As an inexpensive, quick and dynamic imaging technique that also provides high-resolution depiction of the PF and comparison with the contralateral side, ultrasound should be considered the modality of first choice for assessing PF disorders.
Targeted magnetic resonance imaging (MRI) has emerged as a promising diagnostic approach that offers a high-resolution depiction of pathological anatomy and the ability to detect associated disease biomarkers [3, 4].
High-throughput approaches may also provide the high-resolution depiction of responses to investigational vaccines needed to identify safety signals in early-phase vaccine development.
This report provides a high-resolution depiction of targeted gene neighborhoods that will aid whole-genome sequence assembly, provide valuable tools for plant breeders and advance the understanding of strawberry genome evolution.
Targeted magnetic resonance imaging (MRI) has emerged as a promising diagnostic approach offering high resolution depictions of pathological anatomy and the detection of associated disease biomarkers [[1]-[3]].
The inverted model produced a high resolution depiction of the hydraulic conductivity and porosity fields.
Micro-computed tomography (µCT), which is capable of approximately 3-µm isotropic resolutions, may currently be considered the most established high-resolution imaging technique for trabecular bone depiction.
HR-pQCT can achieve an isotropic voxel size of about 80 μm at an acceptable radiation dose, yielding high-resolution image data that allow good depiction of trabecular and cortical bone.
As a result, these agents provide an extended imaging window for acquisition of high-resolution images, thus enabling excellent small vessel depiction.
Nevertheless, the high-resolution nature of the MRI allowed adequate depiction of changes in the digits required for the study.
With state-of-the-art MRI techniques, such as parallel imaging, high-resolution MRA studies can be obtained, which will improve depiction of arterial involvement (Fig. 5).
