CBRNE Detection Technologies Market – Global Industry Analysis And Forecast (2023-2029)


CBRNE Detection Technologies Market size is expected to grow at 4.8% throughout the forecast period, reaching nearly US$ 26.85 Billion by 2029.

The Chemical, Biological, Radiological, Nuclear, and Explosive (CBRNE) detection technologies are used to detect CBRNE materials at points of transportation and manufacturer. The CBRNE technologies recognized and monitor the threats through effective protocols, education and equipment. The CBRNE detection capability is recognized as the critical enabler for law enforNuclear threat, public health and intelligence.

CBRNE Detection Technologies MarketTo know about the Research Methodology :- Request Free Sample Report

The study includes a detailed market assessment. It does so by in-depth qualitative perspectives, historical evidence, and market size verifiable predictions. Using validated research methodologies and assumptions, the predictions featured in the study have been derived. The research report thus serves as an analysis and information for all aspects of the market, including, regional markets, technologies, by Detection and equipments and applications.

Drivers:

Increasing applications of integrated gadgets that advance usability

The growth of CBRNE detection technologies is attributed to the adoption of CBRNE detection technologies in wide variety of applications for instance in border control, building surveillance, concert security, protection of the sport arena, distribution and facial recognition of fire office utility infrastructure. Developments in CBRNE detection technologies and consumer awareness towards these technologies are expected to drive the market during the forecast period.

Restraints:

Impacts ofmarket competition onCBRNE Detection Technologies

The competitive edge for developing advance technological tool to find alternative for CBRNE detection technologies may slow down the market growth. The competitive firms are not collaborating with each other thus defense authorities and value chain are affected by these incorporating emerging technologies.

Opportunities:

Intensive investment in R & D

Intensive investment from defense sector, support from governments and R & D efforts have created many lucrative for the market. With the continuous rising efforts for introducing new technologies for novel defense system across the global have made a positive impact on the market growth.

Covid-19 Impact on the global CBRNE Detection Technologies market:

The export and import of CBRNE Detection Technologies is decline in Covid-19 pandemic. Government stringent regulations and measures is slow the market growth of CBRNE Detection Technologies. Industrial shut down and reductions in services has reduce the consumption of power.

CBRNE Detection Technologies Market Segment Analysis

The CBRNE detection equipment for training simulator is expected to grow at a CAGR of xx% during the forecast period 2023–2029 and to reach market share of $xx Mn by 2029.

By detection & equipment, thetraining simulatorsegment was dominant in 2022 and the segment is projected to grow with an xx% of market share.The rising demand for CBRNE Detection technologies from developing and developed economies for artificial intelligence machine is driving the growth.

CBRNE Detection Technologies Market Regional Insights:

Asia pacific is expected to account for the majormarket share of xx% during the forecast period.

Asia pacific accounting for xx% market share in 2022, of the global market. Increasing defense budget in countries like India, China and South Korea are driving the market growth. Threats from the terrorist organization has led to take preventive measure from these governments to protect civilians and safeguard them have made a positive impact on the CBRN market.

Middle East & Africa are forecasted to be the fastest growing segment during the forecast period 2023-2029

The Middle East & Africa are estimated to grow at a CAGR of xx%. The growth is mainly attributed to border escalations, infiltrations and rising tensions between neighboring countries. The governments are captivating to invest in CBRN detection equipment.

The objective of the report is to present a comprehensive analysis of the Global Turf Protection Chemicals Market including all the stakeholders of the industry. The past and current status of the industry with forecasted market size and trends are presented in the report with the analysis of complicated data in simple language. The report covers all the aspects of the industry with a dedicated study of key players that includes market leaders, followers, and new entrants. PORTER, SVOR, PESTEL analysis with the potential impact of micro-economic factors of the market have been presented in the report. External as well as internal factors that are supposed to affect the business positively or negatively have been analysed, which will give a clear futuristic view of the industry to the decision-makers. The report also helps in understanding Global Turf Protection Chemicals Market dynamics, structure by analyzing the market segments and project Global Turf Protection Chemicals Market Clear representation of competitive analysis of key players by price, financial position, By Detection and equipment portfolio, growth strategies, and regional presence in the Global Turf Protection Chemicals Market make the report investor’s guide.

