Global Radionuclide Identification Devices Market Research Report – Segmented By Application (Homeland security, Healthcare, Environmental monitoring, nuclear power plants, Mining, Oil and gas); By Type (Handheld devices, Portable devices, Benchtop devices); and Region - Size, Share, Growth Analysis | Forecast (2024 – 2030)

Radionuclide Identification Devices Market Size (2024 –2030)

The Global Radionuclide Identification Devices Market was estimated to be worth USD 175.78 million in 2023 and is projected to reach a value of USD 273.16 million by 2030, growing at a steady CAGR of 6.5% during the outlook period 2024-2030.


A small, portable gamma-ray spectrometer called a radionuclide identification device (RID) is used to find and identify radioactive materials. These portable devices come in a variety of configurations from different companies and are appropriate for first responders working in radiological mapping, environmental monitoring, and homeland security. They are also employed in industrial, medical, and geological surveys. Rapid and precise isotope identification has become more and more necessary over the last 20 years, and RIDs have developed to meet this need. Using room temperature detectors, these compact devices are made to be easily carried and to give accurate readings in a variety of settings.

Key Market Insights:

For identifying gamma energy signatures, handheld radionuclide identification devices usually have a resolution of 2.5% to 3.5% at 662 keV.A high-resolution handheld radionuclide identification device can cost anywhere between $25,000 and $50,000 per unit on average.It is estimated that the annual global demand for portable and vehicle-mounted radionuclide identification devices is in the range of 20,000 units.More than 80% of the global market share for revenues from radionuclide identification devices is held by the top five manufacturers.

Global Radionuclide Identification Devices Market Drivers:

As the threat of nuclear terrorism grows, there is an increasing need for efficient radionuclide identification devices or RIDs.

The increasing possibility of nuclear terrorism is the driving force behind the need for radionuclide identification devices, or RIDs, in homeland security. The threat of nuclear terrorism has increased due to the proliferation of nuclear weapons and materials as well as the emergence of terrorist organizations that aim to obtain and use them. Homeland security uses radionuclide identification devices to find and identify radioactive materials that might be used in terrorist attacks. Applications such as cargo screening, emergency response, and border security are included to detect and address possible radiological threats and stop the smuggling of radioactive materials across international borders.

Radionuclide Identification Devices (RID) are becoming more and more necessary in several industries to ensure safety and security.

Due to the extensive use of radioactive materials in sectors like mining, oil and gas, and healthcare, there is a growing need for Radionuclide Identification Devices (RID) for worker safety and environmental monitoring. RIDs are used by these industries to keep an eye on worker radiation exposure levels and guarantee that the environment is kept free of radioactive contamination. RIDs are crucial for preserving safe working conditions and shielding workers from radiation's damaging effects. They are utilized in the mining industry for worker and environmental safety, in the oil and gas industry for environmental impact monitoring, and in the healthcare sector for radiation therapy and medical imaging.

Radionuclide Identification Devices Market Challenges and Restraints:

Radionuclide Identification Devices (RID) have certain technical limitations that may limit their usefulness in some situations. These devices are limited in that their sensitivity is lower and their detection window is narrower. How well RIDs identify and detect particular radiation types can depend on the kind and quantity of radioactive material present. Temperature, humidity, and background radiation are examples of environmental variables that can have an impact on RID accuracy and dependability. Furthermore, to maintain accuracy, RIDs need to be calibrated and maintained regularly, which can be expensive and time-consuming. RIDs can be used in the field, but some are big and heavy, making them unusable in some circumstances. Nevertheless, there are portable and handheld RIDs available.

Radionuclide Identification Devices Market Opportunities:

Radionuclide identification device sales are expected to rise as new products are introduced into various industries. One big opportunity is to create more compact, portable devices, which are becoming more and more in demand in the environmental monitoring, healthcare, and homeland security industries. When it comes to detecting radioactive materials in a variety of settings, these portable devices provide increased flexibility and accessibility. Technological developments in sensor fields, especially radar and ultrasonic, offer the potential to improve safety protocols in critical applications by increasing the accuracy and efficiency of radionuclide detection systems. Growing uses in industries such as mining, nuclear power plants, and oil and gas exploration are opening up new markets because of the demand for accurate radiation monitoring. The real-time analysis capabilities of radionuclide identification devices are improved by integrating artificial intelligence (AI) and machine learning (ML) technologies. This facilitates faster decision-making and more precise identification of radioactive materials. Adoption in automotive applications is also being driven by regulatory mandates, such as the Hot Cars Act, which ensures the implementation of safety measures to prevent incidents of children being left in cars. Taken as a whole, these prospects are influencing the market's expansion and development for radionuclide identification devices, promoting technological breakthroughs, and increasing their application in a variety of industries.




