CXD2163R

CXD2163R SONY | Alldatasheet

Document overview

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Technical content

Features

+ Single-chio CCD camera sync signal generation and luminance / chroma signal processing Applications '¢ + Supports NTSGIPAL modes + Indushial CCD cameras + Supports 360H/S1DH/72GH/760H system CCD {survellancerF A/mage input cameras) Image sensors + Multimedia CCO cameras fteleconferencing/personal computer cameras} » 76 digital output pin (2 mode selection) - CCIREO1 or 86-bit straight format > belt-In 8-bit A/D convester ~ Extemal 9/10-bM A/D converter can be selected Anpoable Coo image oes * Supports extemal sync functions (LL, VS, VBS, etc.)

6 ICXO76/077AK (1/5" NTSC/PAL)

Syne separation circus, phase comparator S10H color CCDs ; - ICXO26/027CK (V2NTSCIPAL) ee Saae ICKOS4I065AK (1/5"NTSGIPAL) + Block control functions with 2 bullt4n microcontroller - ABJAWB/YGICLAMPYSG control functions 1 Prveanaipsil (WENTSCIPALY + Peripheral IC communication control functions : "TG, EVR, EEPROM communication control eee eee , ' ICXOSSA059AK (1/3" NTSC/PAL} Cs » Serial wéon function (2 mode selection) ICKOBANESAK (1/4°NTSC/PAL) - Microcomputer or AS232C- Absolute Maximum Ratings Supported Related LSIs - Supply voltage Voo Vss-05~ +70 ¥V 1G: cxp2480R + input voltage Ve -Vss-05~ Voot05 ¥ AFD: CX02418A - Output voltage Vo ¥ss-05~ Voot0.5 ¥ AGG: — GXA20060 + Operating temperature Tope —20~ +75 c ADC: — CXD2311AR(10bit) + Storage temperatura Tstg —5i~ +1590 CXD2312R(9bit) Recommended Operating Conditions eva: AK6420H (Asahi Kasei Micro Lid.) + Supply voltage vDD 3.0~16 Vv EEPROM: MBS88347 (Fujitsu Ltd.) AYDD 45~$5 4 AVDD3only 3.0~36 V + Operating temperatura = Topr -0~+75 T _ 1 — ‘ 960715 Verl.1

g a Qs 08 ne Pe GO Sank : aril? eal 3] =z ° = [23] Fl dca fail! Hl /B] Ee | ea 2

9 FF == +

2 [p= dle » o« i jae]

—$—_ OS Pin Configuration 2e9g belglegsysgs9y9583 08%. $38 CIISRHIERSSOSSSAISIOAIISSOEO® ‘001 (1) ®) cseva surge (2) 99 csAOM . vast (3) G3) CABO neue (4) G2) CASI FLON (6) 1} CASCK BLOOF (6) (@) xcs mSePS) @ warts (7) SE AEREF (8) 68) SI AGCMAX (5) 87) SOK GAMMA (9 €@) VOO3 Awet 4) 68) XCLA Awe G2 BD vssa is CXD2163R Sree vay (9 2) LAI ANTSCIN) VREFY (9 G1) VAI (EXTSCRy avasi (16 60) HR? (videoing AREFY (1) Ga) Avss« var (6 Gq) IsEr avon! (19 67) avons ; oy Gg 64) AvOoS avonz G4) osc vac @3 6) avsss InEFC G8 G2) Sync (DI8P) avesz (3 6) FLD ¢ 1@) ESESIWSSESSSSISSRWIISIISSISIIAS peZRSSSSSSSSEReSsRsEREges eas Ze8 Eee ss SEeEEihl GUUEG EG] a

38 Symbols in parentheses are the signal namas when the LSI Is switched

by the sera! communication settings. ‘All pin symbols (pin names)_for the 02163 are the names next to the pint No. (oiriskte the parentheses) — 3 _ ‘ 9607175 Verl.1

a | + | voor | — | digaal power supply (43.3) [2 | sirset_| 1 | Serial intertace mode switching 0: microcomputer, 1: AS232C Pa [vest | — — [og uo [4 [seme [| [Ae modeswiching O:auto,t:manual | 5 | FLON | 1 | Filckeriess mode (auto) __——_—/Shutler spead control (manual) —_| [8 | suoor [1 | Backsight compensation off (autoyShutier speed control {martual) | 7 | wins | 1 [ins mode swtching (auto) Shutter speed control (manual) | i } 2 | aener [1 | AE convergence lev sxdiching (eto) / Fixed gain mode sel.imanual) | FY Lo | acomax [1 | AGC maximum gain switching (auto) / Fixed gain mode sel.{manvat_| [10 | cama [1 | GammacomectonONOFF 4 [1 [ awe: | 1 [Awe mode swuching®: aula, t:menual = ‘ [32 | awez |) | AT Wipust lock ewliching (eutoy Fixed WB mode selection (manual) _| [13 | awes [1 [ Push tock signal input (autoy Fixed WE moda selection (manual) | |] vey [1 tay] Capacttor connection pin (about 0.1. UF} (lor luminance signal D/A) _| | is | vnery [1 | Reterence voltage eetting pin (lor luminance signal Day | [a] vss: [ — [ansogGno for luminanon signal Day | 2 Pa [mary | 0 Gi | etornce caren ting pn for uminance signal Day _| | 1 | vay | 104) | Capacitor connection pin (about 0.1 uF) (for huminance signal OA) _| 3 je | avoor | — | Anaogpower supply Hor humninance signal OYA) | [20 | ov [0 | tumbnance signal (owen) oupwtpn Lar} toc | 0 | chroma signat (current outputpin | [zz | avoo2” | — | Ansiog power supply (lor chroma signal DAY | | za | vac] 1 )| Capacitor connection pn (about 0.1 uF} (tor ctwora sina oiay |S | 2+ | merc | 0 Wi] Reteronce current setting pin —_—_—‘for chroma signal OYA) _| } ; 25 | avssz [=| AnaiogGND for ctwoma signat DA) _| Far [vec | tw emesteroomionpn pon0.100) oo cnenesteal oy | © | 28 | _vese | - [ostacno CS Pe | ox | 10 | cna t0 pris agatenpaVOGD wt pa] yor | o | usp «2 | var? [mse m2 ar | vos [ o | | YAP | Sf Luminance sig. digital outputs AF datection sig.outputs | vor [oo | {preset settings) pe me to | vara | Ls {yor | | are | | {vor | P| reo use | varo [ise Is YAFD to 7 oulpt —4- 960715 Vert.1

[| cor { o [Mss ms NTPAL al [40 | coe | 0 |chromasignt §— | 6001 [eco type oh: 36H, tm Sion wa Ly Bl 00s [0 | digtatoupus [ec02 [Line lock mode 0: OFF, 1:0N wa 4 eferpe INTEL }s[ co To | SrTup i puj ce jo | SFTOWN|Et-eync mode dlecrimination outp. #13 | g ps[ om [oo | EXSTAT [as[ co [oo | soa i Pa] ona | o | __| ScomP | Subcarier phase comparator outp 63 | f [or] RD | 0 |Flottdleciminationsinaoipe sd a P65 | osc: | 1 | atscoscmator_ingut flor subcanier generatic | 56 | avons | — | Analog power supply (43.3 V.for tec oscato) =| [57 | avooe | — | Ansiog power suppty (+6 V, for sync separation ckout) | [se [ser | t (@)| Current source input {for gymc separation ckcul) | | eo | HAr | 1 {41 | external sync sig. Input (composite video sig. Input reset aig. Input) _| 5 for | var] 1 | extemar sync signal input (extemal burst signal input/V reset signal put) | [| um | v0 | extemat sync signal WO {LALTOWW/LALT reset Infintemal subcarrier Inout _ | es | roome | 0 | Phase comparator otpuliorHPULVPLE ‘ [es| xo | + |ceainptpin CS |co | woos | — | Digtalpoworsupydsvy Ep Serial ok in for microcom communica (xed to 1 during AS222mode)_1¥ je| sa | Serial data_inpul for microcomputer / RSZ32C commumication 28 | | 80 | 0 | Serial data output lor microcomputer / AS232C communication Fc | 71 | _casck | © | Serial clock output for camera peripheral ICs {to TG, EVA EEPRO [zz | “casi | 1 | sortat data input for camera peripheral ICs {from TG, EVR ,EEPROM| & | 7a | caso | © | Seat data outys for camera parigheral Ia (to TG, EVR ,EEPRO 5 | + | canon | o | Chip select output for camera peripheral [Ca {to EEPROM! 7 | [75 | ~esevr | 0 | Cnip salt ouput for camera prghoral ICs Qo EVA) H | 78 | costa | 0 _ | Chip select output for camera peripheral ICs {to TG) : 383: The functions of these pins change according to the serial data settings. The preset seitings are FSCO, HD, VD, FLD and SYNC output” ~5- 35: Valid only during A5232C mode. RSBPS ~ 0: 4800 bps, 1: 9600 bps: 960708 Ver1.t