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CBRNE Detection Technologies Market




Report Coverage
Details




Base Year:
2022
Forecast Period:
2023-2029




Historical Data:
2018 to 2022
Market Size in 2022:
US $ 19.33 Bn.




Forecast Period 2023 to 2029 CAGR:
4.8%
Market Size in 2029:
US $ 26.85 Bn.




 Segments Covered:
by Detection and equipment
Standoff and standalone systems
Radiation detectors
Reconnaissance vehicles
Training simulators
Other




by Threat
Chemical threat
Biological threat
Nuclear threat
Others






CBRNE Detection Technologies Market, by Region

North America (United States, Canada and Mexico)
Europe (UK, France, Germany, Italy, Spain, Sweden, Austria and Rest of Europe)
Asia Pacific (China, South Korea, Japan, India, Australia, Indonesia, Malaysia, Vietnam, Taiwan, Bangladesh, Pakistan and Rest of APAC)
Middle East and Africa (South Africa, GCC, Egypt, Nigeria and Rest of ME&A)
South America (Brazil, Argentina Rest of South America)

CBRNE Detection Technologies Market Key Players:

1. Thermo Fisher Scientific
2. Bruker Detection Corporation
3. Chemring Group
4. Emergent BioSolutions
5. Morphix Technologies
6. Thermo Fisher Scientific
7. The 3M Company
8. Morphix Technologies
9. Proengin
10. Drägerwerk AG & Co KGaA/Dräger
11. Others

Frequently Asked Questions:

1. Which region has the largest share in Global CBRNE Detection Technologies Market?
Ans: Asia pacific region held the highest share in 2022.

2. What is the growth rate of Global CBRNE Detection Technologies Market?
Ans: The Global CBRNE Detection Technologies Market is growing at a CAGR of 4.8% during forecasting period 2023-2029.

3. What is scope of the Global CBRNE Detection Technologies market report?
Ans: Global Market report helps with the PESTEL, PORTER, COVID-19 Impact analysis, Recommendations for Investors & Leaders, and market estimation of the forecast period.

4. Who are the key players in Global CBRNE Detection Technologies market?
Ans: The important key players in the Global CBRNE Detection Technologies Market are – Thermo Fisher Scientific, Bruker Detection Corporation, Chemring Group, Emergent BioSolutions, Morphix Technologies, Thermo Fisher Scientific, The 3M Company, Morphix Technologies, Proengin, Drägerwerk AG & Co KGaA/Dräger, and Others

5. What is the study period of this market?
Ans: The Global CBRNE Detection Technologies Market is studied from 2022 to 2029. 





Global CBRNE Detection Technologies Market

1. Preface
1.1. Report Scope and Market Segmentation
1.2. Research Highlights
1.3. Research Objectives

2. Assumptions and Research Methodology
2.1. Report Assumptions
2.2. Abbreviations
2.3. Research Methodology
2.3.1. Secondary Research
2.3.1.1. Secondary data
2.3.1.2. Secondary Sources
2.3.2. Primary Research
2.3.2.1. Data from Primary Sources
2.3.2.2. Breakdown of Primary Sources

3. Executive Summary: Global CBRNE Detection Technologies, by Market Value (US$ Mn) and Volume(Ton)

4. Market Overview
4.1. Introduction
4.2. Market Indicator
4.2.1. Drivers
4.2.2. Restraints
4.2.3. Opportunities
4.2.4. Challenges
4.3. Porter’s Analysis
4.4. Value Chain Analysis
4.5. Market Risk Analysis
4.6. SWOT Analysis
4.7. Industry Trends and Emerging Technologies

5. Supply Side and Demand Side Indicators

6. Global CBRNE Detection Technologies Analysis and Forecast
6.1. Global CBRNE Detection Technologies Size & Y-o-Y Growth Analysis
6.1.1. North America
6.1.2. Europe
6.1.3. Asia Pacific
6.1.4. Middle East & Africa
6.1.5. South America

