Bruker Introduces All-Optical, Simultaneous 3D Stimulation and Multiphoton Imaging for Optogenetics
NEW ULTIMA NEURALIGHT 3D ADVANCES RESEARCH IN NEURAL CONNECTIVITY AND NETWORKS
“Ultima NeuraLight 3D builds on over 15 years of experience of developing flexible, modular, and highest performance multiphoton microscopy for neuroscience research,” explained Xiaomei Li, Ph.D., Vice President and General Manager for Bruker’s Fluorescence Microscopy Business Unit. “This history gives us an intimate understanding of the challenges facing today’s neuroscientists, and the unique ability to provide enabling technology for the next step in cutting-edge optogenetics research.” AboutUltima NeuraLight 3D The Ultima NeuraLight 3D builds on the modular platform design of Bruker’s Ultima Multiphoton Microscopes to further augment its capabilities. The Ultima platform has a proven track record of facilitating cutting-edge research in neuroscience by pioneering advanced photoactivation and photostimulation of biological tissues. NeuraLight 3D is the next step in this platform of game-changing products. The NeuraLight 3D module mates to one of the Ultima’s optical ports, and in coordination with new licensed technology, enables researchers to create a 3D laser hologram to simultaneously stimulate cells in three dimensions. With a comprehensive software toolkit, NeuraLight 3D is able to generate and rapidly switch between 3D activation patterns, while imaging, recording electrical signals, and triggering behavioral and electrical stimuli, all at industry-leading switching rates of 300 to 500 hertz. The number of targets that can be activated and observed is limited only by the peak power of the laser used for stimulation. The Ultima NeuraLight 3D module is available as an option for all new Ultima multiphoton systems, and as an upgrade to Ultima systems produced since 2006. About Bruker Corporation For more than 50 years, Bruker has enabled scientists to make breakthrough discoveries and develop new applications that improve the quality of human life. Bruker’s high-

