MCS1, X so9 sre2 ies0 ono ts00 £98% MA $9pe duty oycle) Y 5.60 6608 16.06 150.0 2 |_s7a er19 1018 1500 Tosss— IEEE 802.1 tac Wisi(1GOMHz, MCS2, xX s10 eres 1680 ono ts00 £56% Mc $9pe duty oycle) y |_s73 seso en 1500 2 |_si7 or2s 1622 1500 Toser— 12BE802.1tac Wini (TooMnz, MCSs, xX es sre0 1ss1 on0 ts00 £96% Mc 99pe duty cycle) y |_see cos5 1608 1500 z s7a er20 1619 1500 Cortficate No: EX3—3866_May18 Page 32 of 39 en n ruvinywuces 10 oi sine sogyiny sn n raaus sn se repi imumwepese ns

D Dt&C exsove— sNtsacs May 31, 2018 Tos5s— IEEE 802Hac Wir(16oMnz, Mosé, x aid arm eer one fsoo £90% Mc 99pe duty oycle) y |_seo seer fel 1500 2z |_s7a |_or25 1624 1500 10560 TEEE 802 1ae wi(foownz, MGSo, X s1s sres iess 000 1500 £96% Anc 99pe duty cycle) y |_an sest io11 1500 2z |_sre |_sris_| fo2 1500 Toso1— 1EEE 8021 ae Wir(1ooMnz, MGSr, xX sos erer rese ooo is00 z96% AnC 99pe duly cycle) y |_sei sees fee 1500 z |_see |_or14 tozs 1500 10502— 1EEE 802. 1ac WiFi (100MFiz, MGS, xX 619 67.99 10.80 0.00 1500 190 % AnC $9pe duty cycle) v seo some 1622 1500 z on |_or3i_| 13 1500 Toses— IEEE 802.—1ae Wiri(foomnz,MGSo, x e4s ssse iess ons iso0 £96% Mc 90pe duty eycle) y |_seo soar Toir T500 2z se "|_cr2r 1628 1500 Tosss— leee 802114 Wini 24 GHz (DsSs— x aso eri0 iess o48 is00 £96% Ana OFDM, 9 Mbps. $9pe dutycyde) y |ase se72 fos Tso0 z |_aer _|_ormn 1632 1600 10565— IEEE 802119 WiFi 2.4 Gitz (DSSS— x 526 67.61 16.96 0.46 150. 196 % AMA OFDM. 12 Mps. 99pe duty oycle) y [_aza _|_orir 1648 1500 z |_as1 erse 1665 1500 Tosss— i2E 802.119 Wiri 2.4 Ghz (osss— x soe srd9 1680 oms is00 £96% AMA OFDM, 18 Mps, 99pe duty oycle) v asr soas 1oze 1500 2z |_ase |_or35 1645 1500 1osor— lEEE 802.119 Wini 24 GHz (DSSS— X| sis sres irir ods iso £96% AMA OFDM, 24 Mbps, 99pc duty cycle) v «62 oras 1670 1500 2z |_ase ors2 ioss 1500 Toses— iEEE 802.119 Wini 24 GHz (Dsse— x ase ori6 is2 od6 is00 296% AMA OFDM, 36 Mbps. 99pe duty oycle) y |_aas coo2 tos5 1500 2 |_as2 |_c0890_|_16.18 1500 Toses. ieE s02.119 Win 24 onz (oss: x sor erar w21 ons is0 £96% AAA OFDM, 48 Mbps, 99pe duty cycle) y |_4s1 sres 1081 T500 2z |_aso |_soo8 1708 1500 Tosro— ieE 802119 Wini 24 Ghz (SSS— x sn sr7r ini2 o4s ts00 +96% AMA OFDM, 54 Mbps, 99pe duly oycle) y |_a60 oras fozz 1500 2z |_ass |_org2 _|_10.90 1500 Toari— iE€E 80211b Wiri 24 GHz (Dase, 1 xX 180 aris iss 045 1300 £66% AMA Mops, 90pe duty oycle) y oso sses tz 1500 z |_i10 6i7s 16a1 1500 Tosrz— iEEE 80211b Wiri 24 GHz (SSS, 2 x 13s sens fens o4s ts00 £96% AMA Mops. 90pe duty cycle) y |_too |_saze T6or 1300 z[ in s54s 1602 1300 Tosrs iEEEsOZTTbWiriZ4GHz(DSSS.55 x 10000 15595 4255 040 1300 55% AAA Mops, 90pe duty cycle) y |_izs sasr Pror T300 z 29e saee zesi 1300 Tosra— iEEEa0zTTbWiriz4GHz(pess, 11 x 201 sose 2se8 od6 feon +90% AMA Mops, $0pe duty oycle) y |_i10 7oss 1ez 1500 2 izs 7asi i96s 1300 Certficate No: EX3—3866_May18 Page 33 of 39 bavme wwwapive ies 1smm sine wopgiiy uie e raunes w sn nmss uon aprprevan ons

