
Analog Devices Inc. ADP150 Ultra-low Noise Linear Regulators
Analog Devices ADP150 features ultra-low noise, low dropout (LDO) linear regulators operating from 2.2V to 5.5V. ADP150's low 105mV dropout voltage at 150mA load increases efficiency and enables operation over a wide input voltage range. The ADP150 delivers ultra-low noise performance without compromising PSRR or line and load transient performance. The ADP150 regulators use an innovative circuit topology to achieve 9μV ultra-low noise performance without the need for an additional noise bypass capacitor. ADP150's circuit topology makes the regulators ideal for noise-sensitive analog and RF applications. Offering ultra-low noise and quiescent current consumption, ADP150 regulators help maximize battery life in portable applications. Designed for stable operation with tiny 1μF ± 30% ceramic input and output capacitors, ADP150 regulators meet the requirements of high-performance, space-constrained applications. The ADP150 regulators are ideal for mobile phones, digital cameras and audio devices, portable & battery-powered equipment, post-DC-to-DC regulation, portable medical devices, and RF, PLL, VCO and clock power supplies.Features
- Ultra-low noise: 9μVrms, independent of VOUT
- No additional noise bypass capacitor required
- Stable with 1μF ceramic input and output capacitors
- Maximum output current: 150mA
- Input voltage range: 2.2V to 5.5V
- Low quiescent current
- IGND = 10μA with zero load
- Low shutdown current: <1μA
- Low dropout voltage: 105mV @ 150mA load
- Initial output voltage accuracy: ±1%
- Up to 14 fixed output voltage options: 1.8V to 3.3V
- PSRR performance of 70dB at 10kHz
- Current limit and thermal overload protection
- Logic-controlled enable
- 5-lead TSOT package
- 4-ball, 0.8mm × 0.8mm, 0.4mm pitch WLCSP
Applications
- Mobile phones
- Digital camera and audio devices
- Portable and battery-powered equipment
- Post-DC-to-DC regulation
- Portable medical devices
- RF, PLL, VCO, and clock power supplies
Published: 2016-03-31
| Updated: 2022-03-11