Deuterium metabolic spectroscopy (DMS) and imaging (DMI) have recently been described
as simple and robust MR-based methods to map metabolism with high temporal and/or …

Magnetic resonance signals from different nuclei can be excited or received at the same
time, rendering simultaneous or rapidly interleaved multi‐nuclear acquisitions feasible. The …

Quantitative assessment of cerebral glucose consumption rate (CMRglc) and tricarboxylic
acid cycle flux (VTCA) is crucial for understanding neuroenergetics under …

Deuterium magnetic resonance spectroscopic imaging (DMRSI) has recently been
recognized as a potentially powerful tool for noninvasive imaging of brain energy …

Purpose The assessment of cellular energy metabolism is crucial for understanding
myocardial physiopathology. Here, we conducted a pilot study to develop an alternative …

Brain energy metabolism relies predominantly on glucose and oxygen utilization to generate
biochemical energy in the form of adenosine triphosphate (ATP). ATP is essential for …

Low‐γ X‐nuclear MRS and imaging have played a key role in studying metabolism and
physiopathology, especially at ultrahigh fields. We design and demonstrate a novel and …

Purpose To monitor the metabolic turnover of β‐hydroxybutyrate (BHB) oxidation using 2H‐
MRS in conjunction with intravenous administration of 2H labeled BHB. Methods Nine …

The cerebral metabolic rate of oxygen of small animals can be reliably imaged using the in
vivo 17O magnetic resonance approach at high field. However, a separate measurement is …

Brain relies on glucose and oxygen metabolisms to generate biochemical energy in the form
of adenosine triphosphate (ATP) for supporting electrophysiological activities and neural …