ALTERNISTOR TRIAC Triode For Alternating Current (TRIAC) 2,322

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Part RoHS Manufacturer Trigger Device Type Package Style (Meter) Surface Mount Terminal Position Configuration Case Connection Maximum On-state Voltage Package Body Material Maximum DC Gate Trigger Current Non Repetitive Peak On-state Current Terminal Form Package Shape Maximum On-state Current No. of Elements Maximum Leakage Current Repetitive Peak Reverse Voltage Maximum Repetitive Peak Off-state Leakage Current No. of Terminals Sub-Category Maximum Operating Temperature Minimum Operating Temperature Terminal Finish Maximum RMS On-state Current JESD-30 Code Moisture Sensitivity Level (MSL) Maximum DC Gate Trigger Voltage Qualification Repetitive Peak Off-state Voltage Minimum Critical Rate of Rise of Commutation Voltage Minimum Critical Rate of Rise of Off-state Voltage Maximum Holding Current Additional Features JEDEC-95 Code JESD-609 Code Maximum Time At Peak Reflow Temperature (s) Peak Reflow Temperature (C) Reference Standard

QJ6016NH656RP

Littelfuse

ALTERNISTOR TRIAC

Q4008NH456RP

Littelfuse

ALTERNISTOR TRIAC

QJ8016NH456TP

Littelfuse

ALTERNISTOR TRIAC

QV6016NH556TP

Littelfuse

ALTERNISTOR TRIAC

QJ8010NH4RP

Littelfuse

ALTERNISTOR TRIAC

QK008DH456TP

Littelfuse

ALTERNISTOR TRIAC

QJ6016NH256RP

Littelfuse

ALTERNISTOR TRIAC

QJ8016LH556TP

Littelfuse

ALTERNISTOR TRIAC

QJ8010NH5RP

Littelfuse

ALTERNISTOR TRIAC

QV6016NH356TP

Littelfuse

ALTERNISTOR TRIAC

QJ6016RH556TP

Littelfuse

ALTERNISTOR TRIAC

QJ4016NH656RP

Littelfuse

ALTERNISTOR TRIAC

QJ4016NH256RP

Littelfuse

ALTERNISTOR TRIAC

Q4008DH356TP

Littelfuse

ALTERNISTOR TRIAC

QJ8006NH4TP

Littelfuse

ALTERNISTOR TRIAC

Q6008NH356RP

Littelfuse

ALTERNISTOR TRIAC

Q6008VH456TP

Littelfuse

ALTERNISTOR TRIAC

Q6008DH456TP

Littelfuse

ALTERNISTOR TRIAC

QV6016RH556TP

Littelfuse

ALTERNISTOR TRIAC

QJ8006LH4TP

Littelfuse

ALTERNISTOR TRIAC

Q6008RH356TP

Littelfuse

ALTERNISTOR TRIAC

QV6016RH356TP

Littelfuse

ALTERNISTOR TRIAC

Q6008DH456RP

Littelfuse

ALTERNISTOR TRIAC

Q6008NH456TP

Littelfuse

ALTERNISTOR TRIAC

Q8008NH456TP

Littelfuse

ALTERNISTOR TRIAC

QJ8016RH456TP

Littelfuse

ALTERNISTOR TRIAC

QJ8006NH4RP

Littelfuse

ALTERNISTOR TRIAC

Q4008NH356RP

Littelfuse

ALTERNISTOR TRIAC

QJ8016RH356TP

Littelfuse

ALTERNISTOR TRIAC

QJ4016NH456RP

Littelfuse

ALTERNISTOR TRIAC

Q4008DH456TP

Littelfuse

ALTERNISTOR TRIAC

Q6008VH356TP

Littelfuse

ALTERNISTOR TRIAC

QV6016NH556RP

Littelfuse

ALTERNISTOR TRIAC

Q8008VH456TP

Littelfuse

ALTERNISTOR TRIAC

QJ4006DH2RP

Littelfuse

ALTERNISTOR TRIAC

Q6008DH356RP

Littelfuse

ALTERNISTOR TRIAC

Q4008LH456TP

Littelfuse

ALTERNISTOR TRIAC

Q6008DH356TP

Littelfuse

ALTERNISTOR TRIAC

Q4008VH356TP

Littelfuse

ALTERNISTOR TRIAC

Q8008NH456RP

Littelfuse

ALTERNISTOR TRIAC

QV6016NH356RP

Littelfuse

ALTERNISTOR TRIAC

Q4008RH356TP

Littelfuse

ALTERNISTOR TRIAC

QJ8016NH456RP

Littelfuse

ALTERNISTOR TRIAC

Q6008NH456RP

Littelfuse

ALTERNISTOR TRIAC

QV6016LH556TP

Littelfuse

ALTERNISTOR TRIAC

Q4008DH456RP

Littelfuse

ALTERNISTOR TRIAC

QJ6006DH2RP

Littelfuse

ALTERNISTOR TRIAC

Q4008NH456TP

Littelfuse

ALTERNISTOR TRIAC

Triode For Alternating Current (TRIAC)

A Triode for Alternating Current (TRIAC) is a semiconductor device that is used to control the flow of electrical current in AC circuits. It is a bidirectional device that can conduct current in both directions, making it useful for AC power control applications.

TRIACs consist of a bidirectional switching element that allows for the control of AC current in both directions. They are typically used in applications where AC voltage needs to be controlled, such as in lighting control, motor speed control, and power supplies.

TRIACs work by applying a small current or voltage to the gate terminal, which allows current to flow through the device. Once the current reaches a certain level, the TRIAC turns on and conducts current in both directions until the current drops below a certain threshold, at which point the TRIAC turns off.

TRIACs are commonly used in conjunction with other components such as capacitors, inductors, and diodes to form complete electronic circuits. They are often used in power control circuits that require precise control of AC voltage or current.