Abstract - Myriam Chaumeil
Hyperpolarized (HP) 13C MR Spectroscopic Imaging (MRSI) is a non-ionizing, nonradioactive “real-time” imaging method that can be used safely in longitudinal studies. This technique has recently enabled the in vivo assessment of previously unexplored metabolic reactions with unprecedented temporal resolution. Over the last few years, this powerful technique has been used for cancer research, preclinically and in clinical trials, allowing for improved diagnosis, evaluation of tumor grade and assessment of therapy outcome. In this project, we propose to expand, to our knowledge for the first time, the use of HP 13C MRSI to the study of neuroinflammation in vivo. This technique will help identify new biomarkers specific of macrophages activation and polarization status that could dramatically improve our understanding of several brain diseases. Whereas this proposal focuses on Traumatic Brain Injury and Multiple Sclerosis at first, the methods developed in this project are applicable to every cerebral disease presenting an inflammatory component. Upon clinical translation, the neuroimaging methods developed in this project could have a major impact on clinical practice. They could improve diagnosis and monitoring of response to innovative therapeutic approaches, which would help refine therapeutic regimens and, ultimately, lead to better clinical outcome and patient quality of life.
AWARDS
Principal Investigator | Institution | Title | Abstract |
Andersen, Richard | California Institute of Technology | Engineering Artificial Sensation | View |
Andrews, Anne | University of California, Los Angeles | Nanoscale Neurotransmitter Sensors | View |
Bloodgood, Brenda | University of California San Diego | A novel toolkit for visualizing and manipulating activity-induced transcription in living brain. | View |
Chaumeil, Myriam | University of California, San Francisco | In vivo metabolic imaging of neuroinflammation using hyperpolarized 13C | View |
Cleary, Michael | University of California, Merced | Capturing physiological maps of neural gene expression | View |
Cohen, Bruce | University of California, Lawrence Berkeley National Laboratory | Nano-optogenetic control of neuronal firing with targeted nanocrystals | View |
Dai, Hongjie | Stanford University | Deep brain imaging of single neurons in the second near-infrared optical window | View |
Hall, Drew | University of California, San Diego | Magnetic Monitoring of Neural Activity using Magnetoresistive Nanosensors | View |
Krubitzer, Leah | University of California, Davis | An integrated system to monitor, image, and regulate neural activity | View |
Kubby, Joel | University of California, Santa Cruz | Three-Photon Microscopy with Adaptive Optics for Deep Tissue Brain Activity Imaging | View |
Melosh, Nicholas | Stanford University | Parallel Solid State Intracellular Patch-Clamping with Biomimetic Probes | View |
Park, B. Hyle | University of California, Riverside | Label-free 4D optical detection of neural activity | View |
Portera-Cailliau, Carlos | University of California, Los Angeles | High-speed interrogation of network activity with frequency domain multiplexing | View |
Shanechi, Maryam | University of Southern California | Control-Theoretic Neuroprosthetic Design Using Electrocorticography Signals | View |
Smith, Will | University of California, Santa Barbara | Whole brain imaging in a primative chordate | View |
Wood, Marcelo | University of California, Irvine | Epigenetic PET tracer for cross-species investigation of age-related memory dysfunction | View |