FISMED / LABORATORIES
Imaging Physics and Quantification
Physical models and computational analysis turn imaging signals into quantitative measurements of structure, physiology and metabolism. Research spans MRI physics, diffusion and perfusion analysis, PET tracer kinetics and multimodal image fusion. Method development examines reconstruction, parameter estimation and reproducibility, linking measurements across complementary imaging modalities and scales.
04 / LABORATORY
Imaging Physics and Quantification
Physical models and computational analysis turn imaging signals into quantitative measurements of structure, physiology and metabolism. Research spans MRI physics, diffusion and perfusion analysis, PET tracer kinetics and multimodal image fusion. Method development examines reconstruction, parameter estimation and reproducibility, linking measurements across complementary imaging modalities and scales.
- MRI physics, diffusion and perfusion
- PET quantification and tracer kinetics
- Multimodal image analysis and radiomics
- Parameter estimation and reproducibility
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Connections indicate shared research topics, not authorship or project participation.
Imaging modalities · Image analysis
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