22 May 2012 42V synchronous step down dc/dc converter delivers 96% efficiency 42V synchronous step down dc/dc converter delivers 96% efficiency Targeting industrial and automotive applications, Linear Technology has launched a 2.5A synchronous step down switching regulator that it claims can achieve 96% efficiency. The LT8610 is 3.4 to 42V input capable and has internal 3.5A switches that deliver up to 2.5A of continuous output current to voltages as low as 0.97V. The Burst Mode operation also keeps quiescent current under 2.5µA, making it well suited for 'always on' systems which need to extend operating battery life. Maintaining a minimum dropout voltage of 200mV (at 1A) under all conditions, the LT8610 is said to excel in scenarios such as automotive cold crank. A fast minimum on time of 50ns enables 2MHz constant frequency switching from a 16V input to a 1.8V output, allowing designers to optimise efficiency while avoiding critical noise sensitive frequency bands. The LT8610's 16 lead thermally enhanced MSOP package and high switching frequency keeps external inductors and capacitors small, providing a compact, thermally efficient footprint. The LT8610 comes in a thermally enhanced MSOP-16 package and is available in automotive and industrial temperature versions. Author Simon Fogg Comment on this article Websites http://www.linear.com/ Companies Linear Technology (UK) Ltd This material is protected by Findlay Media copyright See Terms and Conditions. One-off usage is permitted but bulk copying is not. For multiple copies contact the sales team. Enjoy this story? People who read this article also read... NIDays 2013 NIDays is a technical conference designed specifically for ... Read Article Southern Manufacturing This year, Southern Manufacturing and Electronics is set to be ... Read Article Microcontrollers deliver ... Microchip has launched what it describes as the 'world's lowest ... Read Article Remotely access up to 16 ... Lantronix is set to launch its latest evolution device/terminal ... Read Article What you think about this article: Add your comments Name Email Comments Your comments/feedback may be edited prior to publishing. Not all entries will be published. Please view our Terms and Conditions before leaving a comment.