What are the fundamentals of medical ultrasound?
Understand the fundamentals of medical ultrasound, an essential imaging technique that uses sound waves for real-time visuals.
Understand the fundamentals of medical ultrasound, an essential imaging technique that uses sound waves for real-time visuals.
Uncover the impact of new MRI contrast agents on diagnostic imaging and their significance in modern medical technology.
Find out what causes the loud noise from MRI scanners. MRI scanner noise explained for better patient understanding and comfort.
Learn about the role of AI medical physics in enhancing accuracy and personalisation in modern patient care and healthcare strategies.
Explore what dark radiation is and its significance in medical diagnostics. Discover how it relates to X-ray technology.
Discover the principles behind magnetic resonance theory and how it has advanced MRI as a vital tool in modern diagnostic imaging.
Relative dosimetry in radiation therapy enables precise measurement of dose distribution for effective and safe treatment delivery.
Megavoltage therapy units provide deep tissue radiation treatment, demanding accurate dosimetry and strict quality control procedures daily. Image for illustration only. Person depicted is a model.
Radiation safety in medicine minimises harmful exposure by enforcing regulations, using shielding, and promoting professional awareness.
Kilovoltage X-rays provide clear imaging contrasts, supporting precise diagnoses and effective treatment of superficial skin lesions.
Medical image quality plays a crucial role in ensuring accurate diagnoses, effective treatment plans, and improved patient care across healthcare systems. Image for illustration only. Person depicted is a model.
Quantum Computing for Medical Imaging vastly improves complex image reconstruction speed, enabling more precise diagnostics.
Bremsstrahlung radiation occurs when high-energy electrons decelerate near atomic nuclei, emitting a continuous spectrum of electromagnetic photons.
Radiation dose management focuses on minimising exposure while maintaining diagnostic quality through advanced technologies and strategies.
RBE in proton therapy quantifies biological damage relative to conventional radiation, enhancing treatment precision significantly.
Liquid scintillation counting enables precise detection of low-energy isotopes, revolutionising environmental and biomedical research.
The fine-structure constant, denoted by α, is fundamental in understanding electromagnetic interactions between charged particles in physics.
The atomic mass unit (amu) allows scientists to measure atomic and molecular masses with remarkable precision.
The nuclear shell model explains nucleon arrangement in discrete energy levels, leading to nuclear stability and magic numbers.
Radioactive decay is measured using specific units that help ensure safety, accuracy, and proper scientific understanding globally.
Radioactive transformations, including alpha, beta, and gamma decay, play crucial roles in both natural phenomena and technological advancements.
Quarks, with their unique properties and interactions, form the essential building blocks of all matter in the universe.
Quantum mechanics fundamentally alters our perception of reality, introducing concepts like superposition, uncertainty, and entanglement that defy classical intuition.
The interaction between light and the human eye is fundamental, enabling us to see and interpret our surroundings vividly.
Each region of the electromagnetic spectrum serves unique purposes, from communication and medical imaging to scientific exploration and research.
Fundamental particles form the essential building blocks of matter, underlying all physical phenomena and forces in the universe.
Bragg Peak in proton therapy enables precise tumour targeting, minimising damage to surrounding healthy tissue, enhancing cancer treatment outcomes.
Electron capture transforms a proton into a neutron by absorbing an inner electron, significantly altering the atomic nucleus.
A scintillation counter detects ionising radiation, converting emitted light from scintillators into electrical signals for precise measurement.
Medical physics combines physics principles with medical science to enhance diagnostics and treatment, improving global healthcare outcomes significantly. Image for illustration only. Person depicted is a model.
The gamma camera allows non-invasive imaging, enabling detailed diagnosis and monitoring of various medical conditions with precision. Image for illustration only. Person depicted is a model.