Andor iXon Ultra EMCCD Cameras for Microscopy and Life Sciences

With the iXon EMCCD microscope cameras, Andor have delivered a dedicated, truly high-end, yet accessible ultrasensitive scientific camera platform, designed specifically to drive the absolute best from EMCCD technology across all critical performance specs and parameters.

iXon Life - Exclusively for Fluorescence Microscopy

Features:

• Single photon sensitivity

• Back-illuminated > 95% QE

• Fast frame rates

• Unique price/performance

• The ultimate detector for single molecules

• Preserve accurate cell physiology

• Available with new SRRF-Stream+ super-resolution technology

iXon Ultra - Driving the absolute best from EMCCD technology

For when only the best will do. The market leading EMCCD camera, Andor's iXon Ultra has been long recognised as the highest performance, most versatile solution for the most demanding of light starved applications. Available for both physical and life science applications, iXon Ultra delivers unbeatable flexibility and functionality, offering market leading TE cooling, 2-in-1 EMCCD and CCD readout modes and a host of other high-end functionality.

iXon Life - High performance at a low price

Andor's latest iXon Life EMCCD platform is available exclusively for fluorescence microscopy applications and is engineered to deliver single photon sensitivity with absolutely unparalleled price/performance. With unmatched sensitivity, iXon Life is perfect for single molecule detection and live cell microscopy with minimized phototoxicity or photobleaching, but at a price not normally associated with high-performance EMCCD cameras.

SRRF-Stream+ - Unlock Super-Resolution from your microscope

SRRF-Stream+ is our enhanced real time super-resolution microscopy functionality that operates on Andor’s iXon Life and iXon Ultra EMCCD cameras.

Aligned with Andor's vision that super-resolution should be easily accessible to all, ˜SRRF-Stream+ enabled" cameras unlock the means to perform real time super resolution microscopy on conventional modern fluorescence microscopes. Resolution improvement from 2- to 6-fold (50-150nm final resolution) can be expected dependant on the original dataset.