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Unité de recherche
INNOSUISSE
Numéro de projet
14727.1;9 PFLS-LS
Titre du projet
Detector Array for Hyperpolarized Carbon Magnetic Resonance Imaging In-Vivo
Titre du projet anglais
Detector Array for Hyperpolarized Carbon Magnetic Resonance Imaging In-Vivo

Textes relatifs à ce projet

 AllemandFrançaisItalienAnglais
Description succincte
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Résumé des résultats (Abstract)
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Textes saisis


CatégorieTexte
Description succincte
(Allemand)
Detector Array for Hyperpolarized Carbon Magnetic Resonance Imaging In-Vivo
Description succincte
(Anglais)
Detector Array for Hyperpolarized Carbon Magnetic Resonance Imaging In-Vivo
Résumé des résultats (Abstract)
(Allemand)
Among the medical imaging modalities available today, Magnetic Resonance (MR) is the only non-invasive method for mapping metabolism in the living subject. In addressing the relative insensitivity of the technique, hyperpolarization methods have emerged allowing for short-term amplification of the MR signal of endogenous substrates by up to 30¿000-fold and hence make observation of real-time metabolism possible. It is the purpose of the present project to develop, implement and validate an optimal multi-channel detector array for metabolic imaging of hyperpolarized carbon substrates injected in-vivo. Applications include the study of fundamental physiology, metabolic derangement and the assessment of pharmacological interventions in cardiovascular disease models.
Résumé des résultats (Abstract)
(Anglais)
Among the medical imaging modalities available today, Magnetic Resonance (MR) is the only non-invasive method for mapping metabolism in the living subject. In addressing the relative insensitivity of the technique, hyperpolarization methods have emerged allowing for short-term amplification of the MR signal of endogenous substrates by up to 30¿000-fold and hence make observation of real-time metabolism possible. It is the purpose of the present project to develop, implement and validate an optimal multi-channel detector array for metabolic imaging of hyperpolarized carbon substrates injected in-vivo. Applications include the study of fundamental physiology, metabolic derangement and the assessment of pharmacological interventions in cardiovascular disease models.