(Eom [ vo oo Sd [7] tavo | 0 | vertical sync signal output for Ta ee [| rere [0 | nal ye eal ovo TS —t [78 | 10 | 1 | tne clr dcrimination signal input ane | eo | mex [1 | 02169 master clock inp a per] vsss | — [oigtatano [sz | rests | 0 | Test ouput open) : [3 [cpr | 0 [Analog atic bine camp pe op | ea | vooe | = [ongtalpowereupyS3v) [es | 000 [1 ss xe pas [ane | Per | aor [tf Dita etgnal data inputs from sternal A/D ‘ CE De a DR eee pert ans fo | pe} ape ft | Dea pm] aco [ot [tse | % [var] ab] Reference top vokage input pin (for bul A/D convertor) 6 | | 98 | avoos | ~ [Anclogpower supply (45 V, for bult4n AID converter) 6 | po [sum |W [Anelogeignalinpt pia or bun AD converted) 6 | [6 | avsss | — | Analog GND {hor buillin A/D converter) #6 | = | | vra | 1 1A)| Reference bottom voltage input pin (lor bul-4n A/D converter) 26 a [ 1o0[ arves | — “[AnatogGNOtornolse guard for buiin A/D convertor) 6 | fi 346: ADO to ADA {Pina 85 to 94) oF the builtin A/D (Pins 96 to 100) are selected by the serial data settings. The preset setting when cleared Is the buliin A/D. (|: Digital input ©: Digital output (40; Digital 70 1{A): Analog input QO (A): Analog output are 960715 Ver1.1

Electrical Characteristics

DC Characteristics (Wilhin recommended operating range) [tem | Symbot_ | Conditions | Min. | Typ. | Max. [unt] voot2sas| Tso aa Ts Tv JAvno2 [orAcutanpitudonzvpe] 47 | so | ss [ov _| Swpiyvotiege Taven | To | aa | ss javos {Taso ss Tv JAVow __[WDinememudo=2vee] 47 | so [ss | v_| [vont fiow--tamafvooxoa{ TT puvenoe' [veut lias ama | | S| sw || | cet votagar [ReE—_femn-tam_fveonoa} _f ___v ; PN [vows Tian ata TT Cd) Cw input vonager pomp veoxor] TY pve ET ve0x03 [| wees foxes [Tv leoutvonoan? fees [oxen] | [Hysteresis t vemve [Tos TT | Hysteresig2 [we—ves [oe input ieakcurentt [ins [venvsservoo [| io | | toa input eakcurenta[tn’* [vmevssorveo | ao [| | nA | fnpet leak curenna|im"é [vmevoo fe Ts Te | *1. All output pins other than CASCK, CASO and DCK : *2, CASCK,CASO,DCK *3. AD2-ADO,MCK,ID,VRI,DCK, ( *4, LRIL,CO7-CO0,AEME,FLON,BLCOF, MIRIS,AEREF ,AGCMAX,GAMMA, AWB1-AW83,SIFSEL *5. XCS,SI, SCK,XCLR,CASI “6. SIFSEL VO Pin Capacitance (Vov=VieQV, f=1MHz) | item | Symbot_ | aie [tye Fax. [unit ] | inet pincapactance| Ge [| | oF _| output pincapactanoe| cour | TT ator |_wpacepacsence] cro [To | -7- , 960715 Ver1.1

a AEME 4 FLON 6 ‘These are input pis for the SW setting. vo TTT BLCOF | 6 | AE/AWB/gamma operation ia mwlichad by MIRIS | 7 | Inpuiting hightiow to these pins. SW soting J AEREF | 6 AGCMAX] 9 The timing for loading the SW setting to aamna| 30 | each block is the V tdanking folowing the =“ 2163 Awe1 | 15 | field where the setting was Input. block setling Awe2 | 12 Block (ntching awes | 13 vey 14 ‘These pins form tha peripheral alrcutt tor the: very | 16. | OYA converter that Is used for luminance and AVDD . avss1 | 1a | Stroma signal output é\\ TREFY | 17. | The voltage setting of Vref and the fullecale Aeon vay | 18 | Yotege (fa) of OVA can be maiched by setting ree, 0.12 QuTpuT ( AVDDI | 19 | tho ratio of FL to ret to 1:16, Fe oy | | ere Pure me, 10G 21 A eH H 0 | 2 fence DIA | vae?~ j.ovivren veo | 23. | «10 = ViaRL shouldbe 7 mA or loss. =, e avss | 24 | «Rl should be 500 0 or fess. | var<o Fpowy vrerc | 25 | * When Vis 2 V, set the supply voliage © wREFC | 26 | tAVU0)10 6.0. Ato, when OV < Via <2V, T—avss 4 aK rel} VBC 27 ‘operation Is possible with a supply voltage VOD} of 3.9 V. yoo7 | 30-37 | YOVCO can be set to the follwing modes by the serial communication setiings or cOa-7 |] 3948] tha EEPROM setting vatuas. NAB | O47 CAT1 bylel YOOUT= 0; YO-YAF mode 1: YOaY digital out mode ock | 29 CAT) bylal UVDOUT= 0: 00- SWimode 1: CO=C dighal out mods (OHO) | (43) | [YO = VAF mods (preset) | ‘The Y-LPF processed luminance signal is | (YAF mode] cafe nrc wl AX oe or A wee PURPLE LAL ( ts YAF mode. YOCCAF) (om Isto {ven [ive [ive [ve] 1YO~¥ cht uk mode a ae The ¥-LPF/gammafapanure correction! DHD ning Tahar Wea blanking processed luminance signa! Is. to output in ayno with DCK (lam. The towing | ock «LEY SELES ‘Oulput formais can ba selected. CAT! byte 4 Yorn) (rm [an var fron} a J vee) ECBO! = 0: YO = 8-bM straight binary COfebR) (preafrnafonn | ereiferen]n re) 1: YO = AECEO1 + | Malt Gore Siggat [| nas TL LI [00 = SW mode (preset) | / ‘Thess pins are tha TV mode setting?CCD «= with DCK {fafl). NAB can be used aa ihe. type aetiing/axtemal sync system Oa, The — chioma phrase reteranos. Cxtpul starts from timing for loading the seiting aystems Is the the B-Y phase in sync with ihe fall of DHD. same oa for Pins 410 13. The preset setting The starting palnt Is defined ty the frequency when cleared Is SW mode, allo of MCK and DCK. The following output formals can be selected. [CO = C digtial out mode } CATI byle 1 The color difference signal immediately EC801 » 0: CO = two's complement format before the chroma encoder Is output in 2 1: CO = REC601 (offset binary} —3— 960718 Ver1.1

ede (MRS output setiing J ock Set (CAT! byte 1 UVDOUT = 1} and (CAT® byte 5 SCMPPIN ~ 1}. [DOCK UO satting } The DOCK pin ts normally an input pin. However, in the following case only, MCK (13.5 MHz) fa oulpul to the DCK pin. DCK ovdput setting: CCD type bs set to 380H oF B10H sysiom .and Set (CAT byte 1 SQ135 = 1), This pin outputs the subcarrier frequency signal. ‘This pin outputs the OSCVOSCO (Pins 4 and 65) oscillation cell outpul, divided by 4. ‘This pin Is the horizontal sync signal output. Wis used to align the outpul and phase of =~ the 1216%3's bulltn ¥/C OYA. The output contents ere switched by (CAT1 byte 14 HOPIN). To align the digital output pin YO"CO with the hortrontal signal phase, switch this pin to DHD orden, ‘ { OHD output setting] Set (CAT1 byte 1 DSYNC = 1}. This pin It the vertical syno signal ovtpul. It le used fo align the output and phase of the 02163" builtin VIC D/A. The output contents are weliched by {CAT1 byte 14 VOPIN}. When using an extemal microcomputer, he fleid ' ‘ cyte microcomputer inierupt signal (SCSBUSY) can be output from this pin. The 02163 has a vt ! 1", communication prohibled interval within the Bed cecsey — $s ‘which la convenient for synchronizing the start of oe & Bones microcomputer and 02163 communication. Commmnicalion Cormvenicgion Communication Ia allowed after the tal ol SCSBUSY, —«_, ormaesemers —etrwed inured [ SCSBUSY output setting] Sel (CAT! byte 19 VDBUSY = 1), This pin és the field discrimination signal output. The output contents are switched by (CAT byte 14 FLOPIN}. The outpul contents are switched by (CAT1 byte 14 SYNCPIN}. ( The OPD (AE/AWB) detection tame (01SP} can be output trom this pin. This pin should be used for analog iris detection cloults, alc. (CRSP output setting) Sel (CAT! byte 13 SYNDISP = 1). {| Frame type selection } ‘Select the AE/AWB tame according fo the (CAT10 byte 3 OPDOISP) code. Osc These pins are connected to the intemal oseiitation cell. Connect a 4isc. crystal oscillator 0800 to these pins. This pin fs the extemal sync signal input, It ls connected internally fo Ihe sync: seperation circull (oullt-in camp) and can be used to input the compoalie video signal (1 Ve-p). When not using extemal sync, fa the HII pin high. Input the composke video signal or H reset signal according to the folowing conditions. Compoaile video signal input: Whan VS/VBS }s locked during auto identification mode or when {CATED byla 1 SGMODE} 4s set fo VS/VBS made. (Cate should be taken when using LL together with VS/VBS during auto mode.) H reset signal: When (CATS byte 1 SGMODE) Is sel fo VRHA mode. 7s 960715 Verl.1