7. Global CBRNE Detection Technologies Analysis and Forecast, by detection and equipment
7.1. Introduction and Definition
7.2. Key Findings
7.3. Global CBRNE Detection Technologies Value Share Analysis, by detection and equipment
7.4. Global CBRNE Detection Technologies Size (US$ Mn) Forecast, by detection and equipment
7.5. Global CBRNE Detection Technologies Analysis, by detection and equipment
7.6. Global CBRNE Detection Technologies Attractiveness Analysis, by detection and equipment

8. Global CBRNE Detection Technologies Analysis and Forecast, By Threat
8.1. Introduction and Definition
8.2. Key Findings
8.3. Global CBRNE Detection Technologies Value Share Analysis, By Threat
8.4. Global CBRNE Detection Technologies Size (US$ Mn) Forecast, By Threat
8.5. Global CBRNE Detection Technologies Analysis, By Threat
8.6. Global CBRNE Detection Technologies Attractiveness Analysis, By Threat

9. Global CBRNE Detection Technologies Analysis, by Region
9.1. Global CBRNE Detection Technologies Value Share Analysis, by Region
9.2. Global CBRNE Detection Technologies Size (US$ Mn) Forecast, by Region
9.3. Global CBRNE Detection Technologies Attractiveness Analysis, by Region

10. North America CBRNE Detection Technologies Analysis
10.1. Key Findings
10.2. North America CBRNE Detection Technologies Overview
10.3. North America CBRNE Detection Technologies Value Share Analysis, by detection and equipment
10.4. North America CBRNE Detection Technologies Forecast, by detection and equipment
10.4.1. Standoff and standalone systems
10.4.2. Radiation detectors
10.4.3. Reconnaissance vehicles
10.4.4. Training simulators and Other
10.5. North America CBRNE Detection Technologies Value Share Analysis, By Threat
10.6. North America CBRNE Detection Technologies Forecast, By Threat
10.6.1. Chemical threat
10.6.2. Biological threat
10.6.3. Nuclear threat
10.6.4. Others

10.7. North America CBRNE Detection Technologies Value Share Analysis, by Country
10.8. North America CBRNE Detection Technologies Forecast, by Country
10.8.1. U.S.
10.8.2. Canada
10.9. North America CBRNE Detection Technologies Analysis, by Country
10.10. U.S. CBRNE Detection Technologies Forecast, by detection and equipment
10.10.1. Standoff and standalone systems
10.10.2. Radiation detectors
10.10.3. Reconnaissance vehicles
10.10.4. Training simulators
10.10.5. Other

10.11. U.S. CBRNE Detection Technologies Forecast, By Threat
10.11.1. Chemical threat
10.11.2. Biological threat
10.11.3. Nuclear threat
10.11.4. Others
10.12. Canada CBRNE Detection Technologies Forecast, by detection and equipment
10.12.1. Standoff and standalone systems
10.12.2. Radiation detectors
10.12.3. Reconnaissance vehicles
10.12.4. Training simulators
10.12.5. Other

10.13. Canada CBRNE Detection Technologies Forecast, By Threat
10.13.1. Chemical threat
10.13.2. Biological threat
10.13.3. Nuclear threat
10.13.4. Others

10.14. North America CBRNE Detection Technologies Attractiveness Analysis
10.14.1. By detection and equipment
10.14.2. By Threat
10.15. PEST Analysis
10.16. Key Trends
10.17. Key Development

11. Europe CBRNE Detection Technologies Analysis
11.1. Key Findings
11.2. Europe CBRNE Detection Technologies Overview
11.3. Europe CBRNE Detection Technologies Value Share Analysis, by detection and equipment
11.4. Europe CBRNE Detection Technologies Forecast, by detection and equipment
11.4.1. Standoff and standalone systems
11.4.2. Radiation detectors
11.4.3. Reconnaissance vehicles
11.4.4. Training simulators
11.4.5. Other

11.5. Europe CBRNE Detection Technologies Value Share Analysis, By Threat
11.6. Europe CBRNE Detection Technologies Forecast, By Threat
11.6.1. Chemical threat
11.6.2. Biological threat
11.6.3. Nuclear threat
11.6.4. Others
11.7. Europe CBRNE Detection Technologies Value Share Analysis, by Country
11.8. Europe CBRNE Detection Technologies Forecast, by Country
11.8.1. Germany
11.8.2. U.K.
11.8.3. France
11.8.4. Italy
11.8.5. Spain
11.8.6. Norway
11.8.7. Rest of Europe
11.9. Europe CBRNE Detection Technologies Analysis, by Country
11.10. Germany CBRNE Detection Technologies Forecast, by detection and equipment
11.10.1. Standoff and standalone systems
11.10.2. Radiation detectors
11.10.3. Reconnaissance vehicles
11.10.4. Training simulators
11.10.5. Other

