ASD™ Series, DIACs, SIDACs

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2
Manufacturer
Series
Voltage - Breakover
Supplier Device Package
Operating Temperature
Current - Hold (Ih) (Max)
Package / Case
Current - Breakover
Current - Peak Output
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ASD™
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ImageProduct DetailPriceAvailabilityECAD ModelSeriesVoltage - BreakoverCurrent - BreakoverCurrent - Hold (Ih) (Max)Current - Peak OutputOperating TemperaturePackage / CaseSupplier Device Package
LIC01-215H
IC LIGHT IGNITION CIRCUIT I-PAK
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Quantity
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PCB Symbol, Footprint & 3D Model
ASD™
215 ~ 255V
500 µA
50 mA
1.2 A
-20°C ~ 125°C (TJ)
TO-251-3 Short Leads, IPak, TO-251AA
IPAK
LIC01-195H
DIAC 195-230V 1.2A IPAK
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Quantity
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PCB Symbol, Footprint & 3D Model
ASD™
195 ~ 230V
500 µA
50 mA
1.2 A
-20°C ~ 125°C (TJ)
TO-251-3 Short Leads, IPak, TO-251AA
I-PAK

About  DIACs, SIDACs

DIAC and SIDAC devices belong to a family of two-terminal components that find widespread use as triggering mechanisms in AC phase control applications. Their primary function is to regulate the flow of current until a specific voltage threshold is reached, at which point they allow a significant increase in current flow. The key distinction between DIACs (Diodes for Alternating Current) and SIDACs (Silicon Diode for Alternating Current) lies in their characteristic curves. DIACs typically exhibit higher forward voltages in their conductive mode compared to SIDACs. As a result, when applications require substantial current flow, SIDACs are generally more suitable due to their lower forward voltage drop. In AC phase control applications, these devices play a critical role in achieving precise control over the flow of alternating current. By serving as triggering mechanisms, DIACs and SIDACs enable the regulation of power levels and facilitate the proper functioning of electronic circuits. It is important to select the appropriate device based on the specific requirements of the application. If the application demands higher current flow, SIDACs are generally preferred due to their lower forward voltage drop. However, if the application allows for higher forward voltages, DIACs can also be used effectively. In summary, DIACs and SIDACs are two-terminal devices commonly used as triggering mechanisms in AC phase control applications. They regulate current flow until a specific voltage threshold is reached. While DIACs exhibit higher forward voltages in their conductive mode, making them less suitable for high-current applications, SIDACs offer a lower forward voltage drop, making them more favorable in such scenarios. Proper selection between DIACs and SIDACs is crucial for achieving optimal performance in AC phase control applications.