[omea ene] owen SSS This pin Ia the extemal sync signal inp. Whian inputting an extemal burst signal, extract Ihe burst wilh an extemal circu, sef the. burst to the digital ampHtude value (3.3 Vpp) and then input It to he VAU pin. Tha continuous. ubcarrien signal can be used 2s ihe inpul axtamed burst signet, bul the phase comparison interval be onty cea the burst signal posiion (SOG (Pin 46}). ‘When not using extemal sync, fix the VAI pin high. taput the external burst signal or V reset algnal according fo the lotlowing condilons, External burst signat hen VBS Is locked during aulo kienlification mode of when (CAT? byte 1 SGMOOE) is sat to VES mode. (Care should be taken wien using LL together with VS/V/BS during auto mode.) Vireset signat §=When LLAVS ts locked during aid identification mode or when * (CAT byte 1 SGMODE) In sai to LLAVRHA made. ‘This pin Is the extemal myna signal WO. A ‘When VBS is tockad, the FSCO (Pin 48) subcarrier output can be delayed with an extemal circull and then ne- input to the LFll pin for use In the chrome encoder in order 10 phase shill tha auicanier signal penemited by the 02163. {in this mode, the LAI pin functions as the olock inpul pin for the chroma encoder block,} The LAI pin is normally the LALT signal output, but under the following condillons & Junctions #3 the LALT reset signat input of intemal subcarier input, LALT reset signal inpul: When (CATH byte 1 SGMODE) és Bal to VRHR mode, Internal subcarter input: When {CATS byte 5 FSCPCMP = 1) ls set with VBS locked during sutc Wentification mode; or when (CATS byte 6 FSCPGMP = 1) is set wih (CAT? byte 1 SGMODE} is seta VBS mode. PCOMP | 63 ‘TWis pin is the charge pump type phase comparator outpul for HPLLVPLL, HPLL or VPLL phase comparison is selected according to the extemal syne mode of the SG black, ‘The PCOMP outpul status can be cisssified into the following three sistas according to the 8G mode, SG mode [including auto Keniification mode) (No PCOMP output: INT, VAHR: PCOMP-V phase compartson output: UL ( PCOMP-H phase comparison output: VS, VBS EXSTAT This pin Is the extemal gyn mode diacrimination outpul, ft is normally low, bul goes high {cot} ‘only when the extemal sync mode of the SG block é LL mode (including auto Wentificalion). This pin Is convenient for awitching the characleristics of the externa! PLL- LPF when using the PCOMP pin for both HPLL and WPL. To use EXSTAT, set (CAT1 byle 1 UVDOUT = 0}, SCG This pin Is the subcarrier gate poise output. Whan the external sync mode of the SG block (CO0} 1s VES mode, this pin detects ihe externay input burs! signal Interval and outputs a high pulse only during the burst interval. The subcamer phase comparator performs phase comparison only during this gate pulss terval. To usa SCG, set (CAT1 byte 1 UVDOUT « 0} and (CAT® byle § FSCPCMP « 1), SCOMP} 47 This pin bs the subcarrier phase comparator output. 8 outputs the results of comparing (NAB) the extemal burst Input (VAI (Pin 61}) and ihe intemal burst Inout (LAI (Pin 62). The Comparison Interval ts tha SCG (Pin 46} pulse inferval. To use SCOMP, sel (CATI byte 1 UVDOUT « 0) and {CATS byte 6 FSCPOMP « 1}. "0 960715 Verl.1

[symba Pnnwof —awetton This la the clear signal input pin. This clear cone of ‘operation inilalizes the eniira chip and starta B00 EPROM loading operation, input a low putse, ne or more ‘(This pin 4s active low) rae FA These pina are the méicrocomputenftS232C sertal communication UOs, EI 6a so 62 | (When using microcomputer communication} (neees) 70 | Set the SIFSEL pin low. SYSO deta te transferred in aync with SCK only while XCS « low, [When using AS82326. communication) Sot the SIPSEL end SCK pins high, Al this tine, the XCS pin functions as the pin . {RSEPS) which aets the RS2S2C transter speed. FISEPS = 0: 4800 bpe, 1:9800 bpa. {See the description of the sertel communtcation method for other dates.) i cascx | 71 These ping are the serial communication Os for the camera peripheral (Ca. The CASI 72 =| peripheral ICs with which communication is performed are the TG, EVA and EEPROM. SR] FE | the Te and EVR communication timing te once per Reld during tho V blanking. CSEVA| 75 EEPROM read communication ts perfontied for four conseoulive fleids only during tha CSTG 78 | clear operation (CLA). EEPROM write communication Is performed once por fled during the V blanking during AWB {push lock mode} and SG {extemal sync shifter). 1D 79 mck | 80 | cups Fas | This pin isthe clamp puise output for DC: fing with a SH 1G. These pins are dighal dala Inputs for the extemal von AND. ADO to 8 inpul the A/D converted data output by tS) ae a oe the CCD in straight binary format. When using an extemal AD, seticaTibye2 = MKT LE LOLOL. ADSEL « 0). thor When using an extemal 9-bit A/D, connect ADC {Pin 04) ta GND, ( SW | 83 | Thess pins are analog inputs for the bult-in A/D. The presel setting when cleared is the Vea | 99 | bull-in A’, GAVSS (Pin 100) is used to guard the bulll-in A/D from intemat noise. Connect GAV8S | 100 | these pins to GND points with as Bttle noise as posable. ~"- ¢ 960715 Verl.1

Preset pin signal names when reset operation is performed The preset setting is the bull-in A/D , bo the extemal A/D pins do nat operate,

3 Woe 2o0

QPRGRIISESSESCOSSOIVISSSLOEO> vont (1) G@ CaEVA SWSEL (2) [4) CSAOM > vast (3) } caso. AEME (4) G2 casi FLOM (6) Gp CascK f BLOOF (6) YQ XCS (ASAPS) Maus (7) 9) SO AEREF (6) Qn) Si NGCMAX (9) 67) SCK Ganeaa CG G8) VDOS Awat GD 65 XCLA aAves2 13 €4) vSS3 pets CXD2163R e rote vey a 2 LAI ONTSCED VREFY (66 6 avss1Q@ «3% =These ars the preset pin signal names $3 Palme IREFY (1) ‘when clear (XCLA) operation Is performed. 69) AVSSS var (@ (when an EEPROM |e not connectad} €9) ISET Avo0! 8 ‘These pin signal names differ trom the pin symbols (pin names) §2) AVOD4 we for the 02163. $8 avoae vac 63 $d avsss IREFC @@ 2) syNO ( 1°) CHEISISSOSISSESIESOIIAIVISIESS 2 ~ _ z cad 8 e ec oa peTOSees census peep egga?® (1) To pertorm pin settings other than those noted above, write the settings to the EEPROM or switch the setting using microcomputer/AS232C communication. (2) To operate SCG and SCOMP, switch the setting using the EEPROM ‘oF microcomputer/AS232C communication so that (CATS byta 5 FSGPGMP = 1). -12- ' 960715 Ver1.1

(1) The ©X02163's microcomputer interiace circuit Is designed as a serial Intertace with a general-purpose single-chip microcomputer. {2} Tha communication method Is the full duplex sync method, and serlat clock syne communication is Performed in both directions between the CXD2463 and microcomputer. The recommended communication speed Is approximately 500 K to 1 Mbpa (3) The CXD2163 and microcomputer are connacted by the following four wiring ines. Viewed from the CXD2 163; + XCS = CX0D2163 chip select input + SOK = Clock input for serial transfer + Sl = CX02163 serfal selfing Input {image parameters, etc.) . + $0 = CXD2163 serial dala output (AE/AWB Integral valua, etc.) * When performing microcomputer communication, be aure 10 set the SIFSEL pin low. 5 (4) Communication Gming 1. XCS ts sel low and the CXD2163's communication circult ls activated. 2. SI data is loaded in sync with tha rise of SCK. 3. SO is output in eyne with the fall of SCHL 4. Serial data is grouped in 8-bA unis with the number of data set as desired. Ai least ona 8CK clock must be left opan between 6-bit data inks, 5. XCS is set high and communication ends. * The communication data is LSB first. g TSCK{minp * ULL st Hy 3 toe lee lel) ele l[e] al o-Uellels[*l¢) [lle lle}; ~~-(el u (ordeal Asa oy # # tz (5) Communication format The byte string transmitted from the microcomputer while XCS- is low Is treated as a single catagory. Categories are classified by the number sent in the first byte. Cala output Is synctwonized with the input, and the data output contents are determined by the category. {See tha Communication Parameler Table for the byte data and data outpid contents, Note that the data output until the calegory is determined is "Don't care*.) -13- 960715 Verl.1

(8) Serial communication prohibited imterval The CX02163 has an intemal microcontroller and performs. communication al regular Intervals using an intemal bus. As a reeul, (he microcontroser occupies the Internat bus and communications cannot be accepted from the extemal microcomputer during the following Interval, * Approximately 7 H from the tall of TGYD to the fal of SCSBUSY * SCSBUSY uses the VD pin. CAT! byte 13 bit 6 VOBUSY musi be set to 1 Io onder (o oulpul this signal. prohibited interval = allowed interval ‘ @) Precautions when translerring data to peripheral ICs Rather than performing aerial communication directly between the microcomputer and peripheral ICs (TG, EVR, EEPROM), serial communication can be pertomved with peripheral ICa via the CXD2163. Care must be laken for the following paints ‘when performing communication uaing this method. + Communication between peripheral [Cs and the GXD2163 Is performed at the beginning of the fleld sequence. Therelore, category communication which Includes data to be sent to the TG and EVA (categories 3, 4 and 5) should be perlormed outside of thia Interval. + if Communication falia within thia interval, the correct data may not be sent to peripheral (Ca. + The communication timing with each IC can be checked by measuring CSTG and CSEVR., This Interval Is a maximum of approximately 6 H {lor the 510H) . {See separate ttems for the EEPROM.) a sessusy esta LI CSEVA i Litt} * For write enable or write + CATRAS + Communication probibiied interval Approximately 6 H (8) Communtation (wiring) check The CXD2163 is designed so that when the clear pin is set low, the serial input is latched once and then output In that condition from the serial output In order to check the communication fine wiring. This method aliows the signal lines trom the microcomputer to the CX02183R to be checked logically. —j4- 5 960715 Verl.t

