1. 3D morphometric analysis of lumbar spine geometry and its correlation with degenerative disc disease 2. Comparative assessment of anatomical variations in the carotid artery bifurcation using imaging modalities 3. Morphological study of the temporal bone for improved audiological implant placement 4. Biodistribution and anatomical mapping of gray matter networks in aging using diffusion MRI 5. Multimodal analysis of knee joint articular cartilage using ultrasound and MRI correlation 6. Quantitative analysis of autonomic nerve plexuses in the thorax via cadaveric dissection and imaging 7. Anatomical variations of the cervical plexus and their clinical implications in regional anesthesia 8. Correlation of parasagittal cranial venous sinus anatomy with risk factors for intracranial hypertension 9. Structural anatomy of the olfactory system: variations and implications for olfactory nerve regeneration 10. Morphometry of the hippocampal subfields in healthy vs. cognitively impaired aging populations 11. Ultrastructural characterization of neuromuscular junctions in rodent models of muscular dystrophy 12. Anatomic basis of palatal musculature and its role in cleft palate surgical planning 13. 3D reconstruction of the vascular supply to the liver and its impact on transplant planning 14. Morphological study of facial nerve canal and facial canal dehiscence in relation to acoustic neuroma 15. Comparative anatomy of the diaphragmatic crura and its clinical relevance in hiatal hernia repair

Project Abstract

This study integrates 3D morphometric analysis of lumbar spine geometry with degenerative disc disease (DDD) progression, comparative carotid bifurcation anatomy across imaging modalities, temporal bone morphology for audiological implants, diffusion MRI-based mapping of gray matter networks in aging, multimodal knee cartilage assessment, thoracic autonomic plexus quantification, cervical plexus variation implications for regional anesthesia, parasagittal venous sinus anatomy in intracranial hypertension risk, olfactory system structural variation and regeneration potential, hippocampal subfield morphometry in aging and cognitive impairment, neuromuscular junction ultrastructure in muscular dystrophy models, palatal musculature for cleft palate planning, hepatic vascular 3D reconstruction for transplant planning, facial nerve canal morphology in acoustic neuroma, and diaphragmatic crura anatomy relevant to hiatal hernia repair—employing a multi-dataset, cross-sectional design to generate an integrated anatomical atlas with functional correlations. Methods comprise high-resolution CT and MR imaging combined with 3D reconstruction to quantify vertebral body dimensions, endplate concavities, and canal dimensions, while DDD severity is graded via MRI-based Pfirrmann scale and correlates with three-dimensional vertebral geometry metrics and facet joint morphology. Carotid bifurcation studies utilize duplex ultrasound, CT angiography, and MR angiography to compare branching angles, media-to-intima thickness, and adventitial delineation, producing modality-consensus morphometrics. Temporal bone analysis leverages CT and cone-beam CT for ossicular chain geometry and facial nerve canal dehiscence assessment, informing implant trajectory. Diffusion MRI tractography and resting-state fMRI characterize gray matter networks implicated in aging, with network efficiency, hub distribution, and connectome-based scores correlated to cognitive metrics. Knee cartilage evaluation employs ultrasound–MRI co-registration to assess cartilage thickness, surface integrity, and diffusion properties. Thoracic autonomic plexus quantification uses cadaveric dissection with gross dissection measurements cross-validated by diffusion-weighted imaging and functional autonomic testing where feasible. Cervical plexus variants are cataloged with nerve exit points and anesthetic block outcome correlations. Parasagittal venous sinus anatomy is related to intracranial pressure measurements and venous outflow patterns. Olfactory system structure is mapped with high-resolution MRI and histology where available to relate morphological variation to olfactory nerve regeneration potential. Hippocampal subfields are segmented on ultra-high-resolution MRI, with volumetric and shape analyses across healthy, mild cognitive impairment, and Alzheimer’s disease cohorts. Neuromuscular junction ultrastructure from rodent models is correlated with muscle function assays and dystrophic pathology. Palatal musculature is reconstructed to model surgical planning scenarios for cleft repair. Liver vascular trees are digitally reconstructed to evaluate transplant viability and surgical planning routes. Facial nerve canal morphology is linked to acoustic neuroma risk and intraoperative nerve monitoring data. Diaphragmatic crura measurements are analyzed in relation to hernia repair biomechanics and outcomes. Expected outcomes include an integrated, atlas-based framework linking anatomical variation with disease susceptibility and procedural planning across multiple body regions, standardized morphometric pipelines for cross-modality data fusion, and clinically actionable guidelines for image-guided interventions, implant placement, and surgical strategy tailored to individual anatomical variation. The study aims to advance personalized anatomy-informed care by establishing normative ranges, variant catalogs, and cross-domain correlations spanning spine, vascular, cranial, neural, musculoskeletal, and visceral systems.

Project Overview

What This Project Is About

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A final-year project exploring a range of anatomy topics by using measurements, imaging, and dissections to understand how body structures vary and relate to health conditions. Students pick a topic and learn how anatomy helps diagnose, plan treatment, or explain aging and disease processes.

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The Problem It Addresses

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Many anatomical questions come from differences between people, aging, and disease. This project helps identify common variations, how they affect function, and why personalized approaches in medicine matter.

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Objectives of the Project

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1. Describe the chosen anatomical area and its typical structure.
2. Identify common variations and factors that influence them.
3. Relate findings to a practical clinical question, such as imaging interpretation or surgical planning.
4. Summarize potential implications for patient care and safety.

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What You Will Do Step by Step

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1) Review basic anatomy of the topic. 2) Collect data from textbooks, open imaging databases, or dissections. 3) Note variations and any links to age, sex, or health status. 4) Analyze data with simple comparisons and visuals. 5) Discuss how findings affect clinical decisions or future research. 6) Create a short report and presentation.

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Expected Outcome

Clear understanding of a specific anatomical area, documented variations, and practical implications for clinicians, educators, and students. The project should yield a concise report and an at-a-glance set of clinical notes or guidelines.