SAR Report Part 4

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sussrva sArimo 6 CALIBRATION MEASUREMENT RESULTS 6.1 RETURN LOSS AND IMPEDANCE IN HEAD LiQUID Frecuercy ie mm io me me me mm me e mm mo sn «. Frequency (MH2) Return Loss (aB) Requirement (dB) Impedance 1000 238 20 sizn+edjn 62. RETURN LOSS AND IMPEDANCE IN BODY Lt ywas> mm s wo me me me mm e e mm me sn Frequency (MH2) Return Loss (0B) Requirement (dB) Impedance 1000 2022 20 asan+ 06 j0 63 MECHANICAL DIMENSIONS Frenuengy t tm ham dom required measued reautes measied requred memsred To asous meos asas io mons mers sns o veous wos asas as mons sin fenx Page: 11 m onbyortispermnet eporsitou einenappmnniarsarnto

xo moux ssun senx use | siax |_sirax sen» oo ssun soun snn 1e moux srax senx use mzux asun sez io roux arax senx o |_soux ns _ | ssan mss senx mss wso ssux ssux senx zo asax »sun senx mco |_aoux [ sszax senx zo ssux Reun senx mso asax sann seux zoo | assax | msax sen» so asux Bou senx o youn ann seux sre |_suax |zeasix sen» 7. vALIDATION MEASUREMENT The 1BBE Sid. 1528, OET 65 Bulletin C and CEVIEC 62209 standards state that the system validation measurements must be performed using a reference dipole meeting the fore mentioned return loss and mechanical dimension requirements. The validation measurement must be performed against a liquid filled fat phantom, with the phantom constructed as outlined in the fore mentioned standards.. Per the standards, the dipole shall be positioned belowthe bottom of the phantom, with the dipole length centered and parallel to the longest dimension of the flat phantom, with the top surface ofthe dipole at the described distance from the bottomsurface of the phantom: 7.1 HEAD LIQUID MEASUREMENT Te90000 nestvegermiaa(e) Contuayicls/m ns es se se xo assisn sarsx | s asex casx o assx on as assn forn se assn sarsa s asox mss e mass imax ies wrsx use ims wis wrex o aosy rsx e moss me nsz ne wso wousn Losx | ie aosx resx Page: 701

sar rererence piroue cauimation reront ne scnsmsuessrua SArIMg Bo sesn Lesx Eo sson fore zse prsn umssn zoo Bomn iess swo msion rosn o youn rosn 72. SAR MEASUREMENT RESULT WITH HEAD LIQUID The IEEE Sid. 1528 and CEVIEC 62209 standards state that the systemvalidation measurements should produce the SAR values shown below (for phantom thickness of 2 mm), within the uncertainty for the system validation.. All SAR values are normalized to 1 W forward power. In bracket, the measured SAR is given with the used input power. Sovare Lormsanys Phanom | s 200 sau Probe | s ram Eroine Liqud | Head Ligud Valo:eps .1 sgme 1e Disunce Bdipole cencrand Iqud |100 mm es sexn resoluton ZoonScan Resoluion 1 1 Erequerey | roco nitie Tnput power |20 im Liqud Tenpantue lz tab Temperure Es Eab Homidiy in hy 1e snn wheni 10 sn whani reared measured reauired measued xo zis is o ase 20e To ais sss as ase on xo ws sn rso » i o Sos e ie a> ra uzo sa w3 uo sa zox io 7 paps| zs mzce wso ws Eo zo as aa mco as as 2o @7 as Pase: u11 Thicenent utnthe mtc cors n it o s par, uon he ies eppmnnlo t7100 etieviteor parutour tm agpenniefstrito — 20 4c — —

1 marc m s 73— BODYLIQUID MEASUREMENT Fequeny tastve permintaiy) Contuctity )5/m m reaured _|_memured reautred messued 150 asiss 300 siaiss serisn ssnsn ssun sseisn srsn somn soun somn sesn sisn sisn mss mss Sssm srsn ssm ussm mesn womn Ssn momon ssomon is mon se zon w7zon sss mox Page: 911 Ti cemee i nthe nc curn n it o in par uon he eienapprnalofSeTI4O The bfornsionconhothivfaesibeactonl foth permae w uht iutniic onen » indetorpar nioavarte sppralofSiTI0G