11.11. Germany CBRNE Detection Technologies Forecast, By Threat
11.11.1. Chemical threat
11.11.2. Biological threat
11.11.3. Nuclear threat
11.11.4. Others
11.12. U.K. CBRNE Detection Technologies Forecast, by detection and equipment
11.12.1. Standoff and standalone systems
11.12.2. Radiation detectors
11.12.3. Reconnaissance vehicles
11.12.4. Training simulators
11.12.5. Other

11.13. U.K. CBRNE Detection Technologies Forecast, By Threat
11.13.1. Chemical threat
11.13.2. Biological threat
11.13.3. Nuclear threat
11.13.4. Others

11.14. France CBRNE Detection Technologies Forecast, by detection and equipment
11.14.1. Standoff and standalone systems
11.14.2. Radiation detectors
11.14.3. Reconnaissance vehicles
11.14.4. Training simulators
11.14.5. Other

11.15. France CBRNE Detection Technologies Forecast, By Threat
11.15.1. Chemical threat
11.15.2. Biological threat
11.15.3. Nuclear threat
11.15.4. Others

11.16. Italy CBRNE Detection Technologies Forecast, by detection and equipment
11.16.1. Standoff and standalone systems
11.16.2. Radiation detectors
11.16.3. Reconnaissance vehicles
11.16.4. Training simulators
11.16.5. Other

11.17. Italy CBRNE Detection Technologies Forecast, By Threat
11.17.1. Chemical threat
11.17.2. Biological threat
11.17.3. Nuclear threat
11.17.4. Others
11.18. Spain CBRNE Detection Technologies Forecast, by detection and equipment
11.18.1. Standoff and standalone systems
11.18.2. Radiation detectors
11.18.3. Reconnaissance vehicles
11.18.4. Training simulators
11.18.5. Other

11.19. Spain CBRNE Detection Technologies Forecast, By Threat
11.19.1. Chemical threat
11.19.2. Biological threat
11.19.3. Nuclear threat
11.19.4. Others

11.20. Norway CBRNE Detection Technologies Forecast, by detection and equipment
11.20.1. Standoff and standalone systems
11.20.2. Radiation detectors
11.20.3. Reconnaissance vehicles
11.20.4. Training simulators
11.20.5. Other

11.21. Norway CBRNE Detection Technologies Forecast, By Threat

11.21.1. Chemical threat
11.21.2. Biological threat
11.21.3. Nuclear threat
11.21.4. Others

11.22. Rest of Europe CBRNE Detection Technologies Forecast, by detection and equipment
11.22.1. Standoff and standalone systems
11.22.2. Radiation detectors
11.22.3. Reconnaissance vehicles
11.22.4. Training simulators
11.22.5. Other

11.23. Rest of Europe CBRNE Detection Technologies Forecast, By Threat
11.23.1. Chemical threat
11.23.2. Biological threat
11.23.3. Nuclear threat
11.23.4. Others
11.24. Europe CBRNE Detection Technologies Attractiveness Analysis
11.24.1. By detection and equipment
11.24.2. By Threat
11.25. PEST Analysis
11.26. Key Trends
11.27. Key Development

12. Asia Pacific CBRNE Detection Technologies Analysis
12.1. Key Findings
12.2. Asia Pacific CBRNE Detection Technologies Overview
12.3. Asia Pacific CBRNE Detection Technologies Value Share Analysis, by detection and equipment
12.4. Asia Pacific CBRNE Detection Technologies Forecast, by detection and equipment
12.4.1. Standoff and standalone systems
12.4.2. Radiation detectors
12.4.3. Reconnaissance vehicles
12.4.4. Training simulators
12.4.5. Other

