Comparison of dosimeters

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The following table compares features of dosimeters.

Ionizing radiation dosimeters
DevicePhotoMfg. countrySize, mmWeight, gPower supplyDisplaySoundVibrationDetector typeRange, μSv/hRange, μR/hMeasurement time, secondsMeasuring of beta and gamma radiation and range of energyPC linkExtra features
SA-05A [1] Geiger Counter Survey Meter "White Cat" Edition SA-05A.jpg Switzerland 119x65x26.5135Built-in lithium polymer batteryLCDNoNo Geiger–Müller tube LND 7130.01–6000No1–600.05–1.3 MeV USB Clock, calendar and data logger
ANRI 01-02 Sosna [2] Dosimeter sosna front.jpg Russia 133x82x45350 Nine-volt battery LCDYesNoTwo to four Geiger–Müller tubes 0.1–10010–10420±5Combined, 0.5–3.0 MeVNo
DKG-RM1203M [3] Belarus 125x42x2490Two LR44 LCDYesNo Geiger–Müller tube 0.01–20001–2*105?NoInfraredClock with alarm
MKS-05 «Terra-P» Chernobyl and Pripyat (4854347168).jpg Ukraine 120×52×26150Two AAA LCDYesNo Geiger–Müller tube 0.1–100010–1055–70Combined, 0.5–3.0 MeVNoClock with alarm, cover as option
MKS-05 «Terra» (New edition) Ukraine 120×52×26150Two AAA LCD with backlightYesYes Geiger–Müller tube 0.1–10410–1061–70Combined, 0.5–3.0 MeV Bluetooth Clock with alarm, cover
DKR-04?74х48х1650 AAA LCDYesNoSemiconductor0.1–10610–1084–256NoNo
GQ GMC-500+ [4] GQ Geiger Counter - GMC-500 Plus - 1.jpg United States135x78x25 Lithium-ion battery (18650)LCD with backlightYesNoTwo Geiger–Müller tubes 0–425000–4.25*1061–60Combined, 0.1–3 MeV USB WiFi, logging to a server, gyroscope
Radex RD1503, RD1503+ Rd1503.jpg Russia 105х60х2690One or two AAA LCD with backlightYesOnly RD1503+ Geiger–Müller tube 0.05–105–1000up to 40Combined, 0.1–1,25 MeVNo
Radex RD1706 Rd1503.jpg Russia 105х60х2690One or two AAA LCD with backlightYesYesTwo Geiger–Müller tubes 0.05–10005–1051–26Combined, 0.1–1.25 MeVNoBackground mode
Radex RD1212 Russia 97x68x2480One or two AAA LCD with backlightYesYesOne Geiger–Müller tube 0.05–9995–1051–10Combined, 0.4–3.5 MeV USB Background mode, integrated flashlight, time and date functions, multilingual
Radex RD1008 Rd1008-kcl.jpg Russia 140х64х26175 AA LCD with backlightYesYesTwo Geiger–Müller tubes 0.1–10002–1202–21Separated, 0.05–3.5 MeVNoBackground mode, separated indication of beta and gamma radiation
RadTarge II D300 [5] China69x46x1760Built-in lithium ion battery LCD with backlightYesYesYSO scintillator + SiPM 0.5–500050–5*105< 8No, 0.03–1.5 MeV USB Dose equivalent rate + accumulated dose meter, pager-like clip, time and date functions, data logging and export (via Mac/PC software)
RadTarge II D700 [6] China69x46x1760Built-in lithium-ion battery LCD with backlightYesYesYSO scintillator + SiPM 0.01–10001–105< 2No, 0.02–3 MeV USB Dose equivalent rate + accumulated dose meter, pager-like clip, time and date functions, data logging and export (via Mac/PC software)
RadTarge II D900 [7] China69x46x1760Built-in lithium-ion battery LCD with backlightYesYesYSO scintillator + SiPM 0.1–10510–107< 6No, 0.02–3 MeV USB Dose equivalent rate + accumulated dose meter, pager-like clip, time and date functions, data logging and export (via Mac/PC software)
RKSB-104 Belarus 154х77х39350 Nine-volt battery LCDNoNoTwo Geiger–Müller tubes 0.1–10010–2*10418–400Combined, 0.5–3.0 MeVNo
DKG-RM1610 Belarus 58х58х1870Built-in accumulatorLCDYesYesOne Geiger–Müller tube 0.01–1.2*1061–1.2*108?No USB Shock protection
EcotestCARD Ukraine 80 CR2450 LCDYesNoSemiconductor0.1–10610–108??Infrared