sar rererence piroue cauimation reront neacemanessrua assuon ses ow assuon srzon azzon soozion 74 SAR MEASUREMENT RESULT WITH BopY LiQUID Soare ornsanye Phanom sn 200 saumt Probe si tm Eroins Liqud Hody Liqud Valoew opy 512 sgma: 150 Disunce benrcen dipole cencr and Iqud 100 mm Jres seanresluion emtam Zoon Scan Resoluion dctmnidytmteSam Erequerey ooo se Tnput power 20 dim Liqud Tenpantue ri°c tab Temperure mc Tab Homidiy iss hegs 1e snn wheni 10 sn whani messued maasued o exu ascu Page: 1001 Tiintc se ho nptcnt ecpin it n ipan oo h uen approntoSeTIHO Tiebormioncomnctho hi ihe mc sl o h parausets ind on na o otievlteor oruthon eitencpprnetofStTIHO

sar rererence piroue cauimation reront ner onz nesaron 8 LIST OF EQUIPMENT Equipment Summary Sheet beenpton ‘moget_ |Wentifetti0® N®.) CapmrationDate \——mie SAM Phaniom Saime snzompsamr; fildated Nocal Vaiteed No cal [EonosaR TestBench] vemons x ypyr0e pas o 4 Network Anayzer Rhode&Schware amioorse varors vereore Calpers | Carrera cauperot teros | taro1e Reference Probe Satmo EPorze SN tont 102018 102016 Mulimeter Keiiey 2000 reseso Teroo Terve Signal Generator | Aglent E44380 myasorose1 teros | tarore Ampiter Actecomn ues |enealen ences Power Meter ho EcattA ussszsta08 122013 122016 Power Sensor | Hp EoP—E20A ussristac0 122013 | 122016 brectonal Couprer| Narda 421620 on efi fasas. TempamWeand ContolCompany 116619 srore seore Pase: 1in1 Ti cemee inthe nc curn n it o in par uon he eienapprnalofSeTI4O The bfornsionconhothivfaesibeactonlfoth permae w uht iutniic onen bevduetoi or un vitontwrim sppevalorsirido

SAR Reference Dipole Calibration Report Ref: ACR.287.8.14.SATU.A SHENZHEN LCS COMPLIANCE TESTING LABORATORY LTD. 1F., XINGYUAN INDUSTRIAL PARK, TONGDA ROAD, BAO‘AN BLVD BAO‘AN DISTRICT, SHENZHEN, GUANGDONG, CHINA SATIMO COMOSAR REFERENCE DIPOLE FREQUENCY: 2450 MHZ SERIAL NO.: SN 07/14 DIP 2G450—306 Calibrated at SATIMO US 2105 Barrett Park Dr. — Kennesaw, GA 30144 100172015 Summary: "This docament presents the method and resuls rom an ac d SA refirence dpolecalibntion performed in SATIMO USA usig the COMOSAR testb All callbutionreslts are rncestle to national metlogyinstrions

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sfi%i TABLE OF CONTENTS 1. Introduction a 2. Device Under Test a 3. Product Description a 31 Cieneral Information a 4. Measurement Method 4.1 Return Loss Requirements 42— Mechanical Requirements 5. Measurement Uncertainty 5.1 ReturmLoss s 52— Dimension Measurement s 53— Validation Measurement s 6 Calibration Measurement Results 6 6.1 Returm Loss and Impedance 6 62— Mechanical Dimensions 6 7. Validation measurement 7 7.1 Head Liquid Measurement 7 72. SAR Measurement Result With Head Liquid 7 73— Body Liquid Measurement o 74 SAR Measurement Result With Body Liquid o List of Equipment n Page: 311 Tiicenent ol nhe rpoact ces s on pr, uhn theetenapprnelofSaTIY0 The nrnato conuinet t h med l j e paronh uh i ataindd inn derdantiaetorpar nthoarte sppralofSI0G

