767161224GPTR13

Resistor networks and arrays have been around for decades as component level technology in electronic devices. In recent years they have become more and more popular as a viable solution for increasing the performance of today’s complex electronics systems. Examples of applications in which such arrays are used include automotive, defense and telecommunications. The 763161224GPTR13 resistor array is a popular example of this technology.

Applications of the 763161224GPTR13 Array

The 763161224GPTR13 array is an excellent choice for applications requiring minimal heat management and accelerated responsiveness. Its parallel resistor configuration helps protect against transients and helps improve stability. In addition, due to its small size, the array is perfect for small-scale applications. Typical uses for the array include resistors for secure communication systems, embedded systems, protection circuitry and medical and power devices. The array finds use in a number of distinct applications requiring controlled resistances, including audio/video applications, telecommunications equipment, power supply fault protection, test and diagnostic equipment, and automotive applications.

Working Principle of the 763161224GPTR13 Array

The 763161224GPTR13 is a parallel configuration resistor network and as such divides the voltage supplied by the controlling power source across its fourteen separate sub-networks. Each sub-network contains a single resistor whose resistance value corresponds to the overall desired resistance of the device. The device works by enabling each individual sub-network to operate independently and in parallel with the other sub-networks. The overall resistance produced by the device is equal to the sum of the individual resistance values contained within each sub-network.

The array also contains a number of additional features such as power supply protection and temperature compensation. The device is capable of providing electrical protection when current in the circuit exceeds the rated device maximum and works by sensing and then limiting the current in the circuit. Temperature compensation enables the device to maintain the same resistive value over a range of different temperatures.

Conclusion

The 763161224GPTR13 array is an excellent example of resistor network technology. It is well suited to a number of different applications and is capable of providing controlled resistance values across a range of different temperatures. Its small size and parallel configuration make it an ideal tool for improving the performance of complex electronic systems.