_U Dt&C mm _ Exsove— sN:s806 May 31, 2018 Tosrs— 1EEE 602.119 wiri 24 GHz (DSSS— X are seso iess o48 1800 196% AMA OFDM, 6 Mbps, 80pe duty cycle) y |~a31 sear teto 1300 2 ase soet tozs 1300 Tosre— ieE a02.113 win 24 onz (DSS5— xX as1 sr0s ferr 048 1900 £96% AMA OFDM; 9 Mbps, 0pe duty cycle) y |_ase soss to20 1300 2 |a«1_| 605| t630 1300 Tosr— 1€EE 802. 119 wei24 onz (psss— xX soe arai fose 048 1300 £96% AMA OFDM, 12 Mops, 90pe duty cyclo) y 50| seso tese T500 2| asr srar iess 1300 Tosre— 1EEE 802.119 mri 24 Gnz (DsSs— X ass eres tror 048 1300 £96% AMA OFDM, 18 Mbss. 9Ope duly cycle) Y 442| oroo feas T300 2z a40 |_sras 1667 1300 Tosrs— 12E80211g We 24 Ghz (DoSe: x a70 sesr re3e o4 1800 296% AMA OFDM, 24 Mops. 90pe duty cycle) y |a15 sois fses 1300 2z 122 sese 1583 1300 Toseo— iEEE 802. 1ig Wiri 24 Giz (DSSS— X azs sear tear 48 1900 £96% AMA OFOM, 36 Mps. S0pe duty cyole) y |_a1s soir faat 1300 2| aze sost toss 1300 Toset— iEEE 802.119 wri24 onz (DSse— xX a8s5 arm in0i o48 1900 £96% AMA OFDM; 48 Mops, 90pe duty cycle) y az orie feas 1300 2z |_a40 orse fess 1300 Tosez— iEEE 802.119 Wiri 24 onz (DSSS— xX 465 sees fai6 o48 1800 196% AM OFDM, 54 Mops, 90pe duty cycle) y |aor ssse fese T300 2z |_ara cez 1958 130.0 toses— |iEEEBOZTiamWirSGHz(OFDM,6 X 478 6600 ise9 odé 1300 £86% AaB Mops, 90ps duty cycle) y |a31 soa fe0 1300 2 |ase cear 1028 1300 Toser |iEEESOZTanWmSGNz(GFDMe x 481 or08 1677 od6 1300 +96% Aas Mops, 90pe duy cycle) v 13 sese 1620 T300 2| 441 sros 1630 1300 Tosss: |iEEEBOZTanWmSGHz(OFDM 12 x 504 or41 1694 od6 1900 196% aas Mbps, 90pe duty cycle) y «50 saso fese 1500 2 457 6127 16.53 130.0 Tosss: iEEEBOZTianWrsGHz(CFDM. is x 4ss res iror ods tsnd +96% AAB Mops, 9Ope duty cycle) y 442| oros 1eas T500 z |_a40 oras 1667 1300 Toser. |iEEESoZTaMWFSGHz(OFDM.2¢ x 470 ce%2 ie3e ons fsoo 296% AnB Mops, 90pe duty cycle) y [ais sais 1963 T500 2| a2z2 sasr 1983 1300 fosss. |iEEEBOZTTamWrisGHz(GFDM,36 X 475 cer i6ar o4s isn0 200% AaB Mops, 90ps duty cycle) y a15 sair met 1300 2 |_a24 sase foss 1300 Tosse. iEEEBOZTTanWirisGHz(CrDM,48 x 4ss or.71 1704 o4 fs00 200 % AnB Mops, 90pe duty cycle) y |_ass orie foas T300 z 440| srse 1665 1300 Tosso— |IEEEBOZTahWmSGHz(OFDM.54 x 405 coes 1616 od6 1300 +96% Aas Mops, 90pe duty cycle) y |_aor ssse 1538 1500 2 a14 sez 1568 1300 Cortficate No: EX3—3000_Mey18 Page 34 of 39 inrnrovnvane wory nere ons wiaing repris im w roe mepnvnes

