The Z0107NA0,116 is a high-performance triac manufactured by NXP Semiconductors, a leading name in the electronic components industry. This triac is designed for AC switching and phase control applications where high sensitivity is required. It is particularly well-suited for use in home appliances, lighting systems, and low power motor control circuits.
This device is a part of the Z0107 series, which is known for its standard gate sensitivity, allowing the triac to be directly driven by microcontrollers and other logic-level devices. The Z0107NA0,116 is capable of handling bidirectional AC currents, making it a versatile choice for managing AC loads with efficiency and reliability.
The triac features a maximum repetitive peak off-state voltage (VDRM) of 800V, which ensures that it can handle the high voltage requirements of various applications. It can also support an RMS on-state current (IT(RMS)) of up to 1A, which is sufficient for a wide range of light to medium power applications. The device's non-repetitive peak on-state current (ITSM) can reach up to 8.5A, providing robust performance during surge conditions.
Packaged in a TO-92 variant, the Z0107NA0,116 offers a compact form factor that is beneficial for designs where space is at a premium. This package also allows for easy mounting on a printed circuit board (PCB) and provides adequate thermal performance for the device's operational requirements.
The Z0107NA0,116 is characterized by its high static dV/dt, which minimizes the risk of unintended triggering by noise and transients. Additionally, the device boasts a low holding current, which contributes to its high sensitivity and makes it an excellent choice for applications requiring precise control.
NXP's commitment to quality is evident in the Z0107NA0,116, as it is built to meet stringent industry standards for performance and reliability. With its combination of high sensitivity, robust voltage and current handling capabilities, and compact packaging, the Z0107NA0,116 is an ideal solution for designers looking to enhance the control and efficiency of their AC power applications.