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Printable Handouts
Navigable Slide Index
- Introduction
- Roles of nuclear medicine
- Chart of nuclides
- Applications of nuclear medicine
- The tracer principle
- Applications of different imaging techniques
- Types of radiation
- Radioactivity units
- Examples of radioactivity decay
- Commonly used isotopes
- Decay scheme of Molybdenum
- The production of electromagnetic radiation
- Cyclotrons
- Basic equations of circular motion
- Interaction with matter
- Types of radiation - summary
- Radiation detectors
- Gamma camera
- Components of a gamma camera
- Scintillation crystal
- Principle of Anger logic
- Modern gamma cameras
- Normal bone scan
- Bone scan showing widespread metastases
- Bone scan showing therapy effect
- Lung scan
- Single photon emission computer tomography
- SPECT provides 3D images
- Multi-modality imaging
- Combination of structure and function
- Early hardware fusion with 153-Gadolinium
- SPECT and CT in the same instrument
- CT scan - parathyroid adenoma
- SPECT scan - parathyroid adenoma
- Combined CT and SPECT scan
- An example of a pulmonary embolism scan
- Positron emission
- Positron emission tomography (PET)
- Three important processes
- Positron interaction with matter
- Positron emission uses coincidence detection
- a modern PET camera
- Response to therapy demonstrated by PET
- PET/CT scan protocol
- Image of the year 1999
- The quality of images available today
- Treatment planning and response
- MRI and PET scan
- PET is a particulate emission
- Dose estimates from different procedures
- David Preston's aphorisms on nuclear medicine
- Learning objective and outcomes
- Acknowledgements
Topics Covered
- Basics of nuclear physics used in nuclear medicine, imaging and therapy
- Devices used including gamma camera, SPECT and PET imaging
- Multimodality imaging devices (SPECT/CT, PET/CT)
- Radiation dosimetry for nuclear medicine
Talk Citation
Bailey, D. (2010, April 1). Basics of nuclear medicine imaging [Video file]. In The Biomedical & Life Sciences Collection, Henry Stewart Talks. Retrieved December 3, 2024, from https://doi.org/10.69645/QFPM9964.Export Citation (RIS)
Publication History
Financial Disclosures
- Prof. Dale Bailey has not informed HSTalks of any commercial/financial relationship that it is appropriate to disclose.
A selection of talks on Methods
Transcript
Please wait while the transcript is being prepared...
0:00
Welcome to
this lecture on the basics
of nuclear medicine imaging.
My name is Dale Bailey.
I'm a physicist.
I work at Royal North Shore Hospital
and the University of Sydney
in Sydney, Australia.
0:14
In this lecture, I
want to address some
of the basics of the physics
instrumentation and methodology
involved in nuclear medicine.
Nuclear medicine was originally
developed in the days
prior to cross sectional
imaging, with modalities
such as X-ray CT and MR.
Using radioactive traces
was the only way to image
the soft tissues the
body, such as the brain,
thyroid, lungs, liver, heart,
kidneys, spleen, and other organs.
Today we recognize
that nuclear medicine
has a role as a functional imaging
modality, whereas we regard
the cross sectional
imaging with CT or MR
as primarily a structural,
or anatomical imaging tool.
Nuclear medicine functional
imaging has a role in the diagnosis
of a disease; locating
unknown disease,
such as infection or primary
tumour; staging of disease, that is,
the extent to which the disease
has spread through the body;
monitoring response
to treatment, to see
whether the drugs or
the radiation therapy
is being efficacious or not.
We also use nuclear
medicine in therapy,
with the idea of the
tumour-seeking magic bullet,
where we deliver
radiation to a targeted
tumor or other abnormality.
And finally, nuclear medicine
has a large role in research,
as a way of non-destructive testing
of animal models and humans,
where we can study the time
course of a trace's uptake
and look at the kinetics
of that with time.