Microchip Technology's SMDA12C-8E3/TR7 TVS Diode Array
Microchip Technology's SMDA12C-8E3/TR7 is a state-of-the-art transient voltage suppression (TVS) diode array designed to protect sensitive electronic equipment from voltage spikes and transients. This component is an ideal solution for safeguarding multi-line systems against ESD (electrostatic discharge), EFT (electrical fast transients), and lightning-induced surges, conforming to IEC standards 61000-4-2 (ESD), 61000-4-4 (EFT), and 61000-4-5 (Surge).
The SMDA12C-8E3/TR7 is part of the SMDAxxC series and comes in a convenient SO-8 package, which is suitable for surface mount technology (SMT) assembly processes. It features eight channels of protection, with each channel comprised of a pair of TVS diodes in a back-to-back configuration. This bi-directional design allows the device to provide symmetrical protection for AC signals or data lines that may experience positive and negative transient voltages.
With a minimum breakdown voltage of 13.3V and a maximum clamping voltage of 21.2V at 5A (8/20μs waveform), this robust component can safely absorb and dissipate transient energies up to 500W (8/20μs), ensuring the protection of downstream components from damaging voltage spikes. The low leakage current of less than 5μA at the working voltage ensures that the device will not significantly affect the normal operation of the protected circuit.
Another significant feature of the SMDA12C-8E3/TR7 is its low capacitance, which preserves signal integrity in high-speed data and communication lines without compromising protection. This makes it an excellent choice for applications such as Ethernet networks, USB interfaces, computer I/O ports, and other telecommunication systems.
Microchip Technology's commitment to quality is evident in the SMDA12C-8E3/TR7, which is RoHS compliant and adheres to the highest industry standards for reliability and performance. By incorporating this TVS diode array into your design, you can enhance the durability and longevity of your electronic systems against the most challenging electrical transients.