Radiacode 1ox
series
102
103
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The world's first series of pocket-sized radiation detectors and spectrometers, engineered for all natural science enthusiasts
Ultrafast sensitive scintillation detector
Isotope Identifier and spectrum analyser
The Full Width at Half Maximum (FWHM) in a gamma spectrometer is the width of a peak in a radiation energy spectrum at half of its maximum intensity. It measures how well the gamma spectrometer can distinguish between different radiation energies. A smaller FWHM means better ability to differentiate between energy levels, while a larger FWHM indicates poorer resolution.
Radiation tracks with Google Maps and OpenSteetMap
Energy and temperature compensated dose rate and spectrum
Food testing mode for contamination
Mobile and PC application with extra features
Isotope Identifier and spectrum analyser
The Full Width at Half Maximum (FWHM) in a gamma spectrometer is the width of a peak in a radiation energy spectrum at half of its maximum intensity. It measures how well the gamma spectrometer can distinguish between different radiation energies. A smaller FWHM means better ability to differentiate between energy levels, while a larger FWHM indicates poorer resolution.
Ultrafast sensitive scintillation detector
Radiation tracks with Google Maps and OpenSteetMap
Energy and temperature compensated dose rate and spectrum
Food testing mode for contamination
Mobile and PC application with extra features
Models of 2023-24
2-year warranty
Made in EU
To gain a swift and comprehensive grasp of device capabilities, consider watching the video
Radiacode is a next-generation "Geiger counter" that radically changes the concept of nuclear radiation detection.
The counting rate of Radiacode under natural background is 300-500 CPM (Counts per Minute), which is, on average, 15-20 times higher than conventional Geiger counters. The high efficiency of the scintillation sensor allows it to acquire more data and respond to changes in real-time.
What advantages does this provide? Imagine finding yourself in an unfamiliar area and wanting to explore the territory for radiation. With a regular Geiger counter, you would need to move at a pace of 2-3 steps per minute. However, with Radiacode, you can walk at a normal speed and even record the radiation levels at each point. You could even record the radioactive path with GPS coordinates on Google Maps.
Each device undergoes temperature calibration ranging from +50 to -20 degrees Celsius, ensuring stable readings regardless of the temperature. Radiacode will provide accurate readings in any weather conditions.
Radiacode features Energy Compensation of the dose rate, allowing for equally precise measurement of both high-energy gamma radiation and low-energy X-rays.
Measurement is conducted simultaneously in two channels: dose rate in microsieverts and impulses in CPS. In other words, one channel displays radiation intensity, while the other reflects the impact on living organisms. Different isotopes and radiation sources affect organisms differently, and Radiacode can recognize their energy and display accurate data regarding dose exposure.
Importantly, for both CPS and μSv measurements, there is an alarm system that you can configure according to your preferences.
Gamma spectrometry is a standout feature of Radiacode, making it a breakthrough in the realm of radiation detectors. Previously accessible only with costly laboratory equipment, this capability now fits into a pocket-sized device weighing just 67 grams.
Now, you can identify radiation sources, whether it's Radium-226, Cesium-137, Thorium-232, Am-241, or a number of other isotopes.
This is fascinating from a scientific perspective, as it immerses you in the mysterious world of nuclear physics and provides insight into the invisible matter around us. Study radiation sources, formulate hypotheses, engage in discussions within our communities of like-minded individuals, and make discoveries. It also has a vital practical applications.
From a safety standpoint, this is essential. If you detect isotopes like Radium-226, Cesium-137, or Americium in an urban environment, it's a reason to alert emergency services.
Furthermore, it holds significant importance if you happen to be in regions affected by the aftermath of the Chernobyl rains in 1986, as well as areas affected by nuclear tests and accidents. This impact extends to specific regions across Eastern, Western, and Northern Europe, the United States, Japan, Ukraine, Belarus, and Russia. The consumption of certain locally grown products from these lands could continue to pose health risks for the next 30 to 100 years, due to the presence of Cs-137 in these organic materials.
Every device has individual temperature calibration, ensuring consistent spectral recording even under significant temperature variations. The accuracy of the spectrum will be maintained regardless of temperature fluctuations. The spectrum resolution for Cs-137 is 8.3% ±0.3% (Radiacode 103) Full Width at Half Maximum (FWHM), considered the industry standards for scintillation spectroscopic equipment. For optimal visualization, you can view the spectrum chart on a Bluetooth-connected smartphone or PC.
