LT1790AIS6-3.3#TRMPBF: Precision Micropower Series Voltage Reference
The LT1790AIS6-3.3#TRMPBF is a high-quality, stable, and precise voltage reference component designed by Linear Technology, a leader in the design and manufacture of analog integrated circuits. This voltage reference is a part of the LT1790 series, which is renowned for its accuracy, low power consumption, and ease of use in a wide array of applications.
This specific model provides a fixed output voltage of 3.3 volts, which is ideal for many electronics systems that require a stable reference voltage for accurate analog-to-digital or digital-to-analog conversion. The device features a low dropout voltage and is capable of sourcing up to 5mA of output current, making it suitable for battery-powered equipment and portable devices.
The LT1790AIS6-3.3#TRMPBF is characterized by its excellent temperature stability, with a typical drift of only ±10ppm/°C, ensuring reliable performance over a wide temperature range. This precision is maintained over the full operating temperature range of -40°C to +125°C, making it suitable for both commercial and industrial applications.
Another key feature of this voltage reference is its low power consumption. The quiescent current is merely 50μA, which is particularly beneficial for power-sensitive applications. Additionally, the device offers a low output noise of only 20μV_RMS, contributing to the overall noise performance of the system it is used in.
The LT1790AIS6-3.3#TRMPBF comes in a small SOT-23 package, which is ideal for space-constrained applications. The #TRMPBF suffix indicates that this product is provided in tape and reel packaging, making it suitable for automated assembly processes, and the 'MPBF' denotes that it is RoHS compliant and uses a lead-free finish.
Whether you are designing precision instrumentation, data conversion systems, or any other application requiring a high-quality voltage reference, the LT1790AIS6-3.3#TRMPBF from Linear Technology is an excellent choice that combines performance, reliability, and compactness.