The Canberra BE 3830 (Broad Energy Germanium Detector) is designed for high-resolution spectral analysis of gamma and X-ray radiation, enabling precise radionuclide identification. With a wide energy range (3 keV – 3 MeV), it can detect both low-energy X-rays and high-energy gamma rays, making it useful in environmental studies and the nuclear industry. It uses a germanium crystal with a specific geometry—larger diameter and shorter length—which enhances the detection efficiency of low-energy gamma quanta and X-rays. The optimized crystal structure improves charge collection and reduces signal loss.
The detector features a relative efficiency of 34%, a resolution capability of 500 eV at 122 keV, an active area diameter of 30 mm, and a thickness of 20 mm. It can be cooled using liquid nitrogen (-196°C) or mechanically. With its low operating voltage and short response time (<100 ns), it ensures operational stability and high precision in pulse radiation measurements.
The Canberra GC 2020 (Standard Electrode Germanium Coaxial Detector) is designed for high-resolution gamma-ray spectroscopy, enabling precise isotopic composition analysis of samples. With its coaxial construction and standard electrode, it ensures stable charge collection and features low noise levels, which translates into accurate gamma spectrum representation over a wide energy range.
The germanium crystal, optimized in length and diameter, enhances the detection efficiency for medium- and high-energy gamma photons, making the detector applicable in nuclear research, environmental monitoring, and material analysis. The detector is capable of detecting gamma radiation in the range of 40 keV to 10 MeV, with a relative efficiency of 20%, a resolution of 1.8 keV at 1.33 MeV, and a supply voltage ranging from 2500 to 4000 V. Its capability to be cooled with liquid nitrogen (-196°C) ensures noise reduction and long-term operational stability in demanding spectrometric applications.
The Canberra 7401 alpha spectrometer, equipped with a PIPS (Passivated Implanted Planar Silicon) detector, is designed for precise spectral analysis of alpha particles, ensuring high resolution and low noise levels. The use of the PIPS detector provides excellent long-term stability, low dark current, and resistance to mechanical and radiation damage, making it ideal for applications in nuclear research and contamination monitoring.
Its measurement chamber accommodates sources with diameters up to 50 mm, enabling the analysis of larger samples and improving measurement efficiency. The spectrometer delivers high sensitivity and precision thanks to the large-area detector, low background noise levels, and high charge collection efficiency. With an optimized design and advanced electronics, it guarantees reliability during long-term spectrometric measurements.
The Hidex 300SL liquid scintillation counter is a modern tool for measuring isotopes emitting alpha and beta particles, based on the LSC (Liquid Scintillation Counting) method. The device utilizes a scintillation cocktail, where ionizing radiation causes photon emission, which is then recorded by three photomultipliers (PMT) in a coincidence setup. By applying TDCR (Triple to Double Coincidence Ratio) technology, the detection efficiency can be precisely determined. The detection efficiency reaches up to 100% for alpha particles, and measurements of beta and alpha radiation can be separated using Pulse Length Index (PLI) analysis. The device accommodates 20 ml and 7 ml vials, offers an energy range from 0 to 2000 keV, and features high sensitivity and low background noise, making it an excellent choice for research on radioactivity across a wide range of applications.
The Alpha Analyst™ Integrated Alpha Spectrometer is an advanced system for alpha spectrometry, designed for precise analysis of environmental, biological, and industrial samples. Equipped with eight PIPS (Passivated Implanted Planar Silicon) detectors, it delivers high energy resolution and low background levels, allowing accurate identification of radionuclides emitting alpha particles. Its modular design enables simultaneous measurement of multiple samples, while its digital electronics system minimizes noise and enhances the stability of long-term measurements. The system is compatible with Apex-Alpha™ software, which supports automatic data processing, background correction, and spectral peak identification. The device operates within an energy range of 3 to 10 MeV, offers remote control functionality, and integrates seamlessly with other laboratory systems, making it a versatile tool for radioisotope research.
The EKO-C radioactive contamination monitor is a precision device designed to detect and measure ionizing radiation originating from contaminants emitting alpha and beta particles, as well as radiation from X-ray and gamma sources. Equipped with interchangeable measurement probes, it allows flexibility in selecting detectors based on the type of radiation and application. The device features an internal memory for recording measurement results, enabling subsequent analysis. The EKO-C monitor is characterized by a wide measurement range, capable of detecting radiation levels from 0.01 cps to 999,000 cps, with an accuracy of ±15%. It can operate with various probes, including those with high sensitivity up to 1000 cm², allowing effective detection of contamination over large areas. The device is powered by a rechargeable battery, ensuring continuous operation for up to 20 hours on a single charge, making it highly convenient for field applications.