You may have thought that spectrometry is complex and requires special skills. But it's actually quite simple. Just bring the device close to the object of study and restart the spectrum collection. Depending on the type of isotope and the source's strength, it may take anywhere from a few seconds to several hours.
Radiacode's captivating feature is its ability to record radiation measurements on Google Maps or OpenStreetMap (OSM) when synchronized with a smartphone via Bluetooth.
The device automatically captures radiation levels at user-defined intervals, creating a track composed of colored points on the map. The color of the track represents the radiation level at the corresponding location: shades of red signify higher levels, yellow indicates moderate levels, and blue and green show lower levels. This color-coding is as straightforward as a traffic light system.
Additionally, you have the option to customize your own color palettes. You can also export your maps to share with other Radiacode users or import their maps directly into your application.
Radiacode is your “sixth sense” in the world of radiation. You will discover places with elevated or reduced radiation levels, which may indicate interesting and unusual phenomena or objects.
Radiacode has a specialized mode for measuring the presence of Cesium-137 in food products.
Cesium-137 is the most common nuclear isotope worldwide, settling across large areas of our planet after numerous nuclear tests in the USA and USSR, as well as several nuclear accidents, including Chernobyl. Winds and rains have carried Cesium-137 over vast distances, and traces of it can even be found in Africa and Antarctica.
The issue with Cesium-137 is that it's a synthetic isotope, never found in nature prior to its creation by humans. Living organisms mistake it for elements used in building organic tissues. Once it enters the human or animal body, it accumulates in the muscles, heart, and liver, where it can potentially remain throughout one's lifetime.
Unlike trace elements such as K, Ca, Zn, Fe, etc., which are beneficial to the body in small doses, Cesium-137 is harmful in any quantity.
Radiacode enables the measurement of the absolute and/or specific activity in various food products (expressed in Bq/kg) or provides results relative to maximum permissible concentrations (MPC).
With Radiacode, Cesium-137 can be detected in products such as berries, mushrooms, dairy products, domestic meat and game, honey, fish, and more. Ordinary dosimeters can only detect radiation in heavily contaminated products and cannot identify the presence of Cesium-137 as such.
A spectrogram is a collection of gamma spectra recorded at specified time intervals, presented as a colored array capable of storing thousands of spectra. Don't worry, the recording is done automatically, continuously, and essentially without user involvement but can be extremely useful in various situations.
This mode assists in identifying the source of radiation if your alarm system suddenly starts and goes off, but you cannot immediately determine its cause.
As an example, it is quite possible to identify the radiation source as individuals who have undergone radioisotope therapy or contrast imaging pass by. Typically, these individuals trigger the alarm briefly as they pass, after which the background radiation levels quickly return to normal, leaving the user seriously concerned about the reasons for the device's activation.
In this case, the spectrogram operating in the background mode is likely to provide an explanation, having had time to record data about the event. By examining the recorded spectrogram at a convenient time, the user may discover that the source of the short-lived radiation spike was, for example, Technetium-99m.
This mode is specifically designed to help you detect radiation with maximum sensitivity, ensuring swift and efficient movement during critical operations. With real-time updates, readings refresh twice per second, allowing you to cover larger areas in less time without compromising accuracy. Enhanced audio feedback, available through your smartphone or headphones, keeps you informed in noisy or sensitive environments without drawing unwanted attention. The analog indicator provides peripheral awareness, enabling you to monitor radiation levels without constantly checking the screen, making it easier to react in dynamic situations. For those tracking radiation levels over time, the visual graph helps identify rising trends and allows for timely adjustments. Additionally, the modified algorithm minimizes response delays, offering faster feedback for split-second decision-making.
Built on decades of experience with analog detection technologies and utilizing highly sensitive scintillator technology, this mode ensures the most responsive tool for radiation detection, helping you complete your mission quickly, safely, and accurately.
Radiacode devices are engineered for both autonomous operation and enhanced functionality when paired with a smartphone or computer
Discover the full potential of Radiacode, a device designed for smart, flexible, and efficient operations, which transforms into an even more powerful tool when paired with Radiacode software, thereby enhancing device capabilities in radiation monitoring and data analysis.
This dual-mode capability ensures seamless performance for users seeking independent device functionality, as well as for those who wish to leverage the additional features and controls available through integration with software on their smartphone or computer. Whether used standalone or as part of a connected system, Radiacode devices provide peerless versatility and efficiency.
The Radiacode software is continually evolving, ensuring it consistently meets the dynamic needs and challenges of users. The simplified process of staying up-to-date with firmware upgrades, achievable via a straightforward smartphone connection, ensuring that the device always operates with the latest features and optimal performance.