RS232C communication _ Q) The CX02163's RS232C interface clrout is designed for communication with the serial port of a personal computer. The CXD2163 has a built-tn /O butter (input 16 bytes, output 32 bytes). {2} ‘The communication method is the full duplex start-stop sync method, and serial clock siart-stop syne ‘communication Is performed in both directions between the CXD2163 and personal computer. ‘The communication speed can be switched fo 8600 bps or 4800 bps. The communication settings are an 8-bit data length, no parity, ane start bit, one stop bit and ng flow control. (3) The CXD2163 and personal computer are connected by the following two wiring tines. Viewed from the CXD2163: . + Sl = GCX02163 serial setting input (image parameters, etc.} + SO = CXD2163 serial data output (AE/AWB integral value, otc.) é * When performing AS232C communication, be sure to set the SIFSEL and SCK pins high. * The communication speed is 9600 bos when XCS = high, and 4800 bos when XCS « low. (4) Communication timing

1 The CXO2163 fetches & bits of data at tha timing delerminad by the communication speed

after the fall of Si. 2. SO is output in eync with the Si data. 3, Sertal data is grouped in 8-bit units with the number of data set as desired. * The communication data le LSB first, SI i tH een [st[o]a[elalal> — |s[a]ala]alole Fetching fof # Ab | oe ee ee | so i i wow | [olalelolele — |s[a]a]aile] ole A sete 4 # Start ba Stop bit (5) Communication format The CXD2163 sends the number of bytes in the data string to be sent in tha fret byte in order to divide the data etring (category). The data from the second byte onward has the same format as duving Microcomputer communication. ‘Algo, the serial output ia output In sync with the input fika with microcomputer communication, However, nate that the GXO2163's intemal status flag is output In the first "don't care" byte {the second fnput byte) duting microcomputer communication. When d7 of this byle is 1, data is sti remaining In the intemal butfer and new communicationa are ignored. + Leesa lore rel 7 Fre — 15-— ‘ 960715 Vert.

(6) Precautions for serial communication As mentioned In (5). during the CXD2163's RSZ32C communication mode the communicailon contents are first accumulated in the Intemal buffer and then data J sent to the Inlernal registers alter communication ends. Accordingly, the next communication la Ignored unl the data Is raad from the butter. Reading is normally performed Immediately afer communication ende and finishes in approximately 20 us. There are nomnally no problems with this operztion, but care must be taken for the following two cases, + When AS82320 communication ands during the period from the tall of TGVD to the end of communication peripheral Ca --» in this case, data Is transmitted fo the Internal registers atter data transmission with peripheral Ca. Tharefore, the next communication must be performed after thia transmission ta completed, TavD l scssusy — FL " a * Forwrite enable or write $<} ?__pe Communication with peripheral ICa ; Transmission to H i internal registers + RS222G communicallon prohibited infervall « When category 8 communication Is pertormed * Calogory § communication data is tranemitied to the intemal registers one tims per flekd while SCSBUSY Ia high. Accordingly, after performing category 8 communication, communication cannot be performed again until SCSBUSY changes from high to low . ( * The communication protibited interval can be cheoked by the internal status flag. Also, there shovid be a gap of at least one flekd between category communications, . Transmission to intemal ee coat SE oo eel ee sessusy —— s TTL} * AS82320 communicaiion prohiblled biterval —16- | 960715 Verl.1

{7) Internal status flag acquisition and clearing the Infemal recaption butler * intemal stats flag acquisition Wt ls possible to soquire only the intemal siatus flag without sending category data. In this case, frangmtk 1 in the first byte and 0 In the second byte. + Clearing the intemal reception butter When communication stops part way due to some problem {when the number of bytes to be transmitted sent in the first byte and the number of actually tranemitted bytea diflar) The GXD2163's serial circuit status may Switch to communicalion-busy mode. --> In these cases, tranamit 19 bytes of 0 to clear the intemal reception buffer and then tranemit the correct data again. * (8) Serial output Imaations The size of the intemal transmission buffer ls 32 bytes, 90 some sertal outputs listed in the 5 Communication Parameter Table may not pass through the butter. Category 5, 6 and 10 data ara Input to the buffer , but other data is read directly from the Internal registers. Therefore, when communication fats within te microcomputer communication prohibited interval, accurate seral output values may not be oblained. In order to accurately read data other than category 5, 6 and 10 data, the data must be acquired by microcomputer communication. {3} Communication check ‘The CXD2163 is designed so thal when the clear pin is set low, the serial Input is latched once and then output in dal condition from the serial output in order to chack the communication line wiring. This method allows the signal ines from the F:S232C pins to the CXD2163 to be checked logically. (10) Noise problems ‘The GXD2163 operates by detecting the falling adge of the serial input. Thersfore, nonnal operation cannot be guaranteed when noise in excess of the logic level is present in the serial input. i -17- 960708 Ver1.0

Serial Data Table of CXD2163R Classification of Serial Data ee CAT1.: FIX foenf] -[ ti“‘C TCOOOOCOC*S foarte : Fie | =}om | __vesnwsipenmsieeierie . [tm | oon | fowf - | Ee ee lou] — | Awa ktoyrldemoupt | CATT : FIXOPD |= | am | inniaty ted paramatersior PD fouf = [| CC ™~—CCSY CATS = MCRCON [in [oan | controtperameters tor Microcortoter | fouf - [| C=” Joara : sq [fom [ ___Griememtonirss fou — | SGemucupe \\ [carto: exrcon [=| o0 | S#emcomsimeanees Gorn lou[ = | vecSampingdetaoupt ‘| * *Block" and “Addreas" located at the upper right of the Serial Communication Data Table are as tollows, Glock = This inficates the block which reflects that parameter. (the destination block for that parameter transmission) Address = EEPROM wite/read address -18- 960715 Verl.1

Communication category concepis__ (1) CXD2169 category classifications are " divided by control subject * to make the byte position for each parameter easy to remember. £2) There are thee major category concepts aa follows. 1: Parameters set inkially during power on and set infrequently thareatter — CATI (FIDO, CAT4 (OCREF), CAT? (FIXOPD) 2: Flak] cycle parameters and camera signal processing sysiem parameters which are controted frequently as necessary — GAT? (FIELD), CATS {CLAMP}, CATS (AE), CAT6 (AWB), CATS (SG) 3: Special function settingymode setting/control characteristic and other non- camera signal processing system parameters such as extemal settings from the microcomputer or personal computer and SW pin settings, ete. ne —* CAT (MCRCON), GAT10 (EXTCON) @) Category numbers ara assigned to maintain relevancy with preceding and following numbers. Category numbers 1 to 4 are basic camera signal processing categartes which emphasize Y/C signal processing. * GATI (FIX) - CAT2 (FIELD) -- GATS (CLAMP) + CAT4 (DCREF) ‘Category numbers 3 to 7 are categories which emphasize ¥/C feedback control. in particular, these Categorles contain many AE-related parameters, and related parameters are arranged in preceding and following categories, * CAT3 (CLAMP) + CAT4 (OCREF}—> CATS (AE) + CAT6 (AWB} - CATT (FIXOPD) Category numbers 8 to 10 are categories which emphasize control functions other than the Y/C signal Processing system. * GATS (MCRCON) - CATS (SG) CATI0 (EXTCON) (4) Remembering the above concepts will make W easy to find communication parameters, t Points for caution when making communication settings : {Microcontroter overwrite function) q@ The GXD2169 has a built-in microcontroller to realize camera functions without a microcomputer. The microcontroller controls the folkawing categories with a field cycie. GAT2 (FIELD), CATS {CLAMP), GATS {AE}, CAT6 (AWB) 2) The microcontroller sets the above categories for each fleld. Therefore, when setting the above ‘categories extemally using a microcomputer or personal computer, settings shoukd ba made using the ” lofowing method, EK] Even It external settings are made for categories controlled by the microcontroller, the microcontroller overwrites these settings thereby invalidating the external communication. Therefore, the microcontroller control functions must be set to OFF for each category so that overwrita is not pertormed, (When setting some items in a category extemally, af controls for thal category must be sel externally.) (CATE byte1,2= MGRAE, MCRAWB, MCREXT, MGRSPRS, MCRSG, MCRDIP, MCRCLP, MCRGAM } -19- ' 960715 Ver1.1

(4) Therefore, when performing communication settings extemally, set the microcontroller control functions lo OFF as qutlined below, 1; When setting ail microcontroller functions t¢ OFF {extemal microcomputer control) + MCREXT = 1 2: When setting HUE/GAIN and other CAT2 (FIELD) controts — MCRSPRS = 1 4: When setting feedback controls such as CATS (AE), CATE (AWB) and CAT3 {CLAMP} to OFF — MGRAE/MCRAWB/MCRCOLP @ 1 4; When not using the SW pins (Pins 4 to 13) of the CXD2163 (when using the CATS byte 3 and 4 SW communication settings} -+ MCRGAMMCRDOIP = 1 Initiat operation when cleared f (1) When a clear pulse ts input to the CXD2163's clear pin (Pin 65) The intemed registers of the CXD2163 are initialized according to the following procedures. (Particular care should be taken for the TV mode and CCD type.) {2} When thers is no EEPROM ~ When tha CXD2163 performs clear operation, first EEPROM read operation 1s performed. tf there is no EEPROM, the firet byte Input from the EEPROM pin Ia not SSt code Bo EEPROM read operation is not performed. ad Next, the NTPAL, CCD1 and CCDZ pine (Pine 39 to 41} are input and the intemal ragisters ara iniiialized according to the sattings of these pins, (3) When an EEPROM is present > When the CXD2163 performs clear operation, frat EEPROM read operation is performed, In this case, the first byte input from the EEPROM pin Is SS1 code, 90 the CXD2163 ts. divided Into three fleids, EEPROM read Is performed and the intemal registers are Inialized. =) in this case, the NTPAL, CCD1 and CCD2 ping (Pins 39 to 41) are not Input 90 the settings of these pins are not reflected. — 20- ‘ 960715 Verl.1

