KPI-210C KODENSHI | Alldatasheet
Document overview
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Technical content
FEATURES
- High Performance
APPLICATIONS
- Tape-end Sensor
- Timing Sensor
- Edge Sensor
- Copiers ABSOLUTE MAXIMUM RATINGS (Ta=25¡É) ELECTRO-OPTICAL CHARACTERISTICS (Ta=25¡É)
- Widely Applicable 15 mA Light Current IL VCE=5V, IF = 20mA (Non-shading) 0.5 - Parameter *1. Pulse width : tw¡Â100µsec.period : T=10msec *3. For MAX. 5 seconds at the position of 1mm from the package Photointerrupter(Transmissive) Operating Temperature *2 TOPR IC mA TSOL -25 ~ +85 100 ¡É260 -40 ~ +85 mW Soldering Temperature *3 *2. No icebound or dew IF VR IFP PC VCEO PD
40 Collector Current
Storage Temperature *2 TSTG Collector Power Dissipation Output Collector Emitter Voltage Emitter Collector Voltage VECO Forward Current Reverse Voltage Pulse Forward Current *1 Power Dissipation V V Symbol Input Unit 100 mW mA V A Rating Dark Current Input Peak Wavelength Output Capacitance Forward Voltage VCE=5V, 0 Lux Coupled Rise Time Response Time Fall Time Collector Emitter Saturation Voltage tr tf VCE(SAT) ICEO IF=20mA, IC=0.1mA VCC=5V, IC=2mA, RL=100§Ù - µs µs TYP. 1.2- MIN. 940 - 25 -- 10 V µA10 µA nm- - PF MAX. VR=5V KPI-210C KPI-210C combines a high-output GaAs IRED with DIMENSIONS The photointerrupter high-performance standard type 1.7 Unit
DESCRIPTION
a high sensitivity phototransistor.
- GAP : 3.18mm
- High Speed Response V0.4-- CT f=1KHz Parameter Reverse Current IR Symbol VF Conditions IF=20mA
Photointerrupter(Transmissive) KPI-210C Power dissipation(P ) Forward current(IF) Relative light current(I ) Response time tr, tf Input Moving distance(L) LRoad Resistance(R ) tf 10 3 tr 4 ( )§Ù Method of measuring position detection characteristic 0 £«£ 0 +2 -2 +20 (mm) Optical Axis(X) Output td tr Optical Axis(Y) tf 90% 10% Ambient temperature(Ta) Forward voltage(V ) Relative light current(I ) 100 (§Á)
10 I =10mA
V =5V Ta=25¢ª3 F CC C 100 (%) X L 0 -20 L (%) Ambient temperature(Ta) 40200 60 80 (¡É) 0 0.5 Response time measurement circuit CTa=25¢ª I =10mAF CCV =5V Y CTa=25¢ª I =10mAF V =5VCC Input IC 200 40 (¡É)60 CCV RL VOUT I =20mAF CEV =5V 1.0 1.5 (V)2.0 F (§Ñ) 100 C (§Ì) 100 Ta=25¢ªC Collector-Emitter Voltage(V ) I =10mA F 6 108 (V)12 CE I =50mA I =40mA I =20mA I =30mA LLight Current(I ) (§Ì) F F F F Ta=25¢ªC Forward Current(I ) 2010 (mA)30 40 F Light Current(I ) (§Ì) L C CE Ta=25¢ª V =5V Collector power dissipation Vs. Ambient temparature Forward current Vs. Forward voltage Light current Vs. Forward current Light current Vs. Collentor-Emitter voltage Relative light current Vs. Ambient temperature Switching time Vs. Load resistance Relative light current Vs. Moving distance Power dissipartion( P C ) Forward current( I F ) Light Current( I L ) Ambient temperature(Ta) Forward voltage( VF) Forward Current( IF ) Light Current( I L ) Relative light current( I L ) Response time tr, tf Relative light current( I L ) Collector-Emitter Voltage( VCE ) Ambient temperature( Ta ) Load Resistance( RL ) Moving distance( L ) detection characteristic Method of measuring position Response time measurement circuit Optical Axis(X) Optical Axis(Y)
Relative light current(I ) Moving distance(L) Method of measuring position detection characteristic 0 +2 -2 +20 (mm) Optical Axis(Y) tf 90% 10% Ambient temperature(Ta) Forward voltage(V ) 100 (%) X L Response time measurement circuit CTa=25¢ª I =10mAF CCV =5V Y CTa=25¢ª I =10mAF V =5VCC IC 20 40 (¡É)60 CCV RL VOUT I =20mAF CEV =5V 1.5 (V)2.0 F Ta=25¢ªC Forward Current(I ) 2010 (mA)30 40 F Light Current(I ) (§Ì) L C CE Ta=25¢ª V =5V Forward current Vs. Forward voltage Light current Vs. Forward current Relative light current Vs. Ambient temperature Relative light current Vs. Moving distance Light Current( I L ) Forward voltage( VF) Forward Current( IF ) Relative light current( I L ) Ambient temperature( Ta ) Moving distance( L ) detection characteristic Method of measuring position Response time measurement circuit Optical Axis(Y)