s sar rererence piroue cauimation reront ner on nere nesaron 1 INTRODUCTION This document contains a summary of the requirements set forth by the IEEE 1528, OET 65 Bulletin C and CEVIEC 62209 standards for reference dipoles used for SAR measurement system validations and the measurements that were performed to verify that the product complies with the fore mentioned standards 2 DEVICE UNDER TEST Device Under Test Device Type COMOSAR 2450 MHz REFERENCE DIPOLE Manufacturer Satimo Model stp24so Serial Number SN 0774 DiP 20450—306 Product Condition (new / used) New A yearly calibration intervalis recommended: 3 PRODUCT DESCRIPTION 3 GENERAL INFORMATION Satimo‘s COMOSAR Validation Dipolesare built in accordance to the IEEE 1528, OET 65 Bulletin C and CENMIEC 62209 standards. The product is designed for use with the COMOSAR test bench only Figure 1 — Satimo COMOSAR Validation Dipole Pase: 411 Ti cemee inthe nc curn n it o in par uon he eienapprnalofSeTI4O The bfornsionconhothivfaesibeactonlfoth permae w uht iutniic onen bevduetoi or un vitontwrim sppevalorsirido

sArimo 4 MEASUREMENT METHOD The IEEE 1528, OET 65 Bullerin C and CBEUIEC 62209 standards provide requirements for reference dipoles used for system validation measurements,. The following measurements were performed to verify thatthe product complies with the fore mentioned standards. 4.1 RETURN LOSS REQUIREMENTS The dipole used for SAR system validation measurements and checks must have a retur los of 20 dB or beter, The return loss measurement shall be performed against a liquid filed flat phantom, with the phantom constucted as outlined in the fore mentioned standards. 42— MECHANICAL REQUIREMENTS The IEEE Sid. 1528 and CBVIEC 62209 standards specify the mechanical components and dimensions of the validation dipoles, with the dimensions frequency and phantom shell thickness dependent, The COMOSAR test bench employs a 2 mm phantom shell thickness therefore the dipoles sold for use with the COMOSAR test bench comply with the requirements set forth for a 2 mm phantom shell thickness s MEASUREMENT UNCERTAINTY All uncertainies listed below represent an expanded uncertainty expressed at approximatelythe 95% confidence level using a coverage factor of k—2, traceable to the Intemationally Accepted Guides to Measurement Uncertainty. 5.1 RETURN LoSS The following uncertainties apply tothe return loss measurement: Frequency band Expanded Uncertainty on Return Loss 400—6000MHz | o.l ds 52— DIMENSION MEASUREMENT The following uncertainties apply tothe dimension measurements Length (mm) Expanded Uncertaintyon Length 3300 | 0.05 mm 53. VALIDATION MEASUREMENT The guidelines outlined in the IEEE 1528, OET 65 Bulletin C, CENELEC ENS0361 and CEVIEC 62209 standards were. followed: to generate the. measurement uncertainty for. validation measurements Sean Volume Expanded Uncertain Ts 203% 10e 201% Page: 511 Tiicimet ulnthe rprica ues n it on par uon he en apprnalorSeTit0 Thenrrnaioncoous ine metoals ie parp o nc o miiedantinm wiicorpetniton enterappenalofSatida

SATIMo 6 CALIBRATION MEASUREMENT RESULTS 61— RETURNLO AND IMPEDANCE Fecueng Aite mo un un me me mm mm sn ma a Frequency (MH2) Return Loss (aB) Requirement (aB) Impedance 2450 2s 20 «190—09j0 62— MECHANICAL DIMENSIONS Frequency is tmm ham dm requied measured reauted meaured reauted measured xo acoun Booun ssan aso mooun merax ssan o veoux monx ssan as monx sen seun xo moux ssun seun use sinx srax seux oo msux smoun seux 1e moux srax soux use manx asun seun 1soo roux arax seun w soux psun seux use ssux msun soun zooo asax un seun 2oo aoux zux seux zo ssux Reux soun mso ssax mss sanx mss seun mss zoo asax msun seux s asax Boun soun se you manx seun se sax ranx seux Pase: 611 Tiicenent ol he rpoact ces s on pr, uhn theetenapprnelofSaTIY0 The bfornsionconhothivfaesibeactonl foth permae w uht iutniic on en derdantiaetorpar nthoarte sppralofSI0G