Catagory 1 : FIX [Initially fixed parameters] Md Data(t) Y | Serial Input Byte |w| Name | Description J tt] tocx_ [nacre nl i 2] 137 cary Category setect code gi Oth: AX g 17] wee (eee ee en [2] ocoz _| use th: 720H ‘3h: 700H HS | Recor | — Forma sed oe cal tot ter e001 __{ 0 earanon é 7) sai35_ [Pil reference selection atscrol, 1: 13. SMl4z ret_| Pot so Ppa — | A a at ncn: Eocem —1 eae Fd in ONG ‘Selup level setting Y l2] ‘DIRE (0h)~8.6 IRE (Fh) f (4b step) LJ HS (28 White clip level setting” (Y-D/A max= 255dec) [6 Qh: 142d th: 180d he 178d 3h :187d | ¥ | sye__4h: 196d_ 5h: 205d_Bh:214d_7h 255d. Le v ‘Sync ampstude adhust (lor line adjustment) EL om [owesergarcmastee a | j | SYNLVPM {Sime amplitude aduet dreciion 0: Decrease tzincroasa {1 | ¥_| “ron x00 aia 1{Oh}~16{Fh) MCK step ey Aperture slice level setting Y Max{Fh) ~din( hott esa has ‘V-aperture alice level setting ¥ _ Max(7h) ~Min(Oh}=off | VAPLIM | V-aportuse Seiliter srwitich 6 off ton fo] ¥ i] HLAPSL High igi aperture slice level adhustment V A CJ | tre [Ensereomnaeetae dy | {S| — nas | rage apts ata stots asinetre jTaany {St 4 #1: Initial setting value with Power-on -2- | 960715 Vert.1

Category 1 : FIX [Initially fixed parameters] Serial Communication Data(2) la Serial Input Byte [ed Name [Description A | toc | Aceves | ae v i wa, High ight perhue signal postive gain adjustment Ema HLAPMG [Ot ¥ A 15, High fight aperture algal negative gain adlustment | | 7 lal - a - lo] ia = — Hy rs | ae R signal color separation matrix coefficient Ha iw Cr + <RMATY> 4 Vr 4 <RMATC> x Cb ba XILSGT FN ~ 0. Ogg ~~ 0.6 (80h) Fa ws Cate lormet «2°23 ad [oj ee 5 arn FF signal color peparation matrix costfictent A Rm Cr + <AMATY> x Vi + <HMATC> x Cb a 0.S7Fh)~ XC. 07i~ X 0.6 (509 7] o ue (Desa forrre «2's lo | aa a el aro B signal color saparation matrix coefficient HY B= Cb + <BMATY >x Yb + <BMATC> xCr re] XOSPFH)~ 0,000 ~ * —O.(00h) ka ja. (Date torenat =; | o| ‘aa u c t. W el BMATG B signal color seperation matrix costticienl B B= Cb + <AMATY> x Yb + <BMATC> x Cr lo] Les oO Burst lovell adjustment | BSTLY Burst level =<BSTLVL>X2 (LSB) | NTSC: 12h PAL: 00h = LJ 1S! cpaser | 2 Chroma identification sipnal retarence phase saleclion zy besa Oe: Odelay_1h: delay 2h: 2delay 3h: Sdelay _(1celay= IMC HL URSE —| tine entiation sana teference sinseexiecion 10 aq ww. [0 | | MOOSW _| hroma encoder modutlion swiich 2:ON 4: OFF [0 | eee ” 1 Pe. fs "sium | svc pe tpl iin 0: es page| ee He} —wosusy | VOph ovat selecion ov rSCSBUSY | oulput selection @:VO t:ScSBuSY te—|-$8-+ #1; Initial setting value with Power-on -2- | 960715 Verl.1

~~ —— Serial Communication Datatay Category 1: FIX [Initially fixed parameters) || Serial Input ‘ouput sélection HLS low “ene momc meres 8a | Ce FLD pin output selection | sa | i bad paris caer be BOG g Cn) selection i one ee eeeee

6 HD pin output selection

1 le mene S| #1: Initlal setting value with Power-on 3 960715 Verl.t

— Serial Communication Data(4) Category 2 : FIELD [Field communication parameters] [ Seriat input [Bytofex| Name | Description [wi] ax [natrny Lo] us N E| Category selecl code [ay O2h FIELD. | 5] | sl H B Adjusimont of luminancs signal gain ¥ HF ( Usa H-aperture {low band) gain adjustment i] wo le emer ee [S| H-aperture thigh band} gain edjustment Y S| eet le “emma IM [T) Y-aperiure gain adjustment ¥ ral F 4 V-aperiure gain adjustment ¥ +2] 1 (Fhj}~X<Ofohp a ee 4 [Sem | Somme iianactinneaie [YY ee: a Sf care | ‘Cheoma suppress (high ight} threshold tevel sefection ha e $y gamma level adjustment y 5 - High y (Fh}~Low y (Oh) 3] YSGAMLY | ¥ gamma : tow level signal compress level selection y 4 a8 a= ch 6 CJ |_YSGamsw | Y gamma : low level sig 9 t “se Chroma gamma level adjustment 7) - High vFh}~Low y {0h} c 3] GKNCLPO | Chroma knee clip level @ selection | owe | “Chroma knee level adjusiment rr “se [7] crnicup | “Chroma knee ciptevel releeon #1: Initial setting value with Power-on —24- 960715 Ver1.1

Serial Communication Data(s Catagory 2 : FIELD (Field communication parameters) a) | Serial Input ag Quadrant selection for indapencierd adlustment of near matrix EB REQUAD O: OFF tat quadrant (bR.0) = 2nd quacirant (oN 1} A 5 van ON Sr quadrant oR 2) 4th quadrant fo 3) are fT | of co 4Fh t} Sth 2} Unsar matrix conticient $3n B Batt rad R-Y GAIN t 0 38 ~ oD 0h Hi = Linear matrix cooficient ah B-Y GAIN sen | 6/ 7 98 Data format. L 6h Unear matrix coetfidertt 5Bh

10 R-Y HUE 60h

H = 5ah Uneas matrix costficiont 5Ch : SYHUE @-Y HUE 6h B 2X1 (BOR) ~ OKDON)~ >< 17 Fh} I CJ (Dada format =2'2) #1: Initial setting vaiue with Power-on —a5- ‘ 960715 Ver1.1

new ap SS rtd Communication Data(6) Category 3: CLAMP [Clamp control parameters} Ke) || Serial Input Serial Output Byte] Name | Description [#1 ]eioce] addresd ox [Name] Description vv Category select code H cata ‘03h: CLAMP a Unéined data ouput 8 | , ra fs 0 Hi Black loved achustmond ve a 08 Itegrat levet outpud I fr dha clamp 1) rz] to hgh car (1) [3] oon es Hs coche prs | See isl (lola! Boke iot7. doc ba) Hs] (Rotel 120K int?, deck bit) A Black lovel achusiment 2 | 06 integral level output tor dighsl olampxS2) ou for digital larry (S1) E 88 ba I ga MSB EDR ee torret 84 HI decimal pate aba +4 OB integral level oul [eI flotal 9b8= inl7. dec2 bi) fe] 082M | tr tal amp (82 la | TIBLACK2M] GLACK2 MSE IbH | Of wc | Hy pd riot state : | Ee ->integral part= Tot oummy HY -adocimal parte Sok 5 re] (total 12bMe int7, decd bi) He se eva ro | on? 7 B Offset voltage adjustment Bu \\ Pa]SHorsr | tor Sit IC HS | Unlined data oudput {FF} ~00h), rs H gs (Cate format 56h) ry | sa EVR ro | he 1 | EVR vollage adjustment B EvAUSR| — for USA setting 3 Pea {FFH) ~f00h) rs] Y 7| im Dita dormal ~£0h 8 Hl g ~ med Hy Unéined data output a LS | BE mw : 71 #1; initial setting value with Power-on ~ % 960715 Ver1.1

Serial Communication Data{7} Category 3 ; CLAMP [Clamp control parameters) |_| Serlal Input Serial Output bj Name | Description ¢1] dex [asrendod_Name [Description | o 14] 2] 12] 7 ql "0" fixed F Uniixed data output [8] gG zi zt #1: Initial setting value with Power-on -277- ' 960715 Verl.t a

Serfal Communication Data(8) Category 4 : DCREF [DC setting parameters] a fBye fl Name [Description #1] pom [aaron | 3} cata Category select code A 04h OCREF lol wm R DAVRFY Relerence voltage adjusimeni for Y-DVA converter is] [6| j I f2| I Reference voltage adjustment tor C-OYA converter a 7i LJ Is a | 2] IS VSUB adjustment for CCD B i7| uo [0] 1 {2} ( 3 VRGL adjustment tor CCD izh . #1; Initial setting value with Power-on — 28- . 960715 Ver1.t