Related Research Articles

<span class="mw-page-title-main">Dosimeter</span> Device measuring ionizing radiation exposure

A radiation dosimeter is a device that measures dose uptake of external ionizing radiation. It is worn by the person being monitored when used as a personal dosimeter, and is a record of the radiation dose received. Modern electronic personal dosimeters can give a continuous readout of cumulative dose and current dose rate, and can warn the wearer with an audible alarm when a specified dose rate or a cumulative dose is exceeded. Other dosimeters, such as thermoluminescent or film types, require processing after use to reveal the cumulative dose received, and cannot give a current indication of dose while being worn.

<span class="mw-page-title-main">Waveguide</span> Structure that guides waves efficiently

A waveguide is a structure that guides waves by restricting the transmission of energy to one direction. Common types of waveguides include acoustic waveguides which direct sound, optical waveguides which direct light, and radio-frequency waveguides which direct electromagnetic waves other than light like radio waves.

<span class="mw-page-title-main">Sievert</span> SI unit of equivalent dose of ionizing radiation

The sievert is a unit in the International System of Units (SI) intended to represent the stochastic health risk of ionizing radiation, which is defined as the probability of causing radiation-induced cancer and genetic damage. The sievert is important in dosimetry and radiation protection. It is named after Rolf Maximilian Sievert, a Swedish medical physicist renowned for work on radiation dose measurement and research into the biological effects of radiation.

The gray is the unit of ionizing radiation dose in the International System of Units (SI), defined as the absorption of one joule of radiation energy per kilogram of matter.

The Therac-25 is a computer-controlled radiation therapy machine produced by Atomic Energy of Canada Limited (AECL) in 1982 after the Therac-6 and Therac-20 units.

Radiation dosimetry in the fields of health physics and radiation protection is the measurement, calculation and assessment of the ionizing radiation dose absorbed by an object, usually the human body. This applies both internally, due to ingested or inhaled radioactive substances, or externally due to irradiation by sources of radiation.

Radiation protection, also known as radiological protection, is defined by the International Atomic Energy Agency (IAEA) as "The protection of people from harmful effects of exposure to ionizing radiation, and the means for achieving this". Exposure can be from a source of radiation external to the human body or due to internal irradiation caused by the ingestion of radioactive contamination.

<span class="mw-page-title-main">Health physics</span>

Health physics, also referred to as the science of radiation protection, is the profession devoted to protecting people and their environment from potential radiation hazards, while making it possible to enjoy the beneficial uses of radiation. Health physicists normally require a four-year bachelor’s degree and qualifying experience that demonstrates a professional knowledge of the theory and application of radiation protection principles and closely related sciences. Health physicists principally work at facilities where radionuclides or other sources of ionizing radiation are used or produced; these include research, industry, education, medical facilities, nuclear power, military, environmental protection, enforcement of government regulations, and decontamination and decommissioning—the combination of education and experience for health physicists depends on the specific field in which the health physicist is engaged.

Absorbed dose is a dose quantity which is the measure of the energy deposited in matter by ionizing radiation per unit mass. Absorbed dose is used in the calculation of dose uptake in living tissue in both radiation protection, and radiology. It is also used to directly compare the effect of radiation on inanimate matter such as in radiation hardening.

Radiation hardening is the process of making electronic components and circuits resistant to damage or malfunction caused by high levels of ionizing radiation, especially for environments in outer space, around nuclear reactors and particle accelerators, or during nuclear accidents or nuclear warfare.

<span class="mw-page-title-main">Film badge dosimeter</span> Device using photographic film to measure radiation exposure

A film badge dosimeter or film badge is a personal dosimeter used for monitoring cumulative radiation dose due to ionizing radiation.

<span class="mw-page-title-main">Quartz fiber dosimeter</span> Type of radiation dosimeter

A quartz fiber dosimeter, sometimes called a self indicating pocket dosimeter (SIPD) or self reading pocket dosimeter (SRPD) or quartz fibre electrometer (QFE), is a type of radiation dosimeter, a pen-like device that measures the cumulative dose of ionizing radiation received by the device, usually over one work period. It is clipped to a person's clothing, normally a breast pocket for whole body exposure, to measure the user's exposure to radiation.