D Dt&C | | exsove— sn:ssee May 31, 2018 10501 1EEE 802.11n NT Nmd 20Miiz, x ass sess isfs ode fs00 195% ass MCS0, 8Ope duty oycle) __ _ y |_aa7 sese 1625 1300 2z |_ase |_seat 1642 1300 T002 122E 802.11n (HT Mxed, 20Miz, x |~si1 |Carar ieo1 ods 1200 208% aa8 MCSt, 90pe duty cycle) y |_aso some tose 1500 z |_ass |_er20 1684 1300 To59s— TEEE 802.11n (HT Mixod, 20Miz, x s04 er2s iee1 046 1300 £96% pro MCS2, 90pe duty oycle) Y 4.50 66.70 1621 1300 2z |_asr _|_er06_| 1638 1300 T0592——| 1EEE 802.11n (HT Noad, 20Miz, xX s00 ar42 iess ods fs00 296% ans MCS3, 9Ope duty oycle) y |_ase soso 1640 Tsoo 2z |_aes |_er26 1657 1300 T0595——| 1EEE 802.17n (NT Miced, 20Miz, x sos sr3e iess ode fso0 +90% AsB MCS4, 80pe duty oycle) y |_as> sese 1630 Ts00 2z |aso 6723 1647 1300 10506 1EEE 802.11n (HT Ned 20Miz, x s0o sras iss om6 is00 298% Ae MCSS, 90pe duty cycle) y «4s seat 1628 T300 z |_ase |_or18 1645 1300 10597— EEE 802.1tn (HT Mised, 20Mz, x 495 6732 16.77 0.46 1300 296 % ass MCSS, 80pe duty cycte) y_|_a40 _|_soor 1012 Tson 2 447 6704 16.30 1500 To598——| 1EEE 802.17n (HT Mxed. 20Miz, x ase sret 1707 od6 1300 208% me MCST, 90pe duty oycle) y |_aa1 coar 1043 1300 2z |_a4s er3e r661 1300 T0590— IEEE 802.11n (HT Miced, a0Miz, x |S5e ara0 i69z od6 1300 +95% As MCS0, 80pe duty oycle) y |sis ar02 ies T500 2z |_sieo _|_orz6 1660 1300 T0600——| 1EEE 802.11n (FT Mixed, 40Mz, x s76 arse ir1s od6 fs00 208% Lro MCS1, 9Ope duty oycle) v—|_s25| arse tass 1500 2z |_s2s |_sras 1668 1300 T0601— 1EEE 802.11n (HT Med, 40Miz, x ses er70 iro1 o6 1300 208% Ane MCS2, 90pe duty oycie) y |_sis |_aris fes7 T300 2z |_sio sr30 1665 1300 10602 1EEE 802.11n (HT Med, d0VMiz, x sn srer 1690 uds fs00 208% Ae MCS3, 90pe duty oyle) y sze sri7 teas T300 2z 62e eres 1653 1300 T0603——| 1EEE 802.11n (HT Miced, 40Miz, x sez same 1723 o46 fs00 £90% aa8 MCS4, 90pc duty oycle) y s3z arso 1es0 1500 z |_s3s |_sree 1685 1300 10604— IEEE 802.11n (HT Mixed, 40Miz, xX sso sras iess ons tsoo z96% As MGSS, 90pe duty cycle) y |_sz0 |_ari2 fase T300 z |_s21 arze iss3 1300 10605——| 1EEE 802.17n (NT Mived, 40Miz, x ses err1 ir0s od6 fs00 298% me MCSE, 90pe auty oycle) v |_san ar22 iess Teon 2 |_s2s _|_or40 1669 1300 To60s:—| 1EEE 802.11n (HT Mived, a0Viz, x s4r sr22 iess od6 1800 206% Ans MCS7, 9Ope duty cycle) y |so2 saes 1618 Tso0 2z sos cose 1027 1300 Certfcate No: EX3—3866_May18 Page 35 of 30 en e wwenwa se w £o ie se sagtny ww n raws w se reprs esw oo upprene cugee reviewy

