These topics use supervised, approved teaching-lab measurements, synthetic data or public protocols with a clearly bounded medical-physics question.
What makes these topics distinct?
A teaching measurement or simplified model does not validate clinical dosimetry, establish diagnostic safety or justify unsupervised radiation work. Required institutional approvals and qualified supervision are part of the scope.
Approaches representedApproved detector measurementPublic-protocol reviewSynthetic model sensitivity analysis
This Biomedical Engineering final year project examines repeatability of selected image-contrast measurements in a non-patient phantom dataset through department-approved phantom images or a public teaching dataset with acquisition metadata, with a defined comparison that can be adjusted to available access and supervisor guidance.
This Industrial Physics final year project examines repeatability of an approved radiation-detector response at documented reference conditions through a department-authorised reference source or non-radiation electronic test signal, as approved by the radiation-safety officer, with a defined comparison that can be adjusted to available access and supervisor guidance.
This Medical Laboratory Science final year project examines record-field traceability through a fictional laboratory workflow involving radiation-related equipment status through synthetic specimen identifiers and fictional handoff events with no patient information, with a defined comparison that can be adjusted to available access and supervisor guidance.
This Physics final year project examines the sensitivity of a simplified teaching model to material-density assumptions through published parameter ranges and reproducible simulations from a non-clinical teaching model, with a defined comparison that can be adjusted to available access and supervisor guidance.
This Physics with Electronics final year project examines filter choice and peak-estimation error for synthetic detector-pulse waveforms through generated waveforms with declared pulse shapes, amplitudes and controlled noise levels, with a defined comparison that can be adjusted to available access and supervisor guidance.
This Radiography and Radiation Science final year project examines terminology, units and context attached to dose metrics in public diagnostic-imaging materials through dated materials issued by verified health agencies, professional bodies or imaging services, with a defined comparison that can be adjusted to available access and supervisor guidance.
This Industrial Physics final year project examines repeatability and uncertainty reporting for background-count observations from an authorised detector setup through supervisor-approved instrument readings collected under documented background conditions, with a defined comparison that can be adjusted to available access and supervisor guidance.
This Radiography and Radiation Science final year project examines traceability of stated exposure and protection parameters in public diagnostic-imaging protocols through current protocols made publicly available by verified imaging services or health bodies, with a defined comparison that can be adjusted to available access and supervisor guidance.
This Radiography and Radiation Science final year project examines radiation protection knowledge through anonymous consenting adult students and current official guidance. The proposed study defines a bounded question, documents source and selection rules and compares the evidence against a stated educational or analytical framework.
This Radiography and Radiation Science final year project examines radiation protection poster through publicly accessible official posters and a structured content rubric. The proposed study defines a bounded question, documents source and selection rules and compares the evidence against a stated educational or analytical framework.
These are proposed studies. Choose the question that fits evidence you can access, check the requirements with your department and supervisor, then adapt the scope to your setting.