12.5. Asia Pacific CBRNE Detection Technologies Value Share Analysis, By Threat
12.6. Asia Pacific CBRNE Detection Technologies Forecast, By Threat
12.6.1. Chemical threat
12.6.2. Biological threat
12.6.3. Nuclear threat
12.6.4. Others
12.7. Asia Pacific CBRNE Detection Technologies Value Share Analysis, by Country
12.8. Asia Pacific CBRNE Detection Technologies Forecast, by Country
12.8.1. China
12.8.2. India
12.8.3. Japan
12.8.4. South Korea
12.8.5. Australia
12.8.6. Malaysia
12.8.7. Indonesia
12.8.8. Vietnam
12.8.9. Rest of Asia Pacific
12.9. Asia Pacific CBRNE Detection Technologies Analysis, by Country
12.10. China CBRNE Detection Technologies Forecast, by detection and equipment
12.10.1. Standoff and standalone systems
12.10.2. Radiation detectors
12.10.3. Reconnaissance vehicles
12.10.4. Training simulators
12.10.5. Other

12.11. China CBRNE Detection Technologies Forecast, By Threat
12.11.1. Chemical threat
12.11.2. Biological threat
12.11.3. Nuclear threat
12.11.4. Others

12.12. India CBRNE Detection Technologies Forecast, by detection and equipment
12.12.1. Standoff and standalone systems
12.12.2. Radiation detectors
12.12.3. Reconnaissance vehicles
12.12.4. Training simulators
12.12.5. Other

12.13. India CBRNE Detection Technologies Forecast, By Threat
12.13.1. Chemical threat
12.13.2. Biological threat
12.13.3. Nuclear threat
12.13.4. Others

12.14. Japan CBRNE Detection Technologies Forecast, by detection and equipment
12.14.1. Standoff and standalone systems
12.14.2. Radiation detectors
12.14.3. Reconnaissance vehicles
12.14.4. Training simulators
12.14.5. Other

12.15. Japan CBRNE Detection Technologies Forecast, By Threat
12.15.1. Chemical threat
12.15.2. Biological threat
12.15.3. Nuclear threat
12.15.4. Others

12.16. Australia CBRNE Detection Technologies Forecast, by detection and equipment
12.16.1. Standoff and standalone systems
12.16.2. Radiation detectors
12.16.3. Reconnaissance vehicles
12.16.4. Training simulators
12.16.5. Other

12.17. Australia CBRNE Detection Technologies Forecast, By Threat
12.17.1. Chemical threat
12.17.2. Biological threat
12.17.3. Nuclear threat
12.17.4. Others

12.18. Malaysia CBRNE Detection Technologies Forecast, by detection and equipment
12.18.1. Standoff and standalone systems
12.18.2. Radiation detectors
12.18.3. Reconnaissance vehicles
12.18.4. Training simulators
12.18.5. Other

12.19. MalaysiaCBRNE Detection Technologies Forecast, By Threat
12.19.1. Chemical threat
12.19.2. Biological threat
12.19.3. Nuclear threat
12.19.4. Others

12.20. South Korea CBRNE Detection Technologies Forecast, by detection and equipment
12.20.1. Standoff and standalone systems
12.20.2. Radiation detectors
12.20.3. Reconnaissance vehicles
12.20.4. Training simulators
12.20.5. Other

12.21. South Korea CBRNE Detection Technologies Forecast, By Threat
12.21.1. Chemical threat
12.21.2. Biological threat
12.21.3. Nuclear threat
12.21.4. Others

12.22. Thailand CBRNE Detection Technologies Forecast, by detection and equipment
12.22.1. Standoff and standalone systems
12.22.2. Radiation detectors
12.22.3. Reconnaissance vehicles
12.22.4. Training simulators
12.22.5. Other

12.23. Thailand CBRNE Detection Technologies Forecast, By Threat
12.23.1. Chemical threat
12.23.2. Biological threat
12.23.3. Nuclear threat
12.23.4. Others

12.24. Vietnam CBRNE Detection Technologies Forecast, by detection and equipment
12.24.1. Standoff and standalone systems
12.24.2. Radiation detectors
12.24.3. Reconnaissance vehicles
12.24.4. Training simulators
12.24.5. Other

12.25. VietnamCBRNE Detection Technologies Forecast, By Threat
12.25.1. Chemical threat
12.25.2. Biological threat
12.25.3. Nuclear threat
12.25.4. Others