D Dt&C | | Ex3DV4— SN:30se May 31, 2018 10607— IEEE 802. TTac Wini (2OVMTz, MCSO, X 477 seai feds oas 1900 125% ane 9Ope duty cycle) £ 432 65 80 15.09 1300 4 2z aso so30 fece 1300 10608— TEEE 802. Tac Wiri (2oViiz, MGST, x aso sars feso o4 1300 26% Ans 20pe duty oycle) Y 445 66.22 16.04 1300 2z |_ass coer 1623 1300 10608 1EEE 802.1ac Wiri (2oMz, MCS2, X a8s sess feas 48 1300 185% MB 90pe duty cycle) y |_ass conr 1554 1300 2 242| seas 16.04 1300 10810— 12E802. tac wini (@ovinz, MGS3, x ase seso 1662 015 1300 186 % AMB 9Ope duly oycle) Y 4.40 66.22 16.03 1300 z |_a4s sees fozs 1300 10611 IE€E 802.tTac Wiri (@oMiz, MCSA, xX ass soer feas o48 ts00 £96% Ant $0pe duty oycle) Y 431 65 99 1586 1300 2z |_aso _|_soat foos 1300 10612.—| 1EEE 802. tTac Wiri (2oMinz, MCSS, x asr ser fes2 o46 1900 £86% mns $0pe duty cycle) Y |_a3o_|_se10_| T588 1300 2z asr |_sost _|_toos 1300 10or3— 1EEE 802. Tac Wiri (2oMiz, MGS, xX 488 sess fea2 046 1300 296% ans Sope duty cycle) Y 429 65.90 15.71 130. 2z |_a3o sest foot 1300 10614— 12E802.Tiao Wini (2DMiz, MoSr, x 482 seer fess o46 1900 £95% ans 9Ope duty cycle) y |_a2r sezo 1602 1300 & 435 6562 1622 1500 10615 EEE 802. 11ac WiFi (2OMHiz, MCSB, X 4.85 66.40 1624 0.46 1800 206% Ane 9Ope duty cycle) T 430 65.77 15.58 1300 2z |_asr coi8_| 1579 1300 10616— EEE 802.iac Wiri (dOViz, MCSO, xX s42 ces fese 045 1900 196% Ans SOpe dutycycie) y |_ase |_se20 160 1300 & 5.01 6652 1622 1300 10617 EEE 802. tae Wiri (doMnz, MCS1. xX s4s coss fese o48 1800 £90% Ang 9Ope duty oycle) Y 5.00 66.32 16.13 1300 z sor |_soet 1ez 1500 10818 1EEE 802. 11ac Wiri (€OMHz, MCS2, x 538 67.04 1667 046 1300 296% Ans $Ope duty cycie) Y |_a91 s640| 1018 1500 2z dse cor2 1632 1300 10019 IEEE 802. 1ac WiFi (€OVHz, MCS3, X 5.40 66.83 16.50 0.46 1300 290% ans 80pe duty oycle) y |_ass sez feot 1500 z |_ase |_soor mod 1300 10620— IEEE 802. e WiFi (4OMHz, MCS4, x 551 66.02 16.59 046 1300 296% AnB $0pe duty cycle) y |_soo sez0 1606 1300 z |_soe |_seas to.is 1300 10621— 1EEE 8021 tac Wiri (dOMHz, MCSG, X 5.49 67.03 16.76 0.46 1300 20. % Ang 20pe duty cycle) y |_sor sese 1620 T00 z |_sor |_soes _|_to.40 1300 10622; IEEE 802.1ae Wiri (oHz, MCSo, xX s49 eris fesr 646 1900 £96% ane 20pe duty cycle) y |_soo es fesi Tsoo 2 5.05 66.75 16.43 1300 Certifcate No: EX3—3066_May18 Page 36 of 39 bavme wwwapive ies 1smm sine wopgiiy uie e raunes w sn nmss uon aprprevan e

D Dt&C | | Exsove— shrs0c6 May 81, 2018 10o25— IEEE 802. ac Wir: (doMMz, MCST, x se sari feds o45 isod 196% me S0pe duty oycle) y |_ase sae feor 1300 2z |_as: |_seze_| 1605 1300 10624— EEE 802t ac Wiri (40MHz, MCSS, x s5s soes feeo ods fsno £86% Ang $Ope duty cycle) Y |_sus sazs feiz 1300 2z |s1s soss toze 1300 10625 IEEE 802. 112 Wisi(dOMHz, MCS9, x s1 67.73 17.09 046 130.0 1296 % me SOpe duty cycle) y |_sir sase 1627 1300 2z |_s21 sess 1636 1300 10626 TEEE 802. 1 ac Wir: (BoMMz, MGSO, x ses sear fest ode fsod 286 % me S0pe duty cycle) y 520 sez 1608 1300 2z s3 sast 16.i7 1300 T0627— 1EEE 802. 1ac Wir: (@oMz, MGS1, xX sa1 srss 670 045 1900 £95% Ans $Ope duty oycle) f 551 co.83 16.32 1300 z se4 sr0s 1640 1300 T028 IEEE 802.1ac Wiri (BOMHz, MGSZ, xX s74 sroz feds 045 1900 £96% Ang $0pe duty cycle) y 52 sair 1697 1300 2 ss2 seas 1604 1300 T0628— TEEE 802.11ac Wiri (GOMHz, MCSS, xX se2 sros feas o46 1200 96% And $Ope duty oycle) y 53e sase foor 100 z |_sa1 sesr 16.10 1300 10630 T2E8021 tac Wiri (Boninz, MGSA, xX ear sase ir2s o46 1300 £90% ae SOpe duty cycle) y |_see srze 1647 1300 2z sso srse 1648 1300 10631— IEEE 802. 1ae Wiri (BOMHz, MCSS, xX 622 sas? trao 046 is00 £96% And S0pe duty cycle) y seo srao feza 1500 2z see sree 1ea1 1300 Toss2— TEEE 802. 1 1ac Wi(GoMz, MCSG, x sei srsi fes» o46 1300 +90% Ans $Ope duty cycle) y 55e |_sros fese 1500 2 5.55 67.20 16.5 1300 Toss— 1EEE 802.—tae Wiri (@oMHz, MCS7, x see srze fess o4s 1900 95% Asd $0pe duty oycle) y |_sa1 saze feor 1300 2z 536 seso 16.14 1300 Tossa— 12E802.1tac Win (BonMnz, MCSs, xX se2 srze 1670 045 1300 £96% Ap $Ope duty cycle) Y 53i seae 167 Tooo z |_s40 cesz 1631 1300 T06s5— 12BE 802.—1ac Wisi (BoMHz, MCSG, X seo sasr fear o4s ts00 £96% Ass $0pe duty cycle) y sis mas mat 1300 2z |_s2s sose 1558 1300 T05s6— IEEE 802. tac Wiri (TooNMiz, MCS0, x sos srzs ress 046 t900 £96% Anc $Ope duty cycle) y |_s72 sese 1e 1300 2 sre soss 1623 1300 Tossr— 12EE 802.—1iee Wisi (Toonz, MGS1, X e2n srei te7s 045 1300 £96% Anc $Ope duty cycle) y |_see sear fo2r 1300 z |_see srio_| 1635 1300 Tosss— I2EE 802.1tec Wisi (TooNnz, MGS2, xX 62e srar 1670 046 1900 196% Anc $Ope duty cycle) y |_seo sez 1627 Tsoo z seo sris 1636 1300 Certficate No: EX3—3066_May18 Page 37 of 30 en e wwenwa se w £o ie se sagtny ww n raws w se reprs esw oo upprene cugee reviiy

