Impact: 
Ultra-high-field ¹H/³¹P MR(S)I allows simultaneous measurement of brain glucose and high-energy phosphates, enabling direct assessment of cerebral bioenergetic coupling in vivo. This framework provides a basis for examining how glucose metabolism and ATP production relate in health and metabolic disease.

Impact: The novel MRI probe can be used to specifically detect a known biomarker for the early detection of Abdominal Aortic Aneurysms (AAA). The use of iron(III) eliminates gadolinium-associated safety concerns.

Impact: Hyperpolarized ¹³C MRI detects metabolic changes preceding structural response, enabling early treatment assessment and personalized management of prostate cancer. This real-time metabolic imaging links tumor biology with clinical outcome, establishing foundation for precision oncology and future multicenter theranostic validation trials.

Impact: 

Sodium (²³Na)-MRI with a TR of 60 msec provides a good visualization of brain tumors while significantly reducing scan time compared to a TR of 100 msec. Shortening scan time while maintaining diagnostic image quality enables faster clinical decision-making.

Impact: Ultrafast ¹H-MRSI enables whole-brain, multi-metabolite mapping of intracranial germ cell tumors (iGCTs), revealing subject-specific fingerprints that delineate tumors and correlate with ¹¹C-MET PET uptake; showing promise as a noninvasive, radiation-free alternative to PET in iGCTs monitoring and subtyping.

Impact: Through the application of ultra-high resolution tissue imaging methods previously developed for human brain samples, we demonstrate the sensitivity of GRE and bSSFP at 7T to epithelial ovarian cancer pathology and the ability to visualize its distribution in 3D.

Impact: This study explores the potential of quantitative MRI metrics in capturing glioblasoma spreading. Our approach could help predict tumor progression and patient’s survival, potentially guiding clinical decision making and treatment planning.

Impact: This study establishes micro-MRI combined with sodium MQF spectroscopy as a powerful tool to non-invasively detect compression-induced cartilage microstructural changes, providing load-sensitive biomarkers for early osteoarthritis diagnosis, monitoring disease progression, and evaluating therapeutic response with clinical translation potential.

Impact: LRSM, combined with compressed-sensing using Hamming-weighted k-space sampling, accelerates brain DMI while improving SNR efficiency and preserving spectral fidelity, enabling more precise metabolite mapping and reliable quantification for lesion delineation and longitudinal response assessment, facilitating integration into routine neuro-MRI protocols.

Impact: CE-MATRIX-T1FLAIR enhances leptomeningeal metastasis detection and consistency across readers, improving diagnostic confidence and reducing dependence on expertise. This advancement may standardize LM imaging, guide early treatment decisions, and inspire broader research into black-blood MRI applications for subtle meningeal pathologies.

Impact: This work demonstrates that pTx makes 7T imaging of the posterior fossa clinically viable. This allows for superior visualization of challenging infratentorial pathologies, potentially improving diagnostic confidence and impacting treatment planning for conditions like brainstem strokes and metastases.

Impact: This study establishes 5.0T MRI as a superior tool for precise olfactory bulb assessment, enhancing reliability for early detection of neurodegenerative diseases like Alzheimer's.

Impact: Efficient 7T synthetic MRI contrast generation from a single scan reduces scan time, provides versatile multi-contrast images, and can enhance visualization of complex MS pathology.

Impact: The proposed locally driven travelling-wave method enables efficient, homogeneous excitation at ultra-high field by eliminating dependence on metallic waveguides. This innovation advances TW MRI toward practical implementation through clinical-mode single-channel RF transmission.