Serial Communication Data(9) Category 5 : AE [AE control parameters / AE integral output) | Serlal Input Serial Output ol ; a N ry | 2} | 2 | Ly ead fH Unfixed data output | S| Gg | | 6 | ra Pe | a} EN EVA fa Hy che <n B Vonage os H wrecoe WINDO Y itogarai data ral for AGC-amp GAIN a LSB Gok 6! a | | of Lee fH fi) ral Voltage control dats + WANDO Y Integaral data ra] fRusv tor mechanical IRIS ra] oui | 5] te] MSB Sot 6} 8 | | OITGSHTM | Shutter speed data (MSS) | Oo | 7G | 16 | bad ea Ee PS Iwreaie | “NPY Y yngaret dete | 4, TGNTPAL| TV mode lor TG “entec cpa] OT TG | EE me [6}Taccp1 [OCD mode tor TG yt | rs | bee | BITGCCO2 | on: gene itest0H zc 7204 3 740 el wT esa TG ro | ; zi 1] ” 2 WIND! ¥ al 4 3] ase. | Shuster speed data (188) _ a Match) rst 5 | SB abt | | re] | OFHREFIHL | Polanky witch of HIST comp? La oe up | I THREFZHC| Polesty switch of HIST comp2 [_9 | 2 0: REF <= YAE B 1: AEF >= YAE WIND2 _ ¥ Integral data ral <a a ]INtea2t output [5] oumny a LSB BR | af 8] [| ~~ a a3 (Date tormad —BN) | o] tod 3 | tee Fa HF | 3] Reference level setting ER WIND2 _Y Inlegaral data zl for HIST comet Fs INTEG2M| output MSE Gbit | a] 7] o Pz " Data format = Bi) #1: Initial setting value with Power-on 29 —29-

960715 Ver1,1

Serial Communication Data(10} Category 5 : AE [AE control parameters / AE integral output) || Serial Input Serial Output lo] rr) /2| : WIND ¥ itegaral date : ~ = He a [5 G Gg | 98. 7 | Crd {0oke torre BN) | a] oO cee 4] a | a WINDY betogaral data | g MSA Bolt 6 15] G 18] t B fi fl {Dota format =2 [of oO 14] a B a WINDS ¥ integaral data 5 nro LSB Bok B [5] gi H Hl CJ (Date ternal EN) isa 0 o | B WINDY intagaral data 4! [4] Outen Is BI MSB GbR GB

4 H es (Data format BAN)

5 A a,

{ HIST iegral data ; : ar is} \\ 9] 7] : {Data tormel <0} | o| Y | 0| [1] 14) ; ; vs HIST1 infegral data 4 | MSS Sok || [6 B nes Data format EEN) | o| 9 ty tj Hi A HIST2 dntegral dat 0 dune 5 INTGH2L pipe fa outpl B i fi ro (Den forma BN) #1; Initial setting value with Power-on -3- § Su 960715 Ver1.1

— Serial Communication Data(11) Category 5 : AE [AE control parameters / AE integral output] | | Serial Input Serial Output Byide|Namel Description #1 (awcrlncrfed Name | Description Loca | o Ty o 3] HIST2 integral deta g durony oulpul isi MS8 eba B B H 7 sam (Data tarmal OWN) | 9| {9 i fH o ; e HIST1 count data output [4] 4| 3 a ‘see g io} ( [7] 17] 30. (Dela tora! -B0) || [9] ed o [1 HISTI count date 4] 4] MSO 6b B [5] o g

12 G eI (Data tormat BO)

[9] ro] tse H nN H B 5 otra HIST! count dete 7 ral duenmy| ial ar 5 A ey Hi wom (Dade torwrat =Bih) | [ry 4 oH B [2] ( 5 3 MstonTem| “S71 Cal dala otont B B G iz fi " Data format -2 #1: Initial setting value with Power-on ae 960715 Vert.1

Seral Communication Data(12) Category 6 : AWB [AWB control parameters / AWB integral output] Zz Serial Input Seria! Output vidal Name | Description [vi ]eea|saaeel | Name | Description [aval To} ia IN o Hy Ea f Ni ro | 2 CJ Fa. a} ied Ee le bal (RED channet} ra aoa [5] 5 | | 6| 6 | 7] Men fa Date kerr ~BiH| { ro] ee ro] ry iH i] | 3] WB-omp gain sdiisstment rat WEI Integral counter | 4] (GREEN channe) a | brea) | | G | 6] Go E HH WE-amp gain adjustment WS integral data output HI a (BLUE charned 3] (R-G lntg oF Ping 1 | rs | LSB Bbk | 6] re] . Fi Fa - (Dale format =2%9 oF Bish | 9} ro | 4 7] Ez Y thveshord level sotting B WB integral data ouiput ; a] SBYREFH! tor WE Intg. DO ra] {AG ing of A rag) Ts) Top retoranice ou 2nd BR [6] 6 | 71 as Fa 498 Date format «2's or B80) |] tse To | ‘ioe | 3] Oo I ¥ threshord level setiing [2 | WE Integral data output WBYRERL for WH intg, El (R-G ing oF R nigh HY Bottom reference HA MSB Bk 6] "6 | 7 wal tase feta forma =2 8 or Bing jo] ty F H | WE date + a (G irag} HI 4 LSB abi E De [Zz a a ‘ (Deis tread =p #1: Initial setting value with Power-on TS 960715 Verl.1

Sarid Commonication Batata) tagory 6 > AWE _[AWB coniro! parameters / AWB integral output} a ee Fy un 4 rr] {Ginig) S| rs) 2nd On g oO tH z ra wm Pz] eraau| «(Gea | 5 a $408 gon Hs re q bn sa ae Hy kn +S ud (3-€ tg or B intg) 1 5 a is8en SI re] bi ra Dats tama =o or Bq! ro} ee - FH \\ n WE inlegrat date caput Hy B (B-O6ig oF Bing) | 5) oi 2nd abe Ha \\ u Hy ra Dui vest Poe bag] LB \\ To | - Hs x : t 3 Bo WE siegra date output zi [4] (8G Intg or B ing} nm He] preyeey #1: Initial setting value with Power-on . -y- 6 960715 Ver1.1 rn0® ail ass raTeIa aSzOg SCT 86. OT/Or

Serial Communication Data(14) Category 7 : FIXOPD [initially fixed parameters for OPD) FY Serial Input io = NI Lf fn criti O7h OPDFI [6] [7] <n |O] AWBWSEL | AWE detect window salection O:alwind 1: wihow wing oO | OFD | [a] _AWOGAM |AWB dotect signal selection O:belora yy t:atry | o [co | | 2] AWBBFSEL [AWE detect signal uel 0: before WHamp 1: ater WBamp| 0 | opp | |3] AWEDPSEL | AWG integral mode salection 0: A-G/O-G intg 1: AGB ty | _o | opp | [4[_ AEMAXIAN | AE peak / bottom cul set 0: HIBTa ot 1: patio ot | —¢ | sor | B I fo] = dummy f 7 — {9} \\* Horlzortal count stert olisel of AE / AWB. detect window EE (COUNTER OFFSET } 13] <ONTOFST> X 4MCK tal 00H GIOH 720H 760K B NT 1h 15h 1Ch 18h

5 Pe ek ee

o "Horizontal unit with data of AE AWE. detect window HY ( COUNTER WIDTH } [3] <CNTWID> X 4MOK 14} 60H StOH 720H 760K 15} NT = OBh 08h OBA Ch sy PAL OBh 08h OBh OCh I" = Hortrontal start deta of WAND ( WINDS START Ht} BH “<ANASTAH> X 4MCK ( 4] a Hortzondal width data of WINDS GC (WINDS WIDTH H ) H _ <WAWIDH> X 4MCK o “ Vertical star data of WIND Hy WASTAV ( WIND4 START ¥ ) B vom <WWASTAV> X 4MCK Hy = Vertical width data of WINDS 7h 8] wemov ( WINDS WIDTH ¥ ) Ss . <WAWIDV> AMOK #1: Initial setting value with Power-on —y- 960715 Verl.1

Serial Communication Data(15 Category 8 : MCRCON [Micro-controller parameters ] (15) Serial Input peu fe Name Deserpion_/1 et tat] Lt) [2] q B Category solect code [sl 08h : MCRCON 17] ws a EB AWBCO AWG co.proceas = O00:coprc nan acl = -O01:AWB monfor fe vase Ode selection —O10:AWE average 01 T:adjust oul [3] MCRAWE | Micro-conrolerAWBovow dS CT

4 AE oo process O00:copro non act = 001:AE montior

lel mode selection O10:AE average Ot: — t [7] MCRAE | Mecto-controller AE Qcon tol CR | MCADIP | Microcontroller DIP switch scan 0:0N 1:0FF | 0 | MCA] ee lec GAM SEAONIOEF sorted anc lich O:ON 1 voee [0 fea fucraam [0 [O]_ENTPAL | TVaystem moda OO: NTSC 1: PAL (MCROW-1) | 0 | MCAT i] ecco: [Cccp moda 0% 360H «1h: 10H = (MCADIP.1) [2] Ecco2 {use 2h 720H 3m: 760H em | te Fe AGAMOjend(MCROIP=i) | 9 | MCA [7] AEME [AE mode Oz auto _t: marwel_ (MCROIPR1}[ oO | MOR! joy FLON | Flickerless mode switch OFF 1:0N(MCADIP-1) |__| MCh} [i] “BiGOr | Back light compensation switch 0-ON 1:0FF (MCADIP=1}| 0 | MCR| [2] awris | IRIS mode uelection 0: ARIS 1: MechafRIS (MCROIP-1)| 0 | MCR| [4] AGCMAX [AGC max gal 61. Oclowleapram) {:high(eeprom) (MCROW=1} | —o_| MCR} [S{ awe! | Awemode auto _t:manuat_gacrpir-1)| “0 {wc | AWB2 | AWBmode MCRD) | 0 | MCR} {a EEPROM WRITE enable O:OFF_{:SEND [2 fc 3 fT [3] RS PROM READ mods hold =wich 0: OFF i: modehokd | 0 | ScS [4[ E2RAL1_| EEPROM READ-1 OOF I:AEAD an (6) E2nAl? | EEPROM AEAD-2 O-OFF 1:READ a ——— iu ESA [EEPROM READ -4 0:0FF_1:READ Ho + Ses 14] H EEPROM read/write code | [3] #1; Initial setting value with Power-on —3s- 960715 Vert.1

Serial Communication Data(16) Category 8 : MCRCON [Micro-controller_ parameters } Serial Input i - eer ROM 7 | E2ADRS EEPROM addrasa ts [9] Fa us lod ue f2|

3 E20ATA EEPROM cate

o rr) [4]

5 SPCODE Micro-contiofier (AE/AWE) custom code

G (SPECIFIC CODE} E Lt 9] us o E SPCDAT Micro-controlia(AE/AWB) cusiom data ~~ f (SPECIFIC DATA) 7] Ld 10] a [2]

11 A External AGC control data

12 A dummy

a A bo [2] iz] Ph #1: Initial setting value with Power-on ~36- 960715 Verl.?