WDH&C_ m m m Exsove— sN:3808 May 31, 2018 fosse— |iEEESOZTiacWiri(ioomnzMoss, X 625 sre1 1677 046 1300 156% e 90pe duty cycle) y 582| sear to2e T300 z |_see |_sr0e 1636 1300 106d0— IEEE 8oZ TiacWiri(ioomnz, Mos4, x 620 6704 16.73 046 1300 236 % Ac $Ope duty cycie) y |_s77 sass fors T300 2| sat _|_sess 1623 1300 Tosst— IEEE 802.11ac Wini(160MHe, MGSS, x a2e sr40 fees o6 1300 £36% Arc 80pe duty cycle) y ser se7e fen8 1300 2z |seo _sese 1627 1500 10642— 12EE 802.tiae WiFi (160MHz, MCSG, ® 635 arre—| 1600 ods is00 295% AnC SOpe duty cycle) Y |_seo sror 1650 1300 z sor |_erzs 1650 1300 106d3— 1E€E 802. tTac Wiri (1ooMnz, MGSr, xX e16 sraz 670 ods fsoo 286 % mc SOpe duty cycle) y |_s7a sass 1620 1300 2z |_sr |_soar 1620 1300 106dd— TEEE 802. tac Wiri (160MHz, MCSB, x sar sant oi ods feuo +90% mc Sope duty cycle) y seo sast 1632 T300 2 |_sae sri1 1641 1300 10845— TEEE 802.Tc Wiri (1ooMnz, MCSo, xX ses saso w21 ods fsno 256% AnC 9Ope duty cycle) Y see sear 1632 1300 2z |_soe oroe 1036 1300 10616— LTE—TDD (GC—FOMA, 1 RS, 5 Mz, x dass 12570 4142 830 00 £36% AnD GPSK, UL Subtrame=2.7) y si2 sodt es so0 z oar seio 3232 so0 10607— LTE—TDD (GC—FDMA, 1 RB, 20 Viie, x sees i2a26 4116 930 600 £96% Arc GPSK, UL Subtreme=2,7) y |_7zo saze mois 600 2| s12 sas sr52 600 106d8— COMAZ00D (1x Advanced) x io2 seor fa71 one is00 255% AM y |_ase soce 600 1500 z |_o4s |_sa0e ase 1500 Toss2. LTE—TOD (OFDMA 5 ine, E—Tia.1, x a1 sase m7s 223 too +06% ans Clipping 44%) y 312 saae 1530 200 2| sz sere 1993 800 Tosss— |LTE—TDD(OFDMAfomHzE—TM31, X 4ss 8r60 irsd 223 800 £56% ma Clipping 44%) y |_an ssas 16a1 200 2z |_sa1 seos 1624 200 fossd. |LTE—TDD(OFDMAisvnzE—mM31, X 448 sr20 irs0 22 00 196% Ans Clpping 44%) y 37 seis 1589 200 z |_ses css 1628 200 10655— LTE—TDD (OFOMA, 20 MHz, E—TM3.1, X 483 6723 1753 223 80.0 £06% ans Clpping 44%) y sa1 esos 1604 soo 2z so1 6559 1632 ©0.0 10656— Pulse Wavelorm (200Hz, 10%) x foo0o f1e44 2e34 1000 500 +56% Am y 35e srse mad so0 z 108| sase 1278 so0 10859— Pulse Wavelorm (200Hz, 20%) X foooo i1ies 2609 689 600 +56% Am y |_zoo |_se2i a5s 600 z ase yose 1143 s00 Certficate No: EX3—3006_May18 Page 38 o30 incaicowiwone vonpiny sn ie ce wuine copen

D Dt&C Exsovs~ shse66 May 31, 2018 10660— Pulse Waveform (200Hz, 40%) x 10000 i1149 2473 398 80.0 £90 % AMA y |_a7s sror 612 so0 z |_7ss Tose is48 soo 10661 Puise Waveform (200Fiz, 60%) x foomo is1 2621 222 f000 296% AM Y 0.35 60.00 423 100.0 Z foo00 ssao is8s 1000 10662.— Pulse Waveform (200Hz, 80%) x roomo isai7 3081 o87 1200 £96% AMA y Zoar 2sz 2271 1200 2 oi so00 410 1200 * Uncertaintis determined using the max. devitionfrom linear respanse applying rectangulardistibution and is expressed for the square of the fild value Cortficate No: EX3—3806_May18 Page 39 of 39 m wewepive ies 1smm sine wopgiiy uie e raunes w sn nmss uon aprprevan couse