The Radiacode device is showcased in an ergonomically designed plastic casing, making it convenient and comfortable to use.
The device is equipped with a clear, monochrome graphical display and it incorporates auditory, visual, and tactile alerts, providing a variety of notification options.
This device comes with an automatic screen backlight feature for optimal visibility in low-light conditions, and it offers high-contrast settings for superior readability in bright environments. In addition, the screen rotation can be manually set according to the user's preference for either left or right-hand operation. Alternatively, the device is capable of automatically adjusting the screen orientation using its in-built accelerometer.
The sensor is made with an artificially grown CsI(Tl) or GAGG(Ce) crystal, depending on the model. This makes it 20 times faster and more sensitive to radiation than a Geiger counter.
Tough, low-power backlit display that's great to view in sunlight or darkness.
Compact, radiation-transparent plastic case designed for easy everyday use.
The 1000 mAh Li-poly battery lasts for 200 hours and is charged via the standard and widely available Type-C connector.
The central processor, based on the latest ARM architecture, provides real-time sensor data analysis and conversion for high measurement speed and accuracy.
The sensor is made with an artificially grown CsI(Tl) or GAGG(Ce) crystal, depending on the model. This makes it 20 times faster and more sensitive to radiation than a conventional Geiger counter.
Tough, low-power backlit display that's great to view in sunlight or darkness.
The central processor, based on the latest ARM architecture, provides real-time sensor data analysis and conversion for high measurement speed and accuracy.
Compact, radiation-transparent plastic case designed for easy everyday use.
The 1000 mAh Li-poly battery lasts for 200 hours and is charged via the standard and widely available Type-C connector.
The Radiacode scintillation crystal, possessing optimal shape and size, in conjunction with the solid-state photomultiplier, provides high sensitivity across a broad range of ionizing radiation energies.
Cubic-shaped crystal, securу consistent sensitivity irrespective of the device's orientation towards the radiation source.
Moisture-proof sealed capsule containing a CsI(Tl) or GAGG(Ce) crystal.
A precision-calibrated, temperature-compensated power supply assigned to the photomultiplier.
A high-speed analog-digital circuit, designed to process pulses emerging from the photomultiplier.
The entire sensor is securely enclosed within a hermetically sealed capsule, precluding any contact of the crystal with the ambient environment.
Radiacode device sensor
The Radiacode device operates in a continuous manner, gathering, storing, and analyzing data over time. As a result, at any given moment, the device's display can showcase one of several options for assessing radiation levels.
When the Radiacode device is connected to a smartphone via Bluetooth, the RadiaCode app further expands the display options for assessing radiation levels.
Provides real-time dose rate and count rate measurements (μSv/h, μR/h, CPS, CPM).
Shows the cumulative dose measurements (μSv, μR).
Offers a graphical representation of the count rate (CPM or CPS) aiding in locating point sources of radiation.
Displays the energy spectrum of gamma radiation on a linear or logarithmic scale.
Csl (TI)
Crystal 10x10x10 mm