Market Size Available

2023 - 2030

Base Year


Forecast Period

2024 - 2030



Segments Covered

By Application, Type, and Region

Various Analyses Covered

Global, Regional & Country Level Analysis, Segment-Level Analysis, DROC, PESTLE Analysis, Porter’s Five Forces Analysis, Competitive Landscape, Analyst Overview on Investment Opportunities

Regional Scope

North America, Europe, APAC, Latin America, Middle East & Africa

Key Companies Profiled

Canberra Industries, Mirion Technologies, Thermo Fisher Scientific, Bertin Instruments, FLIR Systems, Ludlum Measurements, Ametek, Arrow-Tech, Radiation Detection Company, Polimaster

Global Radionuclide Identification Devices Market Segmentation: By Application

  • Homeland security

  • Healthcare

  • Environmental monitoring

  • Nuclear power plants

  • Mining

  • Oil and gas

Because more people are being diagnosed with cancer and other illnesses that need radiation therapy and medical imaging, it is expected that the market for radionuclide identification devices in the healthcare industry will expand quickly. Homeland security is another important category in this market because of concerns about nuclear terrorism and the need for trustworthy radiation detection and identification systems in public areas and critical infrastructure. Market segmentation for radionuclide identification devices helps manufacturers and distributors target their goods and services more successfully by offering insights into specific applications and industries that are driving demand.

Global Radionuclide Identification Devices Market Segmentation: By Type

  • Handheld devices

  • Portable devices

  • Benchtop devices

The market for handheld radionuclide identification devices is anticipated to grow at the fastest rate because there is a growing need across a variety of industries for devices that are portable and easy to use. The growing need for portable devices in industries such as mining, nuclear power plants, and oil and gas exploration is another reason for their anticipated popularity in the market. Manufacturers and distributors can gain a better understanding of the specific types of devices required across various industries and applications by segmenting the market based on the type of device.

Global Radionuclide Identification Devices Market Segmentation: By Region

  • North America

  • Europe

  • Asia Pacific

  • Latin America

  • Middle East and Africa

Due to the presence of numerous major producers and suppliers in the region as well as rising demand from a variety of industries, the market for radionuclide identification devices is anticipated to expand at the fastest rate in the Asia Pacific area. Due to its substantial suppliers and manufacturers of radionuclide identification devices, as well as the strong demand for these devices across various industries and applications, North America is anticipated to hold the largest share of the global market.

COVID-19 Impact on the Global Radionuclide Identification Devices Market:

The COVID-19 pandemic has had varying effects on the global market for radionuclide identification devices (RIDs). The pandemic raised the need for RIDs in imaging and radiation therapy applications in the medical field. However, the pandemic caused supply chain disruptions and decreased demand for RIDs in fields like national security and environmental monitoring. The requirement for radiation therapy and imaging for COVID-19 patients has increased the need for RIDs in the healthcare industry. The downturn in other industries was somewhat offset by the rising demand in hospitals and other healthcare facilities. Lockdowns and travel restrictions caused a delay in the delivery of radionuclide identification devices, and during this time, demand fell across a wide range of industries and applications.

Latest Trend/Development:

There are several significant trends and advancements in the radionuclide identification devices (RID) market. The development of sensor technologies is one significant trend that has improved the ability to detect and accurately identify various types of radioactive materials, even in difficult environments. The emphasis on portability and usability, which has led manufacturers to produce smaller, handheld devices that are simpler to use and carry, is another significant development. This has allowed for a wider range of applications in emergency response and field settings. Furthermore, RIDs are incorporating artificial intelligence (AI) to improve data analysis, enabling machine learning algorithms to produce faster and more accurate results. Applications-wise, RIDs are being utilized more frequently in nuclear medicine to ensure accurate treatment delivery and patient safety during radiation therapy and medical imaging. Additionally, they are assuming new responsibilities in the monitoring of the environment, especially in mining and the oil and gas sectors, to mitigate radioactive contamination. All things considered, RID technology innovation is being propelled by adherence to strict regulatory standards, which guarantee the dependability and efficiency of these devices across a range of industries.

Key Players:

  1. Canberra Industries

  2. Mirion Technologies

  3. Thermo Fisher Scientific

  4. Bertin Instruments

  5. FLIR Systems

  6. Ludlum Measurements

  7. Ametek

  8. Arrow-Tech

  9. Radiation Detection Company

  10. Polimaster

Market News:

  • Teledyne FLIR Defense unveiled the MUV R430, a new drone sensor payload, in November 2022. This payload can locate radioactive hazards and radiation sources at a distance in a variety of scenarios. The declaration was given at the CBRNE Convergence gathering.