sarimo 7. vALIDATION MEASUREMENT The 1BBE Sid. 1528, OET 65 Bulletin C and CEVIEC 62209 standards state that the system validation measurements must be performed using a reference dipole mecting the fore mentioned return loss and mechanical dimension requirements. The validation measurement must be performed against a liquid filled fat phantom, with the phantom constructed as outlined in the fore mentioned standards.. Per the standards, the dipole shall be positioned below the bottomof the phantom, with the dipole length centered and parallel to the longest dimension of the flat phantom, with the top surface ofthe dipole at the described distance from the bottomsurface of the phantom: 7.1 HEAD LIQUID MEASUREMENT Feegs fastve permitaiy(e) Contuctity )5/m reared measured reauired measued xo ssun sarsx | io assn sarsn To assn cessn as assn ssosn xo assn sorsn use ason esn io masn erp 1e mrsn orp use misn wrax io womn esn io womn rosx wso momn Losx zo womn esn zo mssn resx zo psun in mso prsn mss Lun | ns zo pomn iessn se sn zesn ssoo youn mssn 72. saR MEASUREMENT RESULT WITH HEAD LiQUID The IEEE Sid. 1528 and CEVIEC 62209 standards state that the systemvalidation measurements should produce the SAR values shown below (for phantom thickness of 2 mm), within the uncertainty for the system validation.. All SAR values are normalized to 1 Wforward power. In bracket, the measured SAR is given with the used input power. Sotare omsacy Pranio sn 2om sanm Probe s mu roue Tiqua Ned Liuid Valies ope :390 mm 17 Disancs beween diole eonernd qo 100 mm Jn sesnresouron dctmndy Page: 711 Ti cemee inthe nc curn n it o in par uon he eienapprnalofSeTI4O The nrnato conuinet hi t h med l j e paronh uh i ataindd inn bevduet oi or un vitontwrim sppevalorsirido

(h .A SATIMo sar rererence piroue cauimation reront ne sn ies Zon Scan Resoluron ditmnidy—tmite—Sam Erequeney 2usovtie lnput power 20 dim Liqud Temperatre 2i °C Lab Temperaure 21 °c Lab Humidiy is Feaueny o 1e snn wheni 10 sn whani reaured |_memured reauired messued xo zes 15 io ase sos To sis sss as 55e sn xo ns se use > i is ws iss 1e x2 isa urso za 13 io 3a zoa io 37 zs wso as zs zo aa aa Eo Bs as zo 7 as zse sa sas sas m mas n zo s3 ms so as 27 s wa is [ f.» 31 3 w Pase:$11 Tiintc c ns he nc curn in it on par uon he ie apprnalo SaTi40 Tiebomioncomncih nittbe wtdonlor ts pariaeforntich ts clinat utw indetorpar nioavarte sppralofSiTI0G

mo a sar rererence piroue cauimation reront ne acnamsiessrua 73 BODYLiQUID MEASUREMENT res> fastve permitaiy) contsetity (0)5/m reaured _|_memsured |_reauied messued 150 assn cxoiss 300 snn sonsn serisn torn ssun eseisn ie corse woun Tsn soun 1ssn soss Bosn seun rosn sise mss sise sn sase orpo srisx ressn arisk mss mssn mss asisn mesn soun anix sose use wouon ssosion wsson sasion | @rson ssxsion | wsson ses son @sson s7sox | @zuon scosion | 74 saR MEASUREMENT RESULT wiTH BODY LiqUID Sutvare Lormssarys Praniom | sn 200 san | sn mm roue | Body Liqud Valies: ops :53 0 sgma: 199 Disancs bewe dipole cce and Iqud 100 mm Ars seanresouon |sccomme Zon Scan Resoluion ESmeamem Erequerey Rsomite Tnput power Em Liqud Tenperiee fac Lab Temperauee fare Lab Humidiy iss Page: 911 Tiicenent ol nhe rpoact ces s on pr, uhn theetenapprnelofSaTIY0 The nrnato conuinet hi t h med l j e paronh uh i ataindd inn cou bevieor poruthosuitnapprreiofSHTIHO

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SATIMo 8 LIST OF EQUIPMENT Eneracneen beenpton ‘hoget/ |ldentiferti0® N®.) CaumrationDate \_ bate SAM Phaniom Saime snzompsamr; fildated Nocal Vaiteet No cal [EonosaR TestBench] vemons x ypyr0e pas o 4 Network Anayzer Rhode&Schwar onioorse varors vereore Calpers | Carrera cauperot teros | taro1e Reference Probe Satmo EPorze SN tont 102018 102016 Mulimeter Keiiey 2000 reseso Teroo Terve Signal Generator | Aglent E44380 myasorose1 teros | tarore Ampiter Actecomn ues |enealen ences Power Meter ho EcattA ussszsta08 122013 122016 Power Sensor | Hp EoP—E20A ussristac0 122013 | 122016 brectonal Couprer| Narda 421620 on es TempamWeand ContolCompany 116619 srore seore Pase: 1in1 Ti cemee inthe nc curn n it o in par uon he eienapprnalofSeTI4O The bfornsionconhothivfaesibeactonlfoth permae w uht iutniic onen bevduetoi or un vitontwrim sppevalorsirido

