| Distributor | Stock | Pricing | MOQ | PKG | Lead Time | Date Code | On Order Quantity | On Order Delivery | |
|---|---|---|---|---|---|---|---|---|---|
|
150,667 pcs
|
150667 pcs | On Request | 1 | On Request | On Request | On Request | On Request | On Request |
| Category | |
| Manufacturer Name | |
| Continuous Forward Current | |
| Mounting Type | |
| Power Dissipation | |
| Tape & Reel |
The Vishay Dale VOD206T is a dual channel optocoupler designed for applications requiring high electrical isolation. It utilizes a GaAs infrared LED coupled with a silicon NPN phototransistor to transmit signal information, including DC levels, while maintaining a significant degree of separation between the input and output circuits.
This optocoupler comes in a compact SOIC-8 surface-mountable package with standard lead spacing. It is compatible with various soldering methods, including dual wave, vapor phase, and IR reflow soldering. The device offers an isolation test voltage of 4000 V RMS, ensuring robust performance in demanding environments.
Key electrical characteristics include a continuous forward current of up to 30 mA per channel and a collector emitter breakdown voltage of 70 V. The Current Transfer Ratio (CTR) ranges from 100% to 200% at 10 mA forward current, and greater than 100% at 1 mA forward current. The device is available on tape and reel, conforming to EIA standard 481-2.
With its dual channel design and reliable isolation capabilities, the VOD206T is suitable for various industrial and electronic applications where signal isolation is critical.
| Qty | Low | High |
|---|---|---|
| 1+ | $0.33 | $0.33 |
Estimated market price range - modelled values for guidance only, not live distributor offers.
The isolation test voltage is 4000 V RMS.
The minimum collector-emitter breakdown voltage is 70 V.
The CTR is 100 to 200% at 10 mA, and greater than 100% at 1 mA.
The maximum continuous forward current is 30 mA per channel.
The VOD206T is available in a SOIC-8 surface mount package.
The maximum power dissipation is 50 mW per channel at 25°C ambient temperature.