D Dt&C Calibration Laboratory of «09 . «u> . Sctweizerischor Kallbrerdienst Schmid & Partner ibewek § Service sulsse o‘italonnage Engineering AG Tatle Sarviclo svizzoro ditaratura Zoughausstrasse 43, 8004 Zurich, Swizerland m/f_\\\\‘v\ 5 suies Calivration Service Aceredted by the Swiss Accredtation Sarvico (GAS) Accreditation No.: SCS 0108 The Swiss Accreditation Service is one of the signatories to the EA Multlateral Agroement for trecognition of calloration cortficates Client DT&C (Dymstec) Gortficate No: EX3—3016_Apr18 CALIBRATION CERTIFICATE Object EXGDV4 — SN:3916 Galibration procedure(s) QA CAL—01v8, QA CAL—14.44, QA CAL—23./5, QA CAL—25.v6 Calibration procedure for dosimetric E—field probes Calitration date: April 25, 2018 "This caibraton certficate documents the traceabiity to nationastandards, which realze the physical unof measuromonts (S1 The meassrements and the uncerainieswih confidence probabiltyare gven on the folowing pages and are part o tcerticate. All caltrations have bean conducted n tclosed laboratory faciiy: environmont temperature(22 + 3)°C and humidiy < 70% Gallbration Equipment used (MATE crtalfor caltration) Primary Standards io Cal Date (Corthcate No) Scheduled Calbration Power meter NRP Sh: roarre 04—Apr18 (No. 2r7—orerprozera) Aoers Power sensor NRP—231 sh: rospse 0t—Aor18 (No. 217—02072) Aoce Pover sensor NRP—291 on roams o4—Ror—18 (No. 217—00573) Apere Reference 20 d Attenuator SN. 56277 (209) 04—Apr—1(No. 217.02002) Apcio Reference Probe ES2OV2 stt so18 30—Dac—17 (No. ES3—3013_Doct?) Dec.18 page sit soo 21—bec—17 (No. DAEA—050_Dect?) Dec—18 Secondary Standards © Check Date (in house) Scheduted Check Poer meter Ex4198 shtcnerzcoere 06—Apr—16 in house check Jun—16) in house cheoke Jun—18 Power sensorE412A snmvataseos? 06—Apr—16 in house check Jun—16) in house checks Jun—18 Pover sensor E4124 sn coottozio 06—Apr—16 in house check Jun—18) in house chocke Jun—18 RF generater HP B648C stt usasezuo1700 04—Aug89 n house check Jun—16) in house checke Jun—1 Network Analyzer HP 8753E SN: ussr3ost5 18—0ct.01 (n house check Oct17) in house cheok Oct—18 2 Neme Funcion Shnatlre Calibrated by: Claudo Leubler Laboratary Technician Approved by: Kata Pokove Issued: Apri 26,2018 This caltration centficate shal not be reproduced excoptin ful wthout wrtten approvalof the aboratory. Certficate No: EX3—3016_Apri8 Page 1 of 11 m www se w £o ie se sagtny ww n raws w se reprs esw oo upprene cuyee

D Dt&C | | Calibration i Laboratory of & > s Schwelzerischor Kallbreedienst Schmid & Partner . g Sorvice suisse détalonnage Engineering AG «5 Sorvizio aviezaro dltaratura Zoughausstrasse 43, 8004 Zurich, Swizerland Mn Swiss Calioration Service Acorediteby the Swiss Accredtation Service (SAS) Accreditation No.: SCS 0108 The Swiss Accreditation Service is one of the signatories tothe EA Multlateral Agreement for the recognition of callbration cortficatos Glossary: TSL tissue simulating liquid NORMicy,z sensitivily in free space Convr sensitivity in TSL / NORMy,z poP diode compression point cF crest factor (1/duty_oycle) of the RF signal A, B, C, D modulation dependent lincarization parameters Polarization « rotation around probe axis Polarization 8 8 rotation around an axis that is in the plane normal to probeaxis (at measurement center), Le., 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 Sid 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) 12C 62200—1, *, "Measurementprocedure 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) 12C 62200—2, "Procedure to determine the Specific Absorption Rate (SAR) for wireless communication devices used in close proximily 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: * NORVs Assessed for E—feld polarization 3 = 0 (f< 900 MHz in TEM—cel; 1 > 1800 MHz: R22 waveguide) NORMx,y,2z are only intermediate values, he uncertainties of NORMx.y,z does not affect the E—field uncertainty inside TSL (see below ConvF) * NORM(Axy,2 =NORMsy,z * frequency_response (see Frequency Response Ghart). This linsarization is implemented in DASY4 software versions later than 4.2. The uncertainty of the frequency response included in the stated uncertainty of ConvF. * DCPxy,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 characteristios * Axy.ziBy,z; Coyiz:Dxy.z: VRuyz: 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. * Conyand Boundary Effect Parameters: Assessed in flat phantom using E—feld (or Temperature Transfer Standard for f s 800 MHz) and inside waveguide using analytical feld distributions based on power measurements for {> 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 NORMxy,z * ConvF: wherebythe 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 isolropy); in a field of low gradients realized using a fat phantom exposed by a patch antenna. * Sensor Offset: The sensor affect corresponds to the offsct of vitual measurement canter from the probe tip (on probeaxis). No tolerance required. * Connector Angle: The angle is assessed using the information gained by determining the NORMs (no uncertainty required) Certifcate No: EX3—3016_Apri6 Page 2 of 11 en e wwenwa se w £o ie se sagtny ww n raws w se reprs esw oo upprene cugee reviy

