QSE113 onsemi, 25 ° IR Phototransistor, Through Hole 2-Pin Side Looker package
- RS stock no.:
- 146-2097
- Mfr. Part No.:
- QSE113
- Manufacturer:
- onsemi
500 Available from UK/Europe in 4–6 working days for collection or delivery to major cities (Heavy, hazardous or lithium product excluded. Delivery T&C's apply)
Not Available for premium delivery
Added
Price (Excl VAT) Each (In a Bag of 500)
R 7,931
(exc. VAT)
R 9,121
(inc. VAT)
| Units | Per unit | Per Bag* |
| 500 + | R 7,931 | R 3 965,50 |
| *price indicative | ||
- RS stock no.:
- 146-2097
- Mfr. Part No.:
- QSE113
- Manufacturer:
- onsemi
Technical data sheets
Legislation and Compliance
Product Details
QSE113/QSE114 Series IR Phototransistor
The QSE113/QSE114 series, from Fairchild Semiconductor, is a range of silicon IR phototransistors. They are in a side-looking (SL) through-hole package. Their black plastic packages have a wide angle and are IR transparent.
Features of the QSE113/QSE114 IR phototransistors:
NPN silicon Infrared phototransistor
Package type: Sidelooker
Medium wide reception angle, 50°
Package material and colour: black epoxy
Daylight filter
High sensitivity
Operating temperature: -40 to +100 °C
NPN silicon Infrared phototransistor
Package type: Sidelooker
Medium wide reception angle, 50°
Package material and colour: black epoxy
Daylight filter
High sensitivity
Operating temperature: -40 to +100 °C
IR Phototransistors, Fairchild Semiconductor
Specification
Attribute | Value |
|---|---|
| Spectrums Detected | Infrared |
| Typical Fall Time | 8µs |
| Typical Rise Time | 8µs |
| Number of Channels | 1 |
| Maximum Dark Current | 100nA |
| Angle of Half Sensitivity | 25 ° |
| Number of Pins | 2 |
| Mounting Type | Through Hole |
| Package Type | Side Looker |
| Dimensions | 4.44 x 2.54 x 5.08mm |
| Collector Current | 1.50mA |
| Spectral Range of Sensitivity | 880 nm |
| Maximum Wavelength Detected | 880nm |
| Height | 5.08mm |
| Width | 2.54mm |
| Length | 4.44mm |
- RS stock no.:
- 146-2097
- Mfr. Part No.:
- QSE113
- Manufacturer:
- onsemi