Serial Communication Data(17) Category $: SG [SG parameters || Serial Input Serial Output Byiql Name | Desorption [i] oa: faseal ve [Name] Desorblion ~~ Jaoa of us Hy iN Hl Calegary select code Ay pepe BH Untfixed date output : \\ 71 2 wa | 9] 8G moda 0 | = Hy SGMODE| —onaNT 1K4 areveL snvesLHP a SG setun ouput EVESLHA SILVA FAUTO SGSTA ORINT hell 2h © ae fl {= SVAN JS] tow) | ited TNT Gi @x00198 AUTO i) Te a es 2 ic { | 7[PALSEQ) PAL field sequenceon [9 | sa | ea ws wm 1] . ct] Fi In case of H-PLL > 2 | Ly In cage of H-FESET : rH Unitxed data output rs] Counter load value setting |. rs | zi wa Lo} o- fa | B in case of V-PLL > HH V-Phase adjustment EB In case of V-AESET : Ho} — | ured date output a] Counter load value setting |, g o LSB oon Gn ey a ‘SFTH MSE ODN Q Py Sem] Semcon || 83] 2m Fe hi eae ‘ 5 of | Unixed data outpen | LL | 7] [~~ fa ; “= ‘Shiter setlig for FSC +2] SFTSFC tum Od0g(0N)~315deg(7h) _ a hare Ad “

6 SC osstpul o 6

#1; Initial salting value with Power-on ' os 960715 Vert.1

€X02163R ee KOZ EIR Serial Communication Data(t8} Category 10 : EXTCON [External control parameters _/ Sampling data output || Serial Input Serial Output pap ae = nein at pen ame} —Desatnion [Ps [2] [2 | select code HI Sesser Hy Uniixed data omput E NH +— y food ¥ iz 1 2 | 5 2 "0 tke ES Sampting date output g Pa] MSTY | ter ¥ signal scjustmens | 5] Ga | 6] | o] Tz ca ses {Data format -586) . Col ro ro | ae H Ht Horizontal phase adjustment 3] for camera adjust pulse HY AJSTRY ot pen | 6 oes 8 | fextical phase adjustment Q a reo | “emanates (| | EY aie aaa etal| Fat oroans [oro edit made wien fo TOP! | 131 ajcyey| Samolng ut out HI m for B-Y signal adjustment OPD window [ 6} ‘OPopIsP display selection 6 |

7 Ka seca (eta format -8

| o]PGoN [Test pattem signal on/oti |g | 5G | ro | [PGEIDSEL | Crvoma ID phase sal, [9 | $a | aE | s]PSC01 SEI Cole ber /reiocoune sala {56 | esi § sa . ibe Emm bl | I jojpany [TP H/Vawtch | o | sa | fof | rJPGrsTR | Raster setting |g [sa | cu hors | ersensacin |] | | FE [-a[pasoast| Tey comdeandeetetsa| | LY aicod cla ouput P S|PGSIDAL |'TP by serial data on fullpict.| g’| sa | foo | Pra || WEN (Ohy MAX(3h) 26 ra 4) 1] 2] y2 | B PGDCRS2| Sortal data for test patiom re Linked data output Hi HH | 7] ase (Deis formu = Be) #1; Initial setting vatue with Power-on a 1

960715 Vert1

Serial Communication Data(19) Category 10 : EXTCON (External control parameters / Sampling data output} || Serial input Serial Output | o} 8 q H [2] | 2 Ha] Paocas:| Sain cea 3 Uniixed data outpu 15 | Is 6} zi in 7 [a] fas o 4 | o I Sortal data A .

3 PGOCES2] “tor feet pattern | 00h] Unlixad deta output

G 16] o 6] ‘ 17] vase fi . fo] Cad [0] Hy o 3] ‘Seral dala H fg] PSOCBS1) tor teat pattern | United data output [5] : By i6| (8 7] ape fi #1; Initial setting value with Power-on ~39- . 960715 Verl.1

s x oO = id 4 - Qt lo >t]o fm me) a S o . : e < a2 N a 40 >l15 A 4 A 4 ; z) |? =a </|% alle Nl le al z1[4 cc 5 3 meta] = \\ AE: ft 3 g @oO $ o oof\\? o oa oa ao BS l a 8 we Ries: 272 — ut ~ooOo 2 ge 1 RR aa 2000 w z g: oa ° ro = Po era aw a $$ w e233 ou Ee] ae id « ~Sas ~ 8 a see ( ra —}— “385 A zZ]Tia: ad OES a bd age pet 5 Es G a o uu

P . 2 wo Fe 3 band o > g nN te 7 2 z z x S > ee a t - Ne [>] 4 >o a Ath im z= x zz 5 aX = >> £ oa 5s 2a sz a3>a » Grae Fs = wuta- @ |) 7 5 Hoes 3 -| 08 Oe g& 2 wa |[2¢ DAVREFY ae —— os [on | ssss e er ({}—-—F 4 oa $233-5|(s3 7+ , <¢ ear oo aa ‘ Berea te Sl 535 5 au ou 8 Ses L. xt an a “a mie - ix ad om aa ° 23 Iz o |2 = sa © BE o jf, as 3S} / ee o |ro oH -- De xz? Ee fe} Calle ia 55. 85/182 ys oe os » ~o a- Y a od led u | £3 Nae = as UF a Sel. S “ a5 a g ryt > [Fall e- 72 s ee rq] a |jea ge £8llo < z 2 WSS ‘ 5 oH FP | > 4 ee zN\\ >> 8 se|lS a z[ 3-—— Ter] - Fa . ad SS) 2/153 aero fd ¥|loaH d <qal| 32 Z > yy q >ra aa a \\}]jooe] ¢g SSSilcs > ilpatad + 4 a4urilee ra 2 ifass Ej a a nor || ss o = ifomm = J aa> oad < g - r Sod 2 o ae tee 4 >zo0 @ og -ar a # >|lse2| 8 Brita

5 CU SEE ans

$ 1 . cas a < 200 BES _ = = 2 SSS See ; SES a £ Fy bed N x

o =- s 4 Fa E © rt ia A a © = N z z w s a ft) e wu x & b= 4 X o s > o o by >: < Ee 8 4G pay < w ao FA rd ao . iN iN oz w a e wees 2 = FS ao « a] fo 32 = ° > £E 8 z 23 ea x ee 5s Q] ]e Q2(33) g8 ) J pa 3 2 OAWRER z TT] o x nai rs Fi Spo |e si/ 8 2 “4 . 2 o a eee gay a e@j<o--wuw ¢o Bhotweew sl | we e ” @>35Z2¢4€93 FR @ Pere 4g 3 hl 2X si|emgqouerr wa Bhd Bo oe : Sp sz £/Jwomo>>>> 39 Py) | eee oo es — a B/|[zee\\eneo «a pay CATS fa NS Sl|lacn o-oae 0 fain [rere | . ese Sees-te

0 ESOS Peek SEE See —4e

“ ihe tad BSS ESEFZ* 5G ae are ttt | ras seqaire ary Be a aa z SSS SSESECSS J re _[aeo-}" we GR BEEE us ' ec bests eee ea ees Py _ - J N « @ 3 - alee: 4 ns FETE - g|| 232 . 4 allses S o \\ | as PY) Be ask 2 ie etaie $ «90 wyy L ooo r] Ww odad a a . -sas4 a 4oo0a . ge eases <1 43 | 122 z be aan Baa olZ3|fshe 1 BEBE a ee eT yea) | Bs roee Rbpae Soa! Zi reese

a , z = 3 4 3 N _ z a xzi> . a =< aa eee: . “7 u zz . a ' w te M s ; o Fe db Son a ° woorsa mt, . x ord mu-dtat— . a ~ ur BOsrro || - : S tatele QEE@ag TT ar bd PIC ESES OO || ae vans: <00zzo ff ooo wh BEREEE BS it S533) ro 7 i” none o eee | ESI SS355 C SSESESS } HS) mm bo ee oe Q 3 zz aa El Jes ||fie] 122

2 Be eR i [ees ty

3 qi Te|/S2s| | se ' a gr > xrr aa ” Y KOA EDS ' [a] a al { € oe vr ‘o ssusciaa a --— aN az