D Dt&C Exsove — SNisote Probe EX3DV4 SN:3916 Manufactured: December 18, 2012 Calibrated: April 25, 2018 Calibrated for DASY/EASY Systems (Note: non—compatible with DASY2 system!) Certficate No: EX3—3016_Apri8 Page 3 of11 w werwepise s £o ie se sagtny ww n raws w se reprs esw oo upprene cugsecovercer

D Dt&C Exsov«— sN:sore Aprl 25, 2018 DASY/EASY — Parameters of Probe: EX3DV4 — SN:3916 Basic Calibration Parameters SensorX SensorY Sensor Z Une(22) Norm (gVi(Vim)) 056 047 052 £10.1% DCP (mv)" 06 101.3 598 Modulation Calibration Parameters w Communication System Name A s o o vr Uns" ds aBviy aB my (k=2) & ow x |_o0 00 10 ooo mas s5% v |_o0 o0 10 15e 2 o0 o0 10 1423 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%. The uncetainies of No XY.Z do not affect the E*feld uncertainy inside TSL (soe Pages 5 and 6. * Numerical aization paremeter: uncertainty not reauired * Uncertainy is determined using the max. deviation rom Incar response applying rectangular istrbtton and is expressod for the square ofthe field value Certficate No: EX3—3916_Apr18 Page 4 of 11 en n ns uons iss 10 oi sine smy unise e ras un sn ns inss w on wiprverens

D Dt&C EXGDV4— Shis016 Aprl 25, 2018 DASY/EASY — Parameters of Probe: EX3DV4 — SN:3916 Calibration Parameter Determined in Head Tissue Simulating Media Relative Conductivity Depth® Une £(Miz)® Pormitivity® (Sim)® ConvFX ConvEY ConvEZ Aipha® |__(mm) (ke2) 2450 292 180 772 772 772 ose 085 £120% 2600 29.0 1.9 751 751 751 osr o8 £120% 5200 26.0 466 5.38 538 5.38 0.35 180 £181% 5300 35.0 476 5.04 5.04 5.04 040 180 £131% 5500 356 496 5.01 s01 so1 0.40 180 £18.1% se00 35.5 sor 484 484 484 0.40 180 +181% se00 35.3 s2r 494 4.94 4.94 0.40 180 £13.1% © Erequency valldly above 300 MHz of : 100 MHz only applis for DASY w44 and higher0 Page 2), ele i is resticted o + 50 Miz. The uncertainy is the RSS ofthe Conunsertainty at callratin requency and the uncertaityfor the indlcated requency band. Frequency vality betow 300 MHz is 10, 25, 40, 50 and 70 MHz for ConvF assessments at 30, 64, 128, 10 and 220 Hz respectvaly. Above 5 GHiz frequency yalidty can be extended to : 110 MKe. " Atfrequencies below 3 GHiz, the valeity of issue parameters(s and a) can be relaxed to * 10% i iquid compensation formula is appled to measured SAR values. A frequencios above 3 GHz, he valdty oftssue parameters (t and a) is restrcted to % 5%. The uncertaint is e RSS of the ConvE uncertintfo indicated targottsoue paramaters * AlphalDapth are determined during callration, SPEAG warrantsthat the remaining devialon dutothe boundary effect after compensaton is always loss than 2 1% forequencies below 3 GHz and below + 2% fofrequencies betveen 3—6 GHiz at any ditance lrger than halfthe probe t diameterfrom the boundary. Certficate No: EX3—3016_Apri8 Page 5 of 11 en e wwenwa se w £o ie se sagtny ww n raws w se reprs esw oo upprene cugsec cmerer

