Cancer Radiotheranostics Book
Cancer Radiotheranostics combines radionuclide therapy with molecular imaging. Discover its impact on cancer care and patient outcomes.
Radiopharmaceuticals can be divided into radioactive molecules or radionuclides that facilitate diagnostic imaging and radiotherapy. Before being used in the clinical setting, all commercially produced radiopharmaceuticals must be approved by the US Food and Drug Administration (FDA).
Also, radiopharmaceuticals must possess various characteristics to be desirable for nuclear medicine applications. Radionuclide decay should be able to produce gamma emissions of suitable energy for diagnostic imaging. The ideal energy for a gamma camera is 100-200 keV, compared to 511 keV for positron emission tomography imaging.
Radiopharmaceuticals should not contain particle radiation, such as beta emissions, which can contribute to the patient’s radiation doses, even though beta emissions have therapeutic properties.
Furthermore, radionuclides should have an effective half-life for clinical applications. They should also be carrier-free and not contaminated with a stable radionuclide. If the specific activity changes, this can harm biodistribution and labelling efficiency.
Considering all the above, one of the best radionuclides for radiopharmaceuticals is technetium-99m, especially for gamma camera imaging. The radiopharmaceutical should rapidly localise in a specific part of the body according to the intended application. Background clearance should also be rapid to achieve reasonable target-to-background ratios.
Radiotherapy treatments involving the radionuclide attached to a vector (antibody) to deliver radioactivity to specific cells are called radioimmunotherapy.
For example, the radiopharmaceutical iodine-131 tositumomab, yttrium-90 ibritumomab and yttrium-90 epratuzumab are used to treat non-Hodgkin’s lymphoma.
Also, samarium-153 (Quadramet) is effective in relieving the pain of bone cancer and prostate and breast cancer. The most used radioisotope for treating bone metastasis in the US is samarium-153 EDTMP (lexidronam).
The pure beta emitter yttrium-90 is used to relieve the pain of arthritis in larger synovial joints. Other radiopharmaceuticals include Iofetamine (I-123 iodoamphetamine), used for non-invasive evaluation of local cerebral blood flow in cerebrovascular accidents, and dysprosium, used as an aggregated hydroxide for synovectomy (removal of synovial tissue surrounding a joint ) treatment of arthritis.
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Cancer Radiotheranostics combines radionuclide therapy with molecular imaging. Discover its impact on cancer care and patient outcomes.
Stay informed on the innovations in medical imaging and healthcare, from artificial intelligence integration to precision medicine.
Learn about the evolving landscape of radiopharmaceutical regulatory practices and what it means for developers and hospitals.
Learn how cancer radiotheranostics transforms oncology by using imaging to target treatments directly at specific cancer cells.
Learn how carbon-14 barium carbonate is standardised and refined for enhanced tracking and drug-disposition applications.
Enhance your skills in radiation dosimetry calculations. Review essential principles and practical applications in nuclear medicine.
This mini-review summarises carbon-14 radiolabelling principles, synthesis, analysis, applications, safety, regulations, and emerging innovations.
Learn about the exciting opportunities a career in radiochemistry offers in nuclear medicine and PET imaging. Image for illustration only. Person depicted is a model.
Uncover the benefits of radioactive imaging. Understand PET, SPECT, and their role in advanced medical imaging and research.
Rhenium-186 Etidronate, a radiopharmaceutical, delivers beta radiation to metastatic bone lesions, effectively reducing cancer-related pain.
Red blood cell moves through the heart’s chambers, picking up oxygen in the lungs and delivering it to tissues across the body.
Iodine-131 Lipiodol has re-emerged as a promising therapy for hepatocellular carcinoma, particularly in non-resectable cases with portal vein thrombosis.
What is a Medical Science Liaison? A professional who connects science and medicine through expert knowledge sharing. Image for illustration only. People depicted are models.
FLASH proton therapy utilises ultra-high dose rates to target tumours effectively while sparing surrounding healthy tissues from damage.
Tritium radiolabelling of APIs enables precise tracking of drug distribution, metabolism, and bioavailability in pharmaceutical studies.
The fine-structure constant, denoted by α, is fundamental in understanding electromagnetic interactions between charged particles in physics.
Radioactive decay of Carbon-14 enables scientists to determine ages of ancient artefacts, fossils, and environmental samples accurately.
Carbon-14 microtracers offer unparalleled precision in tracking molecular pathways, advancing drug development, environmental, and nutritional research.
Carbon-14 radiolabelling enables researchers to trace drug metabolism precisely, aiding in comprehensive ADME studies and safety assessments.
Cancer radiotheranostics combines targeted radiotherapy and diagnostic imaging to provide personalised, precise, and effective cancer treatment.
The atomic mass unit (amu) allows scientists to measure atomic and molecular masses with remarkable precision.
FLYRCADO, a radiopharmaceutical agent employed in PET myocardial perfusion imaging, provides accurate quantification of myocardial blood flow, enhancing diagnostic confidence.
The regulations in 21 CFR Part 212 ensure PET drugs are manufactured under strict quality control and safety standards.
Good Manufacturing Practices ensure the consistent quality, safety, and efficacy of pharmaceutical products through rigorous production standards.
Regulatory radiopharmaceutical production requires strict adherence to safety standards, ensuring quality and patient safety.
Radiotheranostic treatments combine diagnostic imaging with targeted radiopharmaceutical therapy, providing personalised cancer care with enhanced precision and effectiveness.
Radiotheranostics offers a precise, personalised approach to cancer treatment by combining diagnostic imaging with targeted therapy.
The article explores the theranostic applications of Terbium radionuclides, highlighting their diagnostic and therapeutic potential in nuclear medicine.
Pittsburgh Compound-B allows researchers to visualise amyloid plaques in the brain, aiding in Alzheimer’s disease diagnosis and study.