(/r \ SArImo Memmmmcns SAR Reference Waveguide Calibration Report rer: AcRass 2 14 saTUA SHENZHEN LCS COMPLIANCE TESTT LABORATORY LTD. 1F, XINGVUAN INDUSTRIAL PARK, TONGDA ROAD, BAOMNBLYD BA O‘AN DISTRICT, SHENZHEN, GUANGDONG, CHINA SATIMO COMOSAR REFERENCE DIPOLE reequency: sou—so0 vite sermar Noc sy m woase Calibrated at SATINOUS 2108 Mareet PakDr.~ Kennesnn, G 0160 K®A morams Souney Ts nen pevwt metst i mton n wonted 518moens on in in n NRUSX mey e CIOSm ns Al ce mmeln mc snaealneniyy inevtine

Name Punction Date Signature Prepared by Jérome LUC Product Manager tonar2o1s ;;g Cheched by Jérome LUC Product Manager torar201s e= Approvedby Kim RUTKOWSKT Quality Manager 1042018 ) pudvedt Customer Name Shenzhen LCS Distribution Compliance Testing Laboratory Lid. Date Modifications tora201s Initial release Page: 211 Ti cemee inthe nc cuen n it on par uon the ie apprnalofSeTI4O Tiebomioncomnct ine metoalsh pri o nc oi e nttcwire berdca bndetorpar ntoarie sppralofSirIG

TaBLE OF CONTENTS 1. Introduction a 2. Device Under Test a 3. Product Description a 31 Cieneral Information a 4. Measurement Method a 4.1 Return Loss Requirements a 42— Mechanical Requirements a 5. Measurement Uncertainty 5.1 RetumLoss s 52— Dimension Measurement s 53— Validation Measurement s 6 Calibration Measurement Results s 6.1.— Retum Loss s 62— Mechanical Dimensions 6 7. Validation measurement 6 7.1 Head Liquid Measurement 7 72— Measurement Result 7 73— Body Measurement Result t 8 Listof Equipment 13 Page: 313 Tiicenent ol nhe rpoact ces s iopr, uhn the entenapprnetofSaTI00 Tiebomioncomnct ine metoalsh pr o nc oi e nttcwire derdantiaetorpar nthoarte sppralofSTIG

SATIMg 1 INTRODUCTION This document contains a summary of the requirements set forth by the TEEE 1528 and CEVIEC 62209 standards for reference waveguides used for SAR measurement system validations and the measurements that were performed to verify that the product complies with the fore mentioned standards 2 DEVICE UNDER TEST Device Under Test Device Type Comosa® som—smeyz kErekence waveouie Manufacturer Satimo Model swassoo Seral Number sw iona woasr Product Condition (new/ used) New A yearly calibrationintervalis recommended: 3 PRODUCT DESCRIPTION 31 GENERAL INFORMATION Satimo‘s COMOSAR Validation Waveguides are built in accordance to the IEEE 1528 and CENIEC 62209 standards. 4 MEASUREMENT METHOD The 1BBE 1528 and CEVIEC 62209 standards provide requirements for reference waveguides used for system validation measurements. The following measurements were performed to verify that the product complies with the fore mentioned standards 4.1 RETURN LOSS REQUIREMENTS "The waveguide used for SAR system validation measurements and checks must have a retumloss of —8 dB or better. The return loss measurement shall be performed with matching layer placed in the open end of the waveguide, with the waveguide and matching layer in direct contact with the phantomshell as outlined in the fore mentioned standards. 42— MECHANICAL REQUIREMENTS The IBEE 1528 and CEUIEC 62200 standards specify the mechanical dimensions ofthe validation wavegide, the specified dimensions are as shown in Section 62. Figure 1 shows how the dimensions relate to the physical construction ofthe waveguide, Page: 413 Tiicenent ol nhe rpoact ces s iopr, uhn the entenapprnetofSaTI00 The bfrnioncouhothivisiaesibeactonl o papihuhoh utntwdand it derdantiaetorpar nthoarte sppralofSTIG