3 JP IF AZIZ IE Te NARERERE rFeI 34 34 F

platalelerstatatahs TIrTrIzzzz zzrerucscuoon L ggooecaugd edg50000 COGEDDR0000

3 PEE FRERRERER OOFREREREEPF

2 ZZZ222zZzZzZzZZ Zz2zZZnvnnG SELZ2AZZzZzzzz

$ wee ee easel -S-4ETIT q€q5-e-55552 E See || San || Dee eee LL ae NGC Mor ODS or NnadMOoRD 9I-NOCTMOrOado- 4 cecee = Petceeree — s -28eseeese2{|-2etseseel||-seseesese2 s oBSEEESESE2 [| -ESEESESE||TESESESES ESS a eee eee [freee oeny) | (eeseesccves oe *SSSSSSSSSS | oSSSESSES) | CERZSZESSSEE5 5 © ° a a a

t yl oa ~ © 4 by 3 oO = z rn B ole 9 s wu NF S FA Qusk < 3 ao Or>Ir fb \\ Le Qo rer er] a aL in | : aoaoye : o = - z w geben ( zege- 2 rel bestteice: |e SSSR eS 2 zoll[ jas: \\ a a. Lanne DRO 7G zr Tt al La eeeete = SESS 0S a G WJ oa o 9 | o 3 t- Ze za Fat o baad >~wW a a im oo eon = kk, a s N z A z 3 = Fa = i a t = uw < o Py &: w = n I * g = g <3 . ’ Zz s. Iz xro| o > z a. >a | © a a 2 7 | a Oo a 8: AT ” \\ a a 1 Oo a > € O>ooN 4 a Li) Q wZg> i o ~~ Oo 3-mF 2 x a N gfa0 iS $ ¢ c = adia silx ict

9 QO >+¢a 2 a4

Sad © @€\\\\X\\s ‘Oo NaoZuxr> $ Suw--or, a An000NG x a@r2z2275 oe . bFaor>Goo 3° o ZOMHadE § a> a

5 Bao 8

Ee raoweag \\d = eese geeeegs £ SERRSRE re--a00 o kobe — SSSESEES o _———.. ro

i ae cy z § 3 nN a o rs. i

4 E3 =

i] 3 : cS ow % Hage Fa ae a) | ° $f Ay . s he eal os] 8 3 a4 eg b4 zg . } 2 ° fe fed ow . e ed 0 sl gy s He 2 3 Psp a |. ees 5 1 : I las 4 a] = > z o [a9] se] ez ™ : + a aging Siac eb SF needa SE Soe .——5 5 ieee ae a § ws H eee! LakeP oso ot z : tee TERE Beg f° a0 tie 3 in a el eps gE] ortnz a. et Bieta § ol: = wer

Spec code(1) Spec code: AE {CATS bdyte9 code= OXhex } | Code bil Name | Description #1 | tock [Acros | i as ZI . ql us 02 a AEUSA AE USA define i typical video level . Q € I? wen a} rT} o oO AE AGC-amp max gain 5] a low-mode DIP switch 18] 17{ wea fol rr) [4] AE AGC-amp min gain a 16] 7] wap Hl om ; 3] [4] a In [7] loj tsa

13 AE AGC-amp max gain

ie] B a #1: Initial setting value with Power-on — 46-— ‘ 960715 Ver1.7

Spec coda(2} Spec code: AE (CAT8 byte? code= 0Xhex } Code fr _Name Description #1_| Bock | address _| we

07 A AEBLLY AE Back Light Level

[8} 7] as a - 7 2 . Sy HISTOFF AE HISTOGRAM function ewicth | on 1: off Oo

7 Z| Pt

ro} ry [4] {2/ A AE Wind? weight a 18] 7] a0, lo} us [1] a ‘ AE Wind! woight tS] Fa ol] cr) fa] aj a AE Wind? weight a fa =e of rr [3] d | WOWEIT AE Wind3 woight a 128 #1: Initial setting value with Power-on -47- | 960715 Verl.1

—naa——wrvrv[Wmwnnaamnmanwr[vnwn Spec code(3)} Spec code: AWB (CAT8 byte9 code= 1Xhex ) | Code bil Name {Description Tit Feo Tras | : 1] B

3 AWBSPED AWB Feecback speed

is] Fa use lo} i a a AWB Convergence area | {Chroma vector FRAME) c 4 = o Fa [3] WBRSFT WB Conerpanee prick shit (Red iG iz] me o [r] o ey] _wooer we Convenes Ponto fo Fa LJ f +} WEUSRR WE Convergence paint (Rad) A at USR define moda fe) fi ae {1 | a Convepene we it Bl q Mi) mUSH dete moae | Lal #1: initial setting value with Power-on — 4g- \\ 960715 Vert.1

Spec coda(4) Spec code: AWB (CATS byte9 code= 1Xhex } ry eI AWB WB-ame gain (ad 17 q AWBPRER a Pee as balance mode Z 30 fl 138 A AWB WB-smp h0) A Biwi d TIPRE hte betance mode la! { #1: Initial setting value with Power-on 960715 Ver1.1

SSS ————eorreosaemneeerrvmnione le aS EL Spec code(5) Spec code: FIXOPO (CATS byle9 code= 2Xhex ) | Gode faf_ Name [Description AT | Stock | Acirons |] Io} um o [2] [4 H COUNTER wih [5] [3] fi on, lo} om o FA

22 A Winds H START

B 7] sen fi oO Oo [2] A SPWAWIDH a Fa o A [ap | SPwasTAV Winda ¥ START i oO a C=] [2 | ¢ 3 SPWAWIDV #1: Initial setting value with Power-on ~so- 960715 Ver1.1

Spec code(6) Spec code: Suppress (CAT8 byte® code~ 3Xhex } 1S} 48h I Chroma. suppress aI nits start polnt (AGC gain) 16] (7 LJ lol ts ao B 2} csprseno Chroma suppress A end point {AGC gain) { | 6] Fl use [0] a A ‘Chroma suppress I] cars suppress level st end point Is | fa CJ lo] ry [| 48h A a Q ASPRSSTA tart pol (AGC gain) is iJ lol T38 Oo F a El [4] ASPRSEND ‘Apacom suppress a end point (AGC gain) tel . 7 | Cd [o | ry io Apacom suppress a suppress level at end point i 17 | 98 #1: Initial setting value with Power-on — 5I~- . 960715 Verl.1

Quadrant parameter of linear matrix (CAT2 byte7 ~14) | Code bt Name | |____ Description tT tock | Acres | o B

3 RYGAING AY Gain 191 qued

a fel Fa MSD lo} i o a B-Y Gain 11 quad oO { = io | ry a [2] 13] . fal RLY Galt 2nd qued qa 7 6 | 7 | was o isa o A ga BYGAINZ B-Y Gain 2nd quad zi lol rr) fl i2| t A FLY Gain 3rd quad ff la | fa 20 : lo] Z A B-Y Gain rd quad | a + a #1: Initial setting value with Power-on -§2- 5 960715 Verl1.1

Quadrant parameter of linear matrix (CAT2 byte7 ~11 ) [-Gode ft _Name_{___Desciption Tt | eo Trans | | B FeY Gain 4th quad : : ti ry o B [3] Fal B-Y Gain 4th quad i? wt, i oO Co FY Hue tsi quad 15} Fa I lol ie Hl a

4 BY Hue tst quad

15] a 17] Cay lo] [ry i A ' A R-Y Hue 2nd quad ts | A 17] 190 i} 18 / BYHUEZ BY Hue 2nd quad | Hi = #1: Initial setting value with Power-on - 53- ' 960715 VerT.1

. CxXD2163R eee Quadrant parameter of linear matrix (CAT2 byte7 ~11) [Code fol __Name | Description |W] ox [xen] [ol rr RYHUES RY Hue rd quad B a 7 ue lo} = n B BYHUES BLY Hue 3rd quad is] go ( 7 20 lo] Ome Ny B

3 R-Y Hue 4th quad

a 7] 98 jal 1. Li [2| A BY Hue 4th quad . [5| B iz] i #1; Initial setting value with Power-on ti ~Ss4-0 960715 Verl.1

Y-GAMMA (YKNE=0) vara } 140 rw 120 es { YG? H ij ao pon CZ“ | 2 so F.| . Ye Co } . ( 20 ig ; =o oe . ° 50 100 150 INPUT LEVEL (%} Y-KNEE (YGAM=4) 180 ( 140 f . Lo 120 _ z oman H @ a0 Baar a a YRNE=S E ¢0 ‘nena

3 YKNEX3

a YKNE=2

20 YKNES1 |

0 : 0 50 100 150 INPUT LEVEL (x) — 55 - B60715 Vert. 1

. CXD2163R eee KD 2163R_ C-GAMMA (CKNE=7) 200 a0 F | 1 160 “mee = 140 a a j g 120 WH | = 100 y = 80 ae 5 2 ot | WZ ' 20 +7 aa : o 0 50 = 100s 180 200,250 300380 INPUT LEVEL (%) C-KNEE (CGAM=4) 200 = ‘ 180 eas 160 EE a 120 ome cone a moe 4 100 ote 2 80 ones 3 «0 ° 50 t00s—s150s 20025030050 INPUT LEVEL (x) =- 56 - BGOTIS Verl. t

a Package Outline Unie: mm . 100PIN LOFP (PLASTIC} D100 202 5 : E A EB 100 = = 2 taz cet 3 . nos} bad +005) OS 2008 0.18 - 0.03 202 a 0.127 -0.02 0.1201 [ 2 NOTE: Dimension *+" anes not Incivce tokd prowtaion, oF t0 10° 3 aT A PACKAGE STRUCTURE [ero wane’ —[eowen maton | [owen Teac | 960715 Ver1.1