MT5030 - 95% Efficient 1.2MHz Synchronous Step-up Converter

General Description

The MT5030 devices provide a power supply solution for products powered by either a one-cell Li-Ion or Li-polymer battery.

The converter generates a stable output voltage that is either adjusted by an external resistor divider or fixed internally on the chip.

📥 Download Datasheet

MT5030 95% efficient 1.2mhz synchronous step-up converter by M3TEK - Datasheet Preview

Datasheet Details

Part number	MT5030
Manufacturer	M3TEK
File Size	186.60 KB
Description	95% Efficient 1.2MHz Synchronous Step-up Converter
Datasheet	MT5030 Datasheet

📁 Similar Datasheet

Part Number	Description	Manufacturer
MT5004A	Three Phase Bridge Rectifier	MCC
MT5006A	Three Phase Bridge Rectifier	MCC
MT5008A	Three Phase Bridge Rectifier	MCC
MT5010A	Three Phase Bridge Rectifier	MCC
MT5012A	Three Phase Bridge Rectifier	MCC

Other Datasheets by M3TEK

Part Number	Description
MT5032	800kHz Synchronous Step-up Converter
MT5032A	800kHz Synchronous Step-up Converter
MT5033	800kHz Synchronous Step-up Converter
MT5086	Quiescent Current Synchronous Boost Controller

Full PDF Text Transcription (Reference)

The following content is an automatically extracted verbatim text from the original manufacturer datasheet and is provided for reference purposes only.

View original datasheet text

M3TEK Preliminary Datasheet MT5030 95% Efficient 1.2MHz Synchronous Step-up Converter With 6A Switches DESCRIPTION The MT5030 devices provide a power supply solution for products powered by either a one-cell Li-Ion or Li-polymer battery. The converter generates a stable output voltage that is either adjusted by an external resistor divider or fixed internally on the chip. It provides high efficient power conversion and is capable of delivering output currents up to 2.1A at 5.3V at a supply voltage down to 2.9V. The maximum peak current in the step-up switch is limited to a value of 6A. The MT5030 operates at 1.2MHz switching frequency and enters pulse-skip-mode (PSM) operation at light load currents to maintain high efficiency over the entire load current range.