SORDINO fMRI for Awake Behaving Mice
SORDINO fMRI for Awake Behaving Mice
Webinar

定量CEST磁共振成像:从原理到癌症及神经影像学中的应用

Webinar Overview

This webinar will provide an overview of Chemical Exchange Saturation Transfer (CEST) MRI, from its physical principles and experimental design to the key factors influencing endogenous CEST signals in vivo. We will explore both physiological and technical sources of contrast, the complexity of in vivo CEST signals, and common artifacts such as fat contamination and field inhomogeneities.

The session will also highlight essential correction strategies for achieving quantitative CEST MRI and showcase current applications in cancer and neuroimaging. Preclinical studies at ultra-high magnetic fields—such as the DKFZ’s 9.4 T Bruker system—play a key role in advancing methodological development, enabling a deeper understanding of complex CEST signal behavior in vivo and paving the way for clinical translation.

 

Thursday, 6 November 2025

10 AM CET

What to Expect

Join Dr. Philip S. Boyd for an in-depth exploration of Chemical Exchange Saturation Transfer (CEST) MRI, covering its theoretical foundations, practical implementation, and cutting-edge applications in cancer and neuroimaging. This webinar will guide attendees through the complexities of in vivo CEST signals, correction strategies for artifacts, and the translation of preclinical findings into clinical practice.

Key Learning Points

  • Understanding the CEST Phenomenon and Theory
  • Applications in Cancer and Neuroimaging
  • Achieving Quantitative CEST imaging In Vivo

Who Should Attend

This webinar is ideal for researchers, clinicians, and imaging specialists working in MRI, oncology, neurology, or molecular imaging who are interested in advancing their understanding of quantitative CEST techniques and their translational potential. It will also be highly educational for graduate students and early-career scientists beginning their journey in MRI, offering foundational insights and practical guidance.

Speaker

Registration