_D Dt&C_ Ex3DVé— SN:3016 April 25, 2018 DASY/EASY — Parameters of Probe: EX3DV4 — SN:3916 Calibration Parameter Determined in Body Tissue Simulating Media 1(uia© P-?-:Ii:t'i‘:i:y' cm(‘sfl;::)""my ConvEX ConvEY ComvEZ_| Alpha® j{fl')u (E:;) 2450 52.7 1.95 769 769 789 0.36 0.90 £ 12.0 % 2600 52.5 2.16 742 742 742 041 0.90 +12.0 % 5200 49.0 5.30 4.66 4.66 4.86 0.50 1.90 £13.1% 5300 48.9 542 444 444 444 0.50 1.90 £18.1% 5500 48.6 5.65 4.23 4.23 423 0.50 1.90 £13.1% 5600 48.5 5.77 4.02 4.02 4.02 0.50 1.90 £13.1% 5800 48.2 6.00 431 431 431 0.50 1.90 +13.1% © Frequeney vallity above 300 Ntz of 2 100 itz only agples for DASY vé.4 and highor (5e0 Page 2), ise it is restrcled to : 50 MHz. The unceraintis the RSS f the ConvE: unsertinty atcallbration reguency and the uncertainy forthe indlcated frequency band. Frequency vality below 300 MHz s 2 10,25, 40, 50 and 70 Mz for Conve assessments at 30, 64, 128, 150 and 220 MHz respectvely. Above 5 Ghiz frequency yalldty can be extended to x 110 Mz * Atfequencios below 3 GHz,the valdtyof esue parameters (tand «) can be relaxed to + 10% i lould componsation formula is appled to messured SAR values. Afrequencies above 3 Giiz,the valityof ssue parematers (s and o)is resticted to 2 5%. The uncertinty is the RSS of the Gonv: uncertainty for ncicated targetssue parametors * ApralDepth are determined during calbration. SPEAG warrants that the remaining deviation due to the boundary ofct after compensation is always loss than + 1% forfroquencies below 3 GHiz and below 2 2% fo freguencies betwaen 36 GHiz at any ditance larger than hallthe probe tp iameter from the boundary Certiicate No: EX3—3016_Aprt8 Page 6 of 11 enemnirownwapie riws «smm wire sappyiiny sn n ce wune copen

D Dt&C ExsDV4— SN:3016 April 25, 2018 Frequency Response of E—Field (TEM—Cell:if110 EXX, Waveguide: R22) Frequency response {normalized) Uncertainty of Frequency Responseof E—field: £ 6.3% (k=2) Certficate No: EX3—3016_Apri8 Page 7 of 11

D Dt&C Ex3OV4— SN:3916 Apri 25, 2018 Recei ing Pattern (¢), 8 = 0° 1=600 MHz,TEM 121800 MHz,R22 a a > s 1* t y > i ® F * 1 * + as Biay u2t xs as us — m ~ A — sse hae .. & 3 > To £ To C * RolF] i m%l(z SC%Z flilfi}fl ES@HI Uncertainty of Axial Isotropy Assessment: + 0.5% (k=2) Gerificate No: EX3—3916_ Apri8 Page 8 of 11 bavme wwwapive ies 1smm sine wopgiiy uie e raunes w sn nmss uon aprprevan cugse e iwy

WO Di&C Exsove— SN3916 Aprl 25, 2018 Dynamic Range f(SARpeaq) (TEM cell , fevar= 1900 MHz) 1054 3 108 © 9 6 * 2 = 104 105 I I 423 1 T 10t 108 101 10 10 10 10 SAR {mWiemg] C C8] not compensated compensated & 2 && 108 102 101 10 101 toe 10 SAR [mWiems] not compansatec compersated Uncertainty of Linearity Assessment: £ 0.6% (k=2) Certficate No: EX3—3016_Apri8 Page 9 of 11

TD Dt&C Ex3OV«— SN:3016 Apri 25, 2018 Conversion Factor Assessment 1= 2450 MHz.WGLS R22 (H_con?) 1= 2450 MHz.WGLS R22 (M_convt) & i0 ; + ol Iapiirenfiiatersr ied ts gfrizzmmee e o# a) $ m s on s 0+ on ca im «im s wlz marne s wl a novines Deviation from Isotropy in Liquid Error (6, 9), £= 900 MHz Deviation 10 —08 0s 04 —02 0o 02 04 ce o8 1.0 Uncertainty of Spherical Isotropy Assessment: £ 2.6% (k=2) Cerificate No: EX3—3916_Apri8 Page 10 of 11

D Dt&C EX3DV4— SN:3916 April 25, 2018 DASY/EASY — Parameters of Probe: EX3DV4 — SN:3916 Other Probe Parameters Sensor Arrangement Triangular Connector Angle (*) 88.3 Mechanical Surface Detection Mode enabled Optical Surface Detection Mode disabled Probe Overall Length 337 mm Probe Body Diameter 10 mm Tip Length 9 mm Tip Diameter 2.5 mm Probe Tip to Sensor X Calibration Point 1 mm Probe Tip to Sensor Y Calibration Point 1 mm Probe Tip to Sensor Z Calibration Point 1 mm Recommended Measurement Distance from Surface 1.4 mm Certificate No: EX3—3916_Apr18 Page 11 of 11


Document Created: 2019-02-07 11:39:15
Document Modified: 2019-02-07 11:39:15
© 2024 FCC.report
This site is not affiliated with or endorsed by the FCC