+ solid-state photomultiplier 3x3 mm
Cs-137 - 1 μSv/h = 30 cps
Co-60 - 1 μSv/h = 10 cps
9.4% ±0.4% (FWHM) for Cs-137
0,01 - 1000 μSv/h (Cs-137)
0,001 - 10 Sv
0,02 - 3,0 MeV
Yes
Li-pol 3.7 V, 1000 mAh up to 200 hours on single charge
Monochrome graphic LCD, 128x48 pixels, 34x13 mm, FSTN, Transflective, Positive
-10 … +45°C
124x35x18 mm
65 g
Csl (TI)
Crystal 10x10x10 mm
+ solid-state photomultiplier 3x3 mm
9.4% ±0.4% (FWHM) for Cs-137
Cs-137 - 1 μSv/h = 30 cps
Co-60 - 1 μSv/h = 10 cps
0,01 - 1000 μSv/h (Cs-137)
0,001 - 10 Sv
0,02 - 3,0 MeV
Yes
Li-pol 3.7 V, 1000 mAh up to 200 hours on single charge
Monochrome graphic LCD, 128x48 pixels, 34x13 mm, FSTN, Transflective, Positive
-10 … +45°C
124x35x18 mm
65 g
Csl (TI)
Crystal 10x10x10 mm
+ solid-state photomultiplier 6x6 mm
Cs-137 - 1 μSv/h = 30 cps
Co-60 - 1 μSv/h = 10 cps
8.3% ±0.3% (FWHM) for Cs-137
0,01 - 1000 μSv/h (Cs-137)
0,001 - 10 Sv
0,02 - 3,0 MeV
Yes
Li-pol 3.7 V, 1000 mAh up to 200 hours on single charge
Monochrome graphic LCD, 128x48 pixels, 34x13 mm, FSTN, Transflective, Positive
-10 … +45°C
124x35x18 mm
65 g
Csl (TI)
Crystal 10x10x10 mm
+ solid-state photomultiplier 6x6 mm
8.3% ±0.3% (FWHM) for Cs-137
Cs-137 - 1 μSv/h = 30 cps
Co-60 - 1 μSv/h = 10 cps
0,01 - 1000 μSv/h (Cs-137)
0,001 - 10 Sv
0,02 - 3,0 MeV
Yes
Li-pol 3.7 V, 1000 mAh up to 200 hours on single charge
Monochrome graphic LCD, 128x48 pixels, 34x13 mm, FSTN, Transflective, Positive
-10 … +45°C
124x35x18 mm
65 g
GAGG (Ce)
Crystal 10x10x10 mm
+ solid-state photomultiplier 6x6 mm
Cs-137 - 1 μSv/h = 40 cps
Co-60 - 1 μSv/h = 15 cps
7.4% ±0.2% (FWHM) for Cs-137
0,01 - 1000 μSv/h (Cs-137)
0,001 - 10 Sv
0,02 - 3,0 MeV
Yes
Full compensation in the update is expected in the second quartile of 2024
Li-pol 3.7 V, 1000 mAh up to 200 hours on single charge
Monochrome graphic LCD, 128x48 pixels, 34x13 mm, FSTN, Transflective, Positive
-10 … +45°C
124x35x18 mm
70 g
GAGG (Ce)
Crystal 10x10x10 mm
+ solid-state photomultiplier 6x6 mm
7.4% ±0.2% (FWHM) for Cs-137
Cs-137 - 1 μSv/h = 40 cps
Co-60 - 1 μSv/h = 15 cps
0,01 - 1000 μSv/h (Cs-137)
0,001 - 10 Sv
0,02 - 3,0 MeV
Yes
Li-pol 3.7 V, 1000 mAh up to 200 hours on single charge
Monochrome graphic LCD, 128x48 pixels, 34x13 mm, FSTN, Transflective, Positive
-10 … +45°C
124x35x18 mm
70 g
Csl (TI)
Crystal 10x10x10 mm
+ solid-state photomultiplier 3x3 mm
Csl (TI)
Crystal 10x10x10 mm
+ solid-state photomultiplier 6x6 mm
GAGG (Ce)
Crystal 10x10x10 mm
+ solid-state photomultiplier 6x6 mm
9.4% ±0.4% (FWHM) for Cs-137
8.3% ±0.3% (FWHM) for Cs-137
7.4% ±0.2% (FWHM) for Cs-137
Cs-137 - 1 μSv/h = 30 cps
Co-60 - 1 μSv/h = 10 cps
Cs-137 - 1 μSv/h = 30 cps
Co-60 - 1 μSv/h = 10 cps
Cs-137 - 1 μSv/h = 40 cps
Co-60 - 1 μSv/h = 15 cps
0.01 - 1000 μSv/h (Cs-137)
0.01 - 1000 μSv/h (Cs-137)
0.01 - 1000 μSv/h (Cs-137)
0.001 - 10 Sv
0.001 - 10 Sv
0.001 - 10 Sv
0.02 - 3.0 MeV
0.02 - 3.0 MeV
0.025 - 3.0 MeV
Yes
Yes
Yes
Full compensation in the update is expected in the second quartile of 2024
Li-pol 3.7 V, 1000 mAh up to 200 hours on single charge
Li-pol 3.7 V, 1000 mAh up to 200 hours on single charge
Li-pol 3.7 V, 1000 mAh up to 200 hours on single charge
Monochrome graphic LCD, 128x48 pixels, 34x13 mm, FSTN, Transflective, Positive
Monochrome graphic LCD, 128x48 pixels, 34x13 mm, FSTN, Transflective, Positive
Monochrome graphic LCD, 128x48 pixels, 34x13 mm, FSTN, Transflective, Positive
-10 … +45°C
-10 … +45°C
-10 … +45°C
124x35x20 mm
65 g
124x35x20 mm
65 g
124x35x20 mm
70 g
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