Microchip Technology MIC5206-3.8BM5-TR LDO Voltage Regulator
The MIC5206-3.8BM5-TR from Microchip Technology is a highly reliable linear voltage regulator, designed to deliver a fixed output of 3.8V with an input voltage range from 6.5V to 16V. This low-dropout (LDO) regulator is capable of sourcing up to 150mA of output current, making it an excellent choice for small power applications where efficiency and dropout voltage are critical.
The MIC5206-3.8BM5-TR comes in a compact SOT-23-5 package, which is ideal for space-constrained applications. Its small footprint and low profile make it suitable for portable devices, such as personal digital assistants (PDAs), cellular phones, and wireless communication devices. Furthermore, its thermal-overload and short-circuit protection features ensure reliable performance and longevity of the product and the devices it powers.
Featuring a low quiescent current of typically 165µA, the MIC5206-3.8BM5-TR is optimized for battery-powered circuits, contributing to extended battery life. The regulator also offers a low dropout voltage, typically 165mV at 150mA, which allows for better performance in applications where the input voltage is close to the output voltage.
Key features of the MIC5206-3.8BM5-TR include:
- Fixed 3.8V output voltage
- 150mA output current
- Low dropout voltage of typically 165mV at full load
- Wide input voltage range from 6.5V to 16V
- Low quiescent current of 165µA, ideal for battery-operated devices
- Thermal overload and short-circuit protection
- Stable with low-ESR ceramic capacitors
- Compact SOT-23-5 package
With its stable operation with ceramic output capacitors as low as 1µF, the MIC5206-3.8BM5-TR can be used in a variety of applications that require minimal external components, saving both cost and board space. Whether you are designing a new device or seeking a reliable power management solution for your current application, the MIC5206-3.8BM5-TR offers the performance, durability, and ease of integration required for today's demanding electronic environments.