Detectors

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Devices used to detect particles and measure their properties as they pass through a given area.

Particle physics: Study of the fundamental building blocks of matter and their interactions.
Electromagnetism: The study of the properties and behavior of electrically charged particles.
Quantum mechanics: A branch of physics that deals with the principles and properties of matter and energy at the smallest scales.
Radiation: Energy that travels through space in the form of waves or particles.
Radioactivity: The process by which an unstable atomic nucleus emits ionizing particles, radiation, or both.
Ionization: The process by which an atom or molecule gains or loses an electron.
Gas detectors: Detectors that measure ionizing radiation by measuring the electrical charge produced by ionization in a gas.
Scintillation detectors: Detectors that measure ionizing radiation by detecting the light produced by radiation excitation of a scintillating material.
Solid-state detectors: Detectors that measure ionizing radiation by detecting the electrical charge produced by ionization in a solid.
Semiconductor detectors: Detectors that use semiconductor materials to detect radiation by collecting the electrical charge produced by ionization in a semiconductor.
Photomultipliers: Detectors that amplify the light produced by scintillation detectors.
Signal processing: The manipulation of signals to extract useful information from them.
Data acquisition: The process of collecting data from a detector and processing it for storage and analysis.
Calibration: The process of determining the response of a detector to a known radiation source.
Radiation shielding: The use of materials to reduce or eliminate the amount of radiation that reaches a detector.
Ionization Chamber: Measures the ionization produced by high-energy particles. It consists of two parallel plates kept at high voltage.
Geiger Counter: Detects radiation by ionizing atoms within a gas-filled chamber. It uses a thin wire as a detector.
Scintillation Detector: Converts high-energy particles into light, which is then detected by photomultiplier tubes.
Cloud Chamber: Detects ionizing radiation by producing a visible trail of charged particles within a gas-filled chamber.
Bubble Chamber: Similar to a cloud chamber, but uses liquid instead of gas.
Cherenkov Detector: Detects high-energy charged particles by observing the light emitted as they pass through a medium faster than the speed of light in that medium.
Time-of-Flight Detector: Measures the time it takes for a high-energy particle to travel between two detectors, allowing for the determination of the particle’s velocity.
Calorimeter: Measures the total energy deposited by high-energy particles as they pass through a material.
Magnetic Spectrometer: Uses a magnetic field to bend the path of charged particles, allowing for the determination of the particles’ momentum.
Transition Radiation Detector: Detects high-energy particles by observing the radiation emitted as they pass through a material interface.
Superconducting detector: Uses superconducting material to detect and measure the energy of particles that pass through it.
Resistive Plate Chamber: Detects high-energy particles by measuring the ionization created in a gas-filled chamber.
Time Projection Chamber: Uses an electric field to drift charged particles through a gas-filled chamber, allowing for the measurement of their three-dimensional trajectories.
Silicon Strip Detector: Uses a series of closely spaced silicon strips to track the path of charged particles.
Microchannel Plate Detector: Uses an array of tiny channels to amplify the ionization produced by high-energy particles.
Pixelated Detector: Uses an array of tiny pixels to track the path of charged particles with high spatial resolution.
Gas Electron Multiplier: Uses an array of closely spaced electrodes to amplify the ionization produced by charged particles.
Calorimetric Muon Detector: Measures the energy deposited by muons as they pass through a thick material.
Resistive Plate Chamber: Detects high-energy particles by measuring the ionization created in a gas-filled chamber.
Wire Chamber: Detects high-energy particles by measuring the ionization produced as they pass through a gas-filled chamber containing wires.
"…a device used to detect, track, and/or identify ionizing particles…"
"In experimental and applied particle physics, nuclear physics, and nuclear engineering…"
"Ionizing particles, such as those produced by nuclear decay, cosmic radiation, or reactions in a particle accelerator…"
"Detectors can measure the particle energy and other attributes such as momentum, spin, charge, particle type…"
"Detectors can measure the particle energy…"
"Detectors can measure…momentum…"
"Detectors can measure…spin…"
"Detectors can measure…charge…"
"Detectors can measure…particle type…"
"A device used to detect, track, and/or identify ionizing particles…"
"A radiation detector…is a device used to detect…ionizing particles…"
"…detect, track, and/or identify ionizing particles, such as those produced by nuclear decay…"
"…detect, track, and/or identify ionizing particles, such as those produced by cosmic radiation…"
"…detect, track, and/or identify ionizing particles, such as those produced by…reactions in a particle accelerator."
"In experimental and applied particle physics, nuclear physics, and nuclear engineering…"
"Detectors can measure…other attributes…"
"A device used to detect, track, and/or identify ionizing particles…"
"A device used to detect, track, and/or identify ionizing particles…"
"Detectors can measure…particle type…"
"Detectors can measure…spin…"