The computed tomography dose index (CTDI) is a commonly used radiation exposure index in X-ray computed tomography (CT), first defined in 1981. The unit of CTDI is the gray (Gy) and it can be used in conjunction with patient size to estimate the absorbed dose. The CTDI and absorbed dose may differ by more than a factor of two for small patients such as children.

<span class="mw-page-title-main">Roentgen (unit)</span> Measurement of radiation exposure

The roentgen or röntgen is a legacy unit of measurement for the exposure of X-rays and gamma rays, and is defined as the electric charge freed by such radiation in a specified volume of air divided by the mass of that air . In 1928, it was adopted as the first international measurement quantity for ionizing radiation to be defined for radiation protection, as it was then the most easily replicated method of measuring air ionization by using ion chambers. It is named after the German physicist Wilhelm Röntgen, who discovered X-rays and was awarded the first Nobel Prize in Physics for the discovery.

<span class="mw-page-title-main">MIT Radiation Laboratory</span> Research facility in Cambridge, Massachusetts

The Radiation Laboratory, commonly called the Rad Lab, was a microwave and radar research laboratory located at the Massachusetts Institute of Technology (MIT) in Cambridge, Massachusetts. It was first created in October 1940 and operated until 31 December 1945 when its functions were dispersed to industry, other departments within MIT, and in 1951, the newly formed MIT Lincoln Laboratory.

StemRad is an Israeli-American start-up company that develops and manufactures personal protective equipment (PPE) against ionizing radiation. Its first product was the 360 Gamma, a device that protects the user's pelvic bone marrow from gamma radiation. StemRad has also developed the StemRad MD, a protective suit designed to provide whole-body radiation protection to physicians, and the AstroRad vest for radiation protection in space, which is currently being tested on the International Space Station and is one of the primary payloads onboard NASA's Artemis 1 lunar mission.

Gel dosimeters, also called Fricke gel dosimeters, are manufactured from radiation sensitive chemicals that, upon irradiation with ionising radiation, undergo a fundamental change in their properties as a function of the absorbed radiation dose.

<span class="mw-page-title-main">Electronic personal dosimeter</span>

The electronic personal dosimeter (EPD) is a modern electronic dosimeter for estimating uptake of ionising radiation dose of the individual wearing it for radiation protection purposes. The electronic personal dosimeter has the advantages over older types that it has a number of sophisticated functions, such as continuous monitoring which allows alarm warnings at preset levels and live readout of dose accumulated. It can be reset to zero after use, and most models allow near field electronic communications for automatic reading and resetting.

US Nuclear Corporation is a US radiation detection holding company headquartered in Canoga Park, CA specializing in the development and manufacturing of radiation detection instrumentation. It supplies instrumentation to nuclear power plants, national laboratories, government agencies, homeland security, military and weapon makers, universities and schools, research companies, hospitals, as well as energy companies.

<span class="mw-page-title-main">Radiochromic film</span>

Radiochromic film is a type of self-developing film typically used in the testing and characterisation of radiographic equipment such as CT scanners and radiotherapy linacs. The film contains a dye which changes colour when exposed to ionising radiation, allowing the level of exposure and beam profile to be characterised. Unlike x-ray film no developing process is required and results can be obtained almost instantly, while it is insensitive to visible light.

References

  1. Allimann.com
  2. Дозиметр-радиометр АНРИ-01-02 "Сосна"
  3. Polimaster DKG-RM1203M or find a current model at Polimaster Ltd.
  4. "GQ Geiger Counter Selection Guide". GQ Electronics LLC. Retrieved 2022-10-06.
  5. "Electronic Personal Dosimeter | RadTarge II D300 | X-Z LAB". X-Z LAB. Retrieved 2016-11-14.
  6. "Electronic Personal Dosimeter | RadTarge II D700 | X-Z LAB". X-Z LAB. Retrieved 2016-11-14.
  7. "Electronic Personal Dosimeter | RadTarge II D900 | X-Z LAB". X-Z LAB. Retrieved 2016-11-14.

Literature