Publication Highlight: Non-Invasive Real-Time Pulsed Doppler Assessment of Blood Flow in Mouse Ophthalmic Artery
Publication Highlight: Non-Invasive Real-Time Pulsed Doppler Assessment of Blood Flow in Mouse Ophthalmic
Come and experience the cutting-edge world of neuroscience with Scintica at SFN 2023, the Society for Neuroscience’s premier event of the year! We cordially invite you to visit us in BOOTH 2403 and discover firsthand how Scintica’s cutting-edge tools and technologies can empower your research endeavors, enhance data acquisition and analysis, and accelerate scientific discoveries. Engage with our experts who will be delighted to discuss your specific needs and guide you towards the most suitable solutions tailored to your research goals.
SFN 2023 will be a dynamic platform buzzing with thought-provoking presentations, interactive sessions, and networking opportunities with the brightest minds in neuroscience. As an exhibitor, Scintica is committed to fostering partnerships, driving innovation, and advancing the boundaries of our understanding of the brain and nervous system.
We eagerly await for you to join us as we pave the way towards groundbreaking discoveries and together shape the limitless possibilities of neuroscience research!
When does the Meeting Take Place?
Saturday, November 11 – Wednesday, November 15
Where is this year’s SFN 2023 Annual Meeting?
Walter E. Washington Convention Center. Washington, DC
Publication Highlight: Non-Invasive Real-Time Pulsed Doppler Assessment of Blood Flow in Mouse Ophthalmic
Article Highlight: Intravital Imaging of Cardiac Tissue Utilizing Tissue-Stabilized Heart Window Chamber in
Article Review: New Approach Methodologies (NAMs) Therapeutic Efficacy of Human Skin Equivalents Fabricated
Application Highlight: Studying Coronary Vessel Dynamics The coronary vessel wall plays a central
Publication Highlight: Human Articular Chondrocytes Retain Their Phenotype in Sustained Hypoxia While Normoxia
Publication Highlight: Small Arteries From Old Spontaneously Hypertensive Rats Exhibit Enhanced Endothelium-Independent Vasodilatory