1.1    Market Segmentation
1.2    Scope, Assumptions & Limitations
1.3    Research Methodology
1.4    Primary Sources
1.5    Secondary Sources
2.1    Market Size & Forecast – (2024 – 2030) ($M/$Bn)
2.2    Key Trends & Insights
                         2.2.1    Demand Side
                         2.2.2    Supply Side
2.3    Attractive Investment Propositions
2.4    COVID-19 Impact Analysis 
3.1    Market Share Analysis & Company Benchmarking
3.2    Competitive Strategy & Development Scenario
3.3    Competitive Pricing Analysis
3.4    Supplier-Distributor Analysis
4.1    Regulatory Scenario
4.2    Case Studies – Key Start-ups
4.3    Customer Analysis
4.4    PESTLE Analysis
4.5    Porters Five Force Model
                         4.5.1    Bargaining Power of Suppliers
                         4.5.2    Bargaining Powers of Customers
                         4.5.3    Threat of New Entrants
                         4.5.4    Rivalry among Existing Players
                         4.5.5    Threat of Substitutes 
5.1    Value Chain Analysis – Key Stakeholders Impact Analysis
5.2    Market Drivers
5.3    Market Restraints/Challenges
5.4    Market Opportunities 
6.1    Introduction/Key Findings   
6.2    Homeland security
6.3    Healthcare
6.4    Environmental monitoring
6.5    Nuclear power plants
6.6    Mining
6.7    Oil and gas
6.8    Y-O-Y Growth trend Analysis By Application
6.9    Absolute $ Opportunity Analysis By Application, 2024-2030 
7.1    Introduction/Key Findings   
7.2    Handheld devices
7.3    Portable devices
7.4    Benchtop devices
7.5    Y-O-Y Growth  trend Analysis  By Type
7.6    Absolute $ Opportunity Analysis  By Type, 2024-2030  
Chapter 8. RADIONUCLIDE IDENTIFICATION DEVICES MARKET , By Geography – Market Size, Forecast, Trends & Insights
8.1    North America
                         8.1.1    By Country
                         8.1.2    By Application
                         8.1.3     By Type
                         8.1.4    Countries & Segments - Market Attractiveness Analysis
8.2    Europe
                         8.2.1    By Country
                                            Rest of Europe
                         8.2.2    By Application
                         8.2.3     By Type
                         8.2.4    Countries & Segments - Market Attractiveness Analysis
8.3    Asia Pacific
                         8.3.1    By Country
                                            South Korea
                                            Australia & New Zealand
                                            Rest of Asia-Pacific
                         8.3.2    By Application
                         8.3.3     By Type
                         8.3.4    Countries & Segments - Market Attractiveness Analysis
8.4    South America
                         8.4.1    By Country
                                            Rest of South America
                         8.4.2    By Application
                         8.4.3     By Type
                         8.4.4    Countries & Segments - Market Attractiveness Analysis
8.5    Middle East & Africa
                         8.5.1    By Country
                                            United Arab Emirates (UAE)
                                            Saudi Arabia
                                            South Africa
                                            Rest of MEA
                         8.5.2    By Application
                         8.5.3     By Type
                         8.5.4    Countries & Segments - Market Attractiveness Analysis 
Chapter 9. RADIONUCLIDE IDENTIFICATION DEVICES MARKET – Company Profiles – (Overview, Product Portfolio, Financials, Strategies & Developments)
9.1    Canberra Industries
9.2    Mirion Technologies
9.3    Thermo Fisher Scientific
9.4    Bertin Instruments
9.5    FLIR Systems
9.6    Ludlum Measurements
9.7    Ametek
9.8    Arrow-Tech
9.9    Radiation Detection Company
9.10    Polimaster

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Frequently Asked Questions

The Global Radionuclide Identification Devices Market was estimated to be worth USD 175.78 million in 2023.

A radionuclide identification device (RID) is a tiny, portable gamma-ray spectrometer used to find and identify radioactive materials.

The rising nuclear terrorism and the assurance of safety and security are the key drivers of radionuclide identification devices.

It types are handheld devices, portable devices, and benchtop devices. Handheld devices are small and portable, while portable devices are larger and designed for use in the field. Benchtop devices are larger and more powerful and are typically used in laboratory settings.

The key applications of radionuclide identification devices include homeland security, healthcare, environmental monitoring, nuclear power plants, mining, and oil and gas. radionuclide identification devices are used to detect and identify radioactive materials in these applications, improving safety and security in various industries and environments.

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