PC714V SHARP | Alldatasheet

Document overview

  • Manufacturer or author: Provided By ALLDATASHEET.COM(FREE DATASHEET DOWNLOAD SITE)
  • PDF pages: 4

Technical content

PC713V/PC714V General Purpose Phatooeuri General Purpose Photocoupler 3% Lead forming type (I type) and taping reel type (P type) are also available. (PC713VV/PC714W/PC713VP/PC714VP) (Page 656) xe TUV (VDE0884) approved type is also available as an option. @ Features lf Outline Dimensions (Unit : mm) 1. TTL compatible output pc713¥ 2. Current transfer ratio f . (CTR : MIN. 50% at Ir=5mA, Vce=5V) 92022372 agram 3. Low collector dark current WORORO) (lcs : MAX. 10°7A at Vce=20V) ae 3 4. High isolation voltage between input and 3 output (Vio: 5 000Vins) Fake man POD 5. Recognized by UL, file No. E64380 zage0s reotee 23 ot ®T anal Teton ae cme 1. System appliances, measuring instruments % en J 8 ante! \\ 2. Registers, copiers, automatic vending os: L machines aa” gerow rs Tet 3. Electric home appliances such as fan anode g Emitter heaters @Nc © Base 4. Medical instruments, physical and chemi- cal equipment 5. Signal transmission between circuits of different potentials and impedances PC714v Internal connection i Absolute Maximum Ratings (Ta=25'C) agseat are agra Parameter [Symbol]|_Rating | Unit E.0.0 [ Forward current [Tp [50 [mA ‘Anode 8 MPeak forward current [Tew [1 | A’ mark a Input [Reverse voltage | Ve [6 | OV 3 {Power dissipation _|" P70 | mW. oo Soo. Vv Rank mark {0°@"O [ Emitter-collector voltage | Veco | 6 | V 712205 7162203 Output PEmitter-base voltage | Vepo [6 | _V 3 [ Collector power dissipation [Pe [150 | mW" 52 lana 3 ‘\\ Total power dissipation | Px | 170 _|_mW “3 ry | i \\ “Isolation voltage [Vis | 5 000 | Vim x Operating temperature | Tope [25 to+00) Sara] 3/4 ozsse Storage temperature c 25a%2s /5"=0 0013 5 “Soldering temperature [Ty [260] #1 Pulse widths 100s, Duty ratio=0.001 Anode @ Emitter

2 Applies only to PC713V @Cathode & Collector

%3 40 to 609%RH, AC for 1 minute ONC ®ne

44 For 10 seconds

PT _

lf Electro-optical Characteristics (Ta=25) Parameter Unit | Forward voltage | Ve [r= 20mA | ee OV Input [Peak forward voltage | Vew [Im=05A | = T= 80 TV [Reverse curent |e [Ve=tv T= te [Terminal capacitance |G [V=0, f=ikHz 90 250 | Output [Collector dark current | Tewo | Vor=20V, Tr=0, *Rae=oo | = [= 07 | A [*Current transfer ratio | CTR | Wr=5mA, Vee=5V, “Ree=oo | 50 [| = | 600 | % rate wage [vomit Rotate | — | ot | oa |v charec- DCSOOV, 40 to SORA [5x10 | wo [| a teristics [Floating capacitance | Cr_|V=0,f=IMHz | = | 06 | 10 | oF | Cut-off frequency | fe Wares, md, R=100,*Re=@ | — | 80_ [= | ke ts eee Ri=1000, “Rar=co P= [3 [is es %*5 Applies only to PC713V #6 Classification table of current transfer ratio is shown below. Model_No CTR(%) PC713V1/PC714V1 80 to 160 perisva/pc7i4v2 | BS «130 to 260 PC713V3/PC714V3 200 to 400 PCT13V5/PC714¥5 80 to 260 PC713V6/PC714V6 130 to 400 C713V8/PC714V8 80 to 400 PC713V/PC714V 50 to 600 Measurement conditions Ip=5mA Vce=5V Ta=25C Fig. 1 Forward Current vs. Ambient Fig. 2 Collector Power Dissipation vs. « Temperature 00 Ambient Temperature 2 2 150 2 Es E 30 2 100 & 3 Ex g at a ° 0 2 0 25 50 rey 100 125 8 0 25 50 5 100 125 Ambient temperature T, (C) Ambient temperature T, (C)

Fig. 3 Peak Forward Current vs. Duty Ratio Fig. 4 Forward Current vs. Forward Voltage g _ ect th oom ™ eee Se Oe ee TT 2° Set FS eS ——— — = i —— si eee eee dd ee | | soo FASE Hy = ea SA OTT zg 2 eae A ee ee Sy Hi Cocoon a ||| ee | 2 ce a 5 32 5 12 5 whe so. 0 05 #10 #15 20 25 30 35 Duty ratio Forward voltage Vr (V) Fig. 5 Current Transfer Ratio vs. Fig. 6 Collector Current vs. Forward Current a9 ecto -omittor Voltage 200) = | Pret h Se | = w|i 23 7 Reo [wo TT TT ne is See OATS i eee) SP oan) 2 Aen HA EH annnnEnE8 aT PAU TTT d | 1 2 5 10 20 50 0 1 2 3 4 5 6 7 8 9 Forward current Ip (mA) Collector-emitter voltage Vee (V) Fig. 7 Relative Current Transfer Ratio vs. Fig. 8 Collector-emitter Saturation Voltage vs. Ambient Temperature 5 oaAmbiont Temperatu 150) 1

2 A jiem FTTTTTT

i a a a E ose} te=1ma i a eS a “T a ge ———— tLe es es a ¥ cooper] i a § oe _——— fool LUT TTT as 0 cy 50 75 100 8 ° Me) 0 20 40 60 80 100 Ambient temperature Ty (C) Ambient temperature T, ()

Fig. 9 Collector Dark Current vs. Fig.10 Collector-base Dark Current vs. _, Amblent ‘Temperature ot Ambient Temperature Mca=== == ~6| re ae ey | es ey A a | a a a 4) oe PEE A Pt eS —— 5 a) es ee ey a E a es A i a oe) a A 3 ae 31} Af] | | i a aon = ———— z po ft 3 _— a [A= & Je a a wa_| | TT | -30 3 50 75 100 0 25 50 fy 100125 Ambient temperature T, (‘C) Ambient temperature T, (C) Fig.11 Response Time vs. Load Resistance Fig.12 Frequency Response 500 eet ee seee Vee=2v FPP MMT TTT TMT vee=sv 200) Io=2ma HICH oH SETH) tc=2ma oo} Ree=oo ULI CSS SSSI Rae=<° 7 w| Tenet Be = TOO NIEN PN eee Se ee s UM UNIT TNUTIK TTT - PT eet = 1 NI zg * IE |] eae? es TTT < HELENE rocaoxo ko 0a PB siti eacsti naar SUM TTI TTT VT i 2 (ee ne 8 TM IN TTI NTT ei 2 \\ o2 CRC CCT oy LOLI TE) UHI TPP OL 1 Ww 05 1 2 5 1 20 50 100 200 500 Load resistance Ri (kQ) Frequency f (kHz) Test Circuit for Response Time Test Circuit for Frequency Response Voo put Output Voc Input ee R 70% fe R Po Output \\.--- | 20% Output tele & 2 Le (PCT14V has no base terminal.) (PC714V has no base terminal.) Please refer to the chapter “Precautions for Use” . (Page 78 to 93)