Images à titre indicatif uniquement
MOC3023S-TA1
+NomenclatureOPTOISOLATOR 5KV TRIAC 1CH 6-SMD
-
FabricantSociété par actions litone.
-
Pièce fabricant #MOC3023S-TA1
-
Fiche technique MOC3023S-TA1 DataSheet
-
En stock24414
365 Garantie qualité 24h/24
7*24 Garantie de service 24h/24
90-Garantie après-vente 24h/24
Garantie produit authentique
Spécifications
| Attribut | Valeur |
| Series | MOC302x |
| Part Status | Active |
| Output Type | Triac |
| Zero Crossing Circuit | No |
| Number of Channels | 1 |
| Voltage - Isolation | 5000Vrms |
| Voltage - Off State | 400 V |
| Static d V / dt (Min) | 1kV/µs |
| Current - LED Trigger (Ift) (Max) | 5mA |
| Current - Hold (Ih) | 250µA (Typ) |
| Voltage - Forward (Vf) (Typ) | 1.15V |
| Current - DC Forward (If) (Max) | 50 mA |
| Operating Temperature | -40°C ~ 100°C |
| Mounting Type | Surface Mount |
| Package / Case | 6-SMD, Gull Wing |
| Supplier Device Package | 6-SMD |
| Approval Agency | CQC, CSA, TUV, UL, VDE |
| Base Product Number | MOC302 |
Présentation
Description
The MOC3023S-TA1 typically features a gallium arsenide infrared LED optically coupled to a silicon phototransistor. This configuration allows the MOC3023S-TA1 to effectively isolate high voltages while transmitting data signals. The device is noted for its high input-to-output isolation voltage, low input current requirements, and fast switching speeds, making it efficient for various electronic applications.
Its compact design allows for easy integration into PCBs, and it comes in a surface-mount package, facilitating automated assembly processes. By providing a reliable means of signal isolation, the MOC3023S-TA1 enhances safety and performance in electronic systems, protecting sensitive components from high voltages and noise.
Equivalent
Features
1. Optoisolation: Provides electrical isolation between input and output, enhancing safety and reducing noise interference.
2. Input-Output Isolation Voltage: Rated at 5300 VRMS, ensuring robust isolation.
3. LED Forward Current: Requires low input current, typically 5 mA, for efficient operation.
4. Zero Crossing Circuitry: Includes a zero-crossing detector, which helps reduce electromagnetic interference and enhances the reliability of TRIAC switching.
5. High Sensitivity: Capable of driving TRIACs with high gate sensitivity, making it suitable for low signal applications.
6. Fast Response Time: Effective for applications requiring quick triggering.
7. Package: Available in surface-mount and through-hole DIP packages, providing flexibility in design and integration.
8. Temperature Range: Operates over a wide temperature range, typically from -40°C to +100°C, suitable for various environments.
This optoisolator is commonly used in applications like motor controls, lighting controls, and AC power control systems.
Pinout
Here is a brief overview of its pin functions:
1. Anode (LED): Connects to the input voltage to activate the internal LED.
2. Cathode (LED): Connects to the ground or negative side of the input voltage.
3. NC (No Connection): Not internally connected; typically left unconnected.
4. MT2 (Triac Output Terminal 2): One of the primary output terminals of the internal phototriac.
5. MT1 (Triac Output Terminal 1): The other primary output terminal of the internal phototriac.
6. Gate: Controls the triggering of the internal phototriac.
This configuration helps in controlling AC loads while providing electrical isolation between the low voltage control side and the high voltage output side.
Manufacturer
Application
1. Triac Driver Circuits: It interfaces low voltage control circuits with high voltage AC loads.
2. Solid State Relays: Used for isolating and switching AC loads.
3. Phase Control Applications: Employed in light dimmers and motor speed controls.
4. Microcontroller Interfacing: Provides isolation between microcontrollers and high-power devices.
5. Switchmode Power Supplies: Helps in feedback control while maintaining isolation.
6. Industrial Control Systems: Facilitates safe communication between high voltage equipment and low voltage controllers.
Its primary role is to ensure safe and efficient operation in systems where isolation is crucial.