nee ce s MEASUREMENT UNCERTAINTY All uncertainies listed below represent an expanded uncertainty expressed at approximatelythe 95% confidence level using a coverage factor of k—2, traceable to the Intermationally Accepted Guides to Measurement Un vainty. 5.1 RETURN LoSS "The following uncertainties apply tothe return loss measurement Frequency band Expanded Uncertainty on Return Loss 200—co00MHz ol as 52— DIMENSION MEASUREMENT The following uncertainties apply tothe dimension measurements Length (mm) Expanded Uncertainty on Length 3—300 | 0.05 mm 53. VALIDATION MEASUREMENT The guidelines outlined in the IEEE 1528 and CEUIEC 62209 standards were followed to generate the measurement und for validation measureme Scan Volume Expanded Uncertainty Ts 203% 10e 201% 6 CALIBRATION MEASUREMENT RESULTS 6.1 RETURN LOSS IN HEAD LIQUID Fecueng Aite sm am Frequency (MH2) Return Loss (aB) Requirement (dB) 5000—6000 <42 a Pase: 51 thict exoptts l oi pr, uon theentenapprnetafsariva mei wat jo e ran ui oi atni beves wotcor partnitou wrnenappenniarsarato

62. RETURN LOSS IN BODYLIQUID Fecueng Aite sm se sn sn Frequency (MHZ) Return Loss (dB) Requirement (dB) 5000—6000 —8 63— MECHANICAL DIMENSIONS m Linm Wiam Lrm Wiam 7 TN| Reqire Mewire Reqire Meware Reqire Meaure Regire Mesore Regire Mewvre 6 + a s a 4 a a a a a o sam "29% "TH* mssTase 2098 MHP*| mssyasy S5% N* mss|yasy 6955 "TH*| mss|yasy ast33 msss se pomEamEcamEc—amy MH* mss H*| mss * mss TR*| mss «s z mss& * The tolerance forthe mathinglayeris included in theretur loss measurement Machinglayer Figure 1: Validation Waveguide Dimensions 7. vALIDATION MEASUREMENT The EBE Sid. 1528 and CEVIEC 62209 standards state that the systemvalidation measurements must be performed using a reference waveguide mecting the fore mentioned retum loss and mechanical dimension requirements. The validation measurement must be performed with the matching layer placed in the open end of the wavegide, with the waveguide and matching layer in direct contact with the phantom shell Page: 13 Tiicenent ol nhe rpoact ces s iopr, uhn the entenapprnetofSaTI00 The bfrnioncouhothivisiaesibeactonl o papihuhoh utntwdand it derdantiaetorpar nthoarte sppralofSTIG

sar rererence waveoume catimamion reront nee onzin nessrua 7.1 EAD LIqUID MEASUREMENT 1100000‘ mie netatve permitiy) Conductity(c)Sim reaured memsred. reauied messund Sm Serzion aasios | sico Tea on asezion sz Seomon riss assmion Pss sn Se0 zow azezion sico Iazon mss ansmion ps S Remon aarzon se smon mss sormon Pss S Ramox sirmon Sm B3mon mes sarmion as se Bamon sasmon io rem saamon 72 saR MEASUREMENT RESULT WITH HEAD LiQUID At those frequencies, the target SAR value can not be generic. Hereunder is the target SAR value defined by Satimo, within the uncertainty for the system va on. All SAR values are normalized to 1 Wnet power. In bracket, the measured SAR is given with the used input power. Software omsaaw Phantom: sv rom saum Probe sn rrom Liquid Head Liuid Valucs S200 Ne opy 26 62 siema 492 Head Liquid Valus $400 MHe: eps 28 0 sima 5 18 Head Liquid Valus $600 MH: eps‘ 26 0 sima .60 Head Liguid Valus $400 MHle: epe 24773 signa 5.24 Distance between dipole waveguide and Iquid Onm Area scan resolution | dctmndtyctmm Zoon Sean Resolution | dcimdy~imdz=2mm Frequency smane sam vtie seoo vtie | suco atte Input power |Fodin Liquid Temperature Jzre Lab Temperature m Tab Humdity sn Page: 13 Tiicemet ulnthe rprica uen n it on par uon the en apprnalafSaTi40 fir Mimiimcmuienlnininichnd mb ie t fralith ndaintnatie um fervimalfvhdearparcedtonterisncnprentaftirine

