PC314 SHARP | Alldatasheet
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_ SHARP ELEK/ MELEC DIV SE 0 ff 4180798 ooozare af A Photocouplers 1-41-83 PC314 Series PC31 4 Seri es Opaaue’, Mini-Flat Package, AC Input Type Photocoupler @ Features @ Applications . 1. AC or Polarity insensitive inputs 1. Hybrid substrates that require high density 2. Opaque type, mini-flat package mounting PC314 (1-channel) | PC3D14 (2-channel) 2. Programmable controllers PC3Q14 (4-channel) 3. Subminiature type (The volume is smaller than that of our conventional DIP type by as far as 30%.) 4, Isolation voltage between input and output Viso : 2,500Vrms j * Employs double transfer mold technology. ™@ Outline Dimensions (Unit : mm) PC314 PC3Q14 a Internal connection | . s diagram Internal connection 3 a IS Ts of “al co ° 5 | Fa Se | $e Is oft Yo a OL ol Ale ll = i) ® 4) sa a} eg EF | 5 5.2: . 8 3 ie | 3 cle 2 : ; FA 2 Tun tea | gk eee ostts If FS (7) Anode, Cathode @ Emit d = DaAnode Cathode @ Calor SMa VS PC3D 14 Internal connection 5.2203 ie 16.2903 ay ye to) © Sj 3. 7 : le 2 fo) 7.088 4 = Fi 0) 1S 4ate2 | 3 3) sam) 2 7.93#02 Onnode Cathode E: "—_5 QDGGEmit 7.0°33 f0.5*84 3] ®~@ Anode, Cathode 3 © © Emitter ®® Collector SHARP 242
i SHARP ELEK/ MELEC OIV 1SE DO i 6180798 OO0281? S I i rnotocouplers PC314 Series @ Absolute Maximum Ratings (Ta=25°C) Parameter Unit [Forward current | tr | #50 | ma Input [Peak forward current [iw | #1 | A . | Power dissipation | P| 0 | mW Collector-emitter voltage | Veo | 3 | V Output |_—Emitter-collector voltage [Veo [| 6 | V Pu|_ Collector current | te [50m : [Collector power dissipation [Pe | 150 | mW. Total power dissipation [Pw | 170 | mW “Isolation voltage 2,500 Vims Operating temperature =30~+100] °C Storage temperature c **Soldering temperature [ To. | 20 | C *1 Pulse widths 100s, Duty ratio=0.001 #2 RH=40~60%, AC for 1 minute 1 3. For 10 seconds i Hi Electro-optical Characteristics (Ta=25'C) i Parameter [ Symbol [__Conditions___| MIN. | TYP. [ MAX. Unit Input Tp= £20mA, | = | 12 | ia Tv Output | Collector dark current |“ ceo _| Vee=20V, Ip=0 [= | — [a7] a I= t1mA, Vee=5V | 2 | — {300 | % Tp=£20mA, Ie=1mA {| — | oi | o2 | v Transfer [solation resistance | Riso_| DCS500V, RH=40~60% [sxio"| ov | — | a charac- v7 5 =0 f= ae V=0, iM P= casa pF 6 | ! | Response time (Rise) | tr__| Vee=2V, Ie=2mA [= | 4 | is [us i Response time (Fall) | t;__ | R.=1000 ae ec Fig. 1 Forward Current vs. Fig. 2 Collector Power Dissipation vs. Ambient Temperature Ambient Temperature wt TTT " a tT i 2 os a 150 4] ALT § ~ 40) g Y =F ba tT TAT i 2 ag IN s pe ee i Hy z 2) i Es oe oe oe i 10] 8 ttt tt | 3 =30 0 5 50 7% 100 125 cry 0 25 50 75 100125 Ambient temperature Ta (‘C) Ambient temperature Ta (C) 243
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§ wp COMET TT 5 pee eueweertce a Se | a eee o2| ob SEES FS A 3 0 2 (40 60 80 100 . Ambient temperature Ta (‘C) Load resistance Ri (0) ! Fig. 11 Collector-emitter Saturation Test Circuit for Response Time 56 Voltage vs. Forward Current SS vsninmeee: La c= 0.5mA, Ws yo RECT eter | | Input R output > LRA a 5 put 3m mae | wf ey is H a FIT TT Ba LUT LT UA ea o 1 2 3 4 5 6 7 8 9 Forward current Iy (mA) |Pc3+ +2] ipe. | Sleeve package (Net: 125 pcs) [| | |Pc3++ | 3,000 pes. | Taping package (Net: 3,000 pes.) | 370mm | 12mm __| [pc3+ +t] 750 pes. [Taping package (Net: 750 pes) | g178mm | 12mm _| a SHAREPT 245