패키징 정보
| 패키지 | 핀 HSOIC (DDA) | 8 |
| 작동 온도 범위(°C) -40 to 125 |
| 패키지 수량 | 캐리어 75 | TUBE |
LMR23630의 주요 특징
- 4-V to 36-V Input range
- 3-A Continuous output current
- Integrated synchronous rectification
- Current-mode control
- Minimum switch on-time: 60 ns
- Internal compensation for ease of use
- 400-kHz Switching frequency and adjustable frequency options
- PFM and forced PWM mode options
- Frequency synchronization to external clock
- 75-µA Quiescent current at no load for PFM option
- Soft start into a prebiased load
- High duty-cycle operation supported
- Precision enable input
- Output short-circuit protection with hiccup mode
- Thermal protection
- 8-Pin HSOIC with PowerPAD™ package
- 12-Pin WSON wettable flanks package with PowerPAD™
- Use the LMZM33603 module for faster time to market
- Create a custom design using the LMR23625 with the WEBENCH Power Designer
LMR23630에 대한 설명
The LMR23630 SIMPLE SWITCHER is an easy-to-use 36 V, 3 A synchronous step-down regulator. With a wide input range from 4 V to 36 V, it is suitable for various industrial applications for power conditioning from unregulated sources. Peak-current-mode control is employed to achieve simple control-loop compensation and cycle-by-cycle current limiting. A quiescent current of 75 µA makes the device suitable for battery-powered systems. An ultra-low 2 µA shutdown current can further prolong battery life. Internal loop compensation means that the user is free from the tedious task of loop compensation design. This also minimizes the external components. The device has an option for constant frequency FPWM mode to achieve small output-voltage ripple at light load. An extended family (HSOIC) is available in 1-A (LMR23610) and 2.5-A (LMR23625) load-current options in a pin-to-pin compatible package allowing simple, optimum PCB layout. A precision enable input allows simplification of regulator control and system power sequencing. Protection features include cycle-by-cycle current limit, hiccup-mode short-circuit protection, and thermal shutdown due to excessive power dissipation.