The RAD7 is an advanced instrument for measuring radon and its progeny, used in environmental and geological research as well as air quality monitoring. The device utilizes alpha detection based on energy spectrometry, allowing precise differentiation of radon isotopes (Rn-222) and thoron (Rn-220), along with their decay products. With its quick response time and ability to operate in continuous mode, the RAD7 is suitable for both laboratory and field measurements. It features a detection range from 4 to 750,000 Bq/m³ and an integrated air-drying system, which improves measurement accuracy by reducing the impact of humidity. The device is portable and battery-powered, enabling long-term use in various environmental conditions.
Scintillation probes are devices used for detecting and measuring ionizing radiation, based on the phenomenon of scintillation—emission of light caused by radiation interacting with the detection material. They are commonly used in environmental monitoring, radiation research, and radioactive contamination control. Depending on the design and the scintillator used, they can be sensitive to alpha, beta, gamma, or neutron radiation. The Polon-Alfa SSU-70-2 probe is a scintillation device designed for gamma radiation measurement, offering high sensitivity and a wide measurement range. It uses a thallium-activated sodium iodide crystal (NaI(Tl)) with a diameter of 70 mm, ensuring high gamma radiation detection efficiency. The probe works with dosimetric meters, enabling quick and precise determination of radiation levels in the environment and the identification of radioactive sources.
The LB 134 model is distinguished by its wide measurement range and high detection sensitivity. The detector enables accurate real-time recording of neutrons across various energy levels, ensuring reliable results. The device features an intuitive user interface and is compatible with different detection probes, allowing for customization according to specific measurement requirements. This versatile monitor is designed for measuring neutron dose and dose rate in various settings. Its robust construction enables the evaluation of exposure levels and the implementation of appropriate measures. The LB 134 provides flexibility and precision, tailored to meet diverse application needs.
Portable electronic dosimeters are compact devices designed for the immediate measurement of ionizing radiation dose and dose rate, used in radiological protection, environmental monitoring, and scientific research. They are equipped with detectors such as Geiger-Müller counters, scintillation detectors, or semiconductor detectors, allowing direct readings of radiation values on a built-in display. These devices operate by registering and processing pulses generated by the interaction of gamma radiation—and, depending on the model, beta radiation—with the detector material. Depending on the design and purpose, they can function in continuous monitoring mode or perform single measurements, providing instant information about radiation levels at a specific location. Sensitivity and measurement range are adapted for detecting both low and high radiation doses, making them versatile tools across various exposure scenarios. Modern portable dosimeter models often include additional features, such as alarm systems signaling exceeded radiation limits, communication interfaces for data transfer to analytical systems, and calibration options to ensure measurement accuracy. Their ergonomic design and mobility make them widely used in radiological supervision, contamination control, and emergency situations involving radiation hazards.
The RADEAGLET is a portable, lightweight device for radioisotope identification (RIID), designed for the rapid and precise detection and identification of gamma radiation sources in various field conditions. Utilizing advanced detection technologies, the RADEAGLET provides users with immediate information on the type and intensity of radiation, which is crucial for radiological safety operations and environmental monitoring. The device operates in multiple modes, such as dose rate measurement, radiation source localization, and radionuclide identification, making it a versatile solution for ionizing radiation detection. The application of modern spectral analysis algorithms enables quick and accurate identification of even complex mixtures of isotopes, which is invaluable in situations requiring immediate assessment of radiological threats. It features an intuitive user interface and a clear display, allowing for easy interpretation of measurement results. The robust construction of the RADEAGLET ensures resistance to challenging operational conditions, making it a reliable tool for emergency responders, radiological safety inspectors, and personnel working in the nuclear industry.
The Berthold LB 134 neutron dosimeter is an advanced measurement system designed for monitoring neutron radiation dose and dose rate in radiological protection, scientific research, and the nuclear industry. It comprises the LB 134 readout unit and the LB 6411 detection probe, which uses a proportional counter filled with ³He gas as the detection medium. As neutrons pass through the polyethylene moderator, they are slowed down to thermal energy, increasing the likelihood of reactions with helium-3. During the nuclear reaction, charged particles (a proton and a triton) are produced, ionizing the gas inside the detector and generating a signal recorded by the measurement electronics. The device features a wide measurement range from 0.01 µSv/h to 100 mSv/h and high sensitivity for detecting thermal neutrons (with energy up to approximately 0.025 eV). Thanks to the polyethylene moderator, the detector effectively slows neutrons to thermal energies, enabling efficient detection. For higher-energy neutrons, including fast neutrons (with energy up to several MeV), the detector's sensitivity is limited, but detection is still possible with reduced accuracy. The system includes an alarm that signals exceeded radiation thresholds and a modular design that allows compatibility with other detection probes, adapting the device to specific measurement conditions.