Datasheet4U Logo Datasheet4U.com

ZXLD1321 - Buck mode DC-DC converter

Description

The ZXLD1321 is an inductive DC-DC converter, with an internal switch, designed for driving single or multiple LEDs in series up to a total of 1A output current.

Applications cover commercial environments with input voltages ranging from 1.2V to 12V.

Features

  • The feedback control circuitry inside the ZXLD1321 provides excellent load and current regulation, resulting in very stable LED current over the useful life of the battery and over the full operating temperature range. The LED current can be adjusted from 100% down to 10% of the set value by applying a dc voltage to the ADJ pin and down to 1% by applying a PWM signal to the ADJ pin. An onchip LED protection circuit also allows output current to be reduced linearly above a predetermined threshol.

📥 Download Datasheet

📁 Similar Datasheet

Part Number Description Manufacturer
ZXLD1350 30V 350mA LED DRIVER Diodes
ZXLD1350Q AUTOMOTIVE GRADE 350mA BUCK LED DRIVER Diodes
ZXLD1356Q AUTOMOTIVE GRADE 60V 550mA LED DRIVER Diodes
ZXLD1360 30V 1A LED DRIVER Diodes
ZXLD1360Q AUTOMOTIVE GRADE 30V 1A LED DRIVER Diodes

Other Datasheets by Zetex (Diodes Incorporated)

Part Number Description
ZXLD1320 Buck mode DC-DC converter
ZXLD1322 Buck/boost mode DC-DC converter
ZXLD1350 350mA LED driver
ZXLD1352 350mA LED driver
ZXLD1356 60V 550mA LED DRIVER and AUTOMOTIVE GRADE

Full PDF Text Transcription

Click to expand full text
www.DataSheet.co.kr ZXLD1321 Boost mode DC-DC converter for LED driving with 1A output and current control Description The ZXLD1321 is an inductive DC-DC converter, with an internal switch, designed for driving single or multiple LEDs in series up to a total of 1A output current. Applications cover commercial environments with input voltages ranging from 1.2V to 12V. The device employs a variable 'on' and 'off' time control scheme with adjustable peak switch current limiting and supports step-up (Boost) mode and self-powering Bootstrap operating modes, offering higher power efficiency and lower system cost than conventional PFM circuitry.
Published: |