sar rererence waveoume catimamion reront nee onz nessrua sfi'y 'IVI\D Frequency (MHz) 1 x SAR (Wha) 10 g SAR (Wikg) required messured required measured 5200 159.00 Téx 88 (1630) s6.90 5129 672 5400 166.40 17225 (1722) seas 5.16 (592) 5600 1730 T28 (813) soo7 617 (6.16) 5500 18120 Tss (1890) e1so 63a5 (635) SAR MEASUREMENT PLOTS @ 5200 MHz saoo mHz Page: 813 esoptts oi pr, uon heter sinuo ritice wat jo e rapon uhh oi uind pvarernensppmentssizio

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SATIMg 73. BODYLiqUID MEASUREMENT Hl'::flmv latve pernithiy (e) Contucti(0)5/m reuired messued maued memune 5200 wouon mes szomon ns 5300 wsson sazon | sa0o 7 son mes sszmon res ssoo wsson semion 3600 assiion mss syz0 | mss seoo @2 son mes ccomion mss 74 SAR MEASUREMENT RESULT WITH Bopy LiquiD Software ornsaiye Phantom: | sn 200 sauri Probe | sy mm rroree Liguid Body Tigud Valies 5200 Nily: ope 059 en: on Hody LigidValues 5400 ie ope 4848 sigma: S2 Hody LigidValues 5600 itz ope 90.57 signa 627 Body LiuidValues 5800 Mz ope 48 19 signa 648 Distance between dipole waveguide and liquid Cmm Area scan resolution Zoon Sean Resolution Frequency sam vtie seoo vtie suoo vtie Tnput power zim Liquid Temperature e Lab Temperature ame Lab Humidity a% Frequency (MHz) 1@ SAR (Wiy 10 x SAR (Whka) measured measured 5200 159 (1s85) 5540(550 si00 16720 (16.72) 5739(574 5600 17565 (17.57) soas (595) sao0 T806 B3 aLe2 (616) Page: 103 Thicenent utnthe mtccors n it o s par, uon he ie eppmnato ta7100 TieWomoncoue ifi indrinbarpan ooc oiiclniiantteve wicerrereitoneimgremiarsinite

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usava SATIMG BODY SAR MEASUREMENT PLOTS @ 5800 MHz Page: 1203 Bistioment ut cvqtin it is pan uon ie oi sinuo oi wat jo e rapon uhh oi uind wotcor partnitou wrnenappenniarsarato

sar rererence waveoume catimamion reront n son ze in nesrua 8 LIST OF EQUIPMENT Equipment Summary Sheet beenpton ‘moget_ |Wentifetti0® N®.) CapmrationDate \——mie FistPhantom Saime snzompsamr; fildated Nocal Vaiteed No cal [EonsaR TestBeneh] vemons x ypyr0e pas o 4 Network Anayzer Rhode&Schware amioorse varors vereore Calpers | Carrera cauperot teros | taro1e Reference Probe Satmo EPorze SN tont 102018 102016 Mulimeter Keiiey 2000 reseso Teroo Terve Signal Generator | Aglent E44380 myasorose1 teros | tarore Ampiter Actecomn ues |enealen ences Power Meter ho EcattA ussszsta08 122013 122016 Power Sensor | Hp EoP—E20A ussristac0 122013 | 122016 brectonal Couprer| Narda 421620 on es TempamWeand ContolCompany 116619 srore seore Page: i3n3 Tiennthe nc curnin it on par uon the eienapprnalofSaTi40 The bfrnioncouhothivisiaesibeactonlopapihuhoh utntwdand it bevduetoi or un vitontwrim sppevalorsirid0

SHENZHEN LCS COMPLIANCE TESTING LABORATORY LTD.Report FCC ID: SS4SF550 No.: LCS1512161382E 7. EUT Photographs WIFI/BT/GPS Antenna GSM/UMTS/LTE Main Antenna LTE Diversity Antenna .....................The End of Test Report......................... This report shall not be reproduced except in full, without the written approval of Shenzhen LCS Compliance Testing Laboratory Ltd. Page 192 of 192


Document Created: 2016-02-23 21:47:42
Document Modified: 2016-02-23 21:47:42
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