12.26. Rest of Asia Pacific CBRNE Detection Technologies Forecast, by detection and equipment
12.26.1. Standoff and standalone systems
12.26.2. Radiation detectors
12.26.3. Reconnaissance vehicles
12.26.4. Training simulators
12.26.5. Other

12.27. Rest of Asia Pacific CBRNE Detection Technologies Forecast, By Threat
12.27.1. Chemical threat
12.27.2. Biological threat
12.27.3. Nuclear threat
12.27.4. Others

12.28. Asia Pacific CBRNE Detection Technologies Attractiveness Analysis
12.28.1. By detection and equipment
12.28.2. By Threat
12.29. PEST Analysis
12.30. Key Trends
12.31. Key Development

13. Middle East & Africa CBRNE Detection Technologies Analysis
13.1. Key Findings
13.2. Middle East & Africa CBRNE Detection Technologies Overview
13.3. Middle East & Africa CBRNE Detection Technologies Value Share Analysis, by detection and equipment
13.4. Middle East & Africa CBRNE Detection Technologies Forecast, by detection and equipment
13.4.1. Standoff and standalone systems
13.4.2. Radiation detectors
13.4.3. Reconnaissance vehicles
13.4.4. Training simulators
13.4.5. Other

13.5. Middle East & Africa CBRNE Detection Technologies Value Share Analysis, By Threat
13.6. Middle East & Africa CBRNE Detection Technologies Forecast, By Threat
13.6.1. Chemical threat
13.6.2. Biological threat
13.6.3. Nuclear threat
13.6.4. Others

13.7. Middle East & Africa CBRNE Detection Technologies Value Share Analysis, by Country
13.8. Middle East & Africa CBRNE Detection Technologies Forecast, by Country
13.8.1. GCC
13.8.2. South Africa
13.8.3. Nigeria
13.8.4. Egypt
13.8.5. Rest of Middle East & Africa
13.9. Middle East & Africa CBRNE Detection Technologies Analysis, by Country
13.10. GCC CBRNE Detection Technologies Forecast, by detection and equipment
13.10.1. Standoff and standalone systems
13.10.2. Radiation detectors
13.10.3. Reconnaissance vehicles
13.10.4. Training simulators
13.10.5. Other

13.11. GCC CBRNE Detection Technologies Forecast, By Threat
13.11.1. Chemical threat
13.11.2. Biological threat
13.11.3. Nuclear threat
13.11.4. Others

13.12. South Africa CBRNE Detection Technologies Forecast, by detection and equipment
13.12.1. Standoff and standalone systems
13.12.2. Radiation detectors
13.12.3. Reconnaissance vehicles
13.12.4. Training simulators
13.12.5. Other

13.13. South Africa CBRNE Detection Technologies Forecast, By Threat
13.13.1. Chemical threat
13.13.2. Biological threat
13.13.3. Nuclear threat
13.13.4. Others

13.14. Nigeria CBRNE Detection Technologies Forecast, by detection and equipment
13.14.1. Standoff and standalone systems
13.14.2. Radiation detectors
13.14.3. Reconnaissance vehicles
13.14.4. Training simulators
13.14.5. Other

13.15. Nigeria CBRNE Detection Technologies Forecast, By Threat
13.15.1. Chemical threat
13.15.2. Biological threat
13.15.3. Nuclear threat
13.15.4. Others

13.16. Egypt CBRNE Detection Technologies Forecast, by detection and equipment
13.16.1. Standoff and standalone systems
13.16.2. Radiation detectors
13.16.3. Reconnaissance vehicles
13.16.4. Training simulators
13.16.5. Other

13.17. Egypt CBRNE Detection Technologies Forecast, By Threat
13.17.1. Chemical threat
13.17.2. Biological threat
13.17.3. Nuclear threat
13.17.4. Others

13.18. Rest of Middle East & Africa CBRNE Detection Technologies Forecast, by detection and equipment
13.18.1. Standoff and standalone systems
13.18.2. Radiation detectors
13.18.3. Reconnaissance vehicles
13.18.4. Training simulators
13.18.5. Other

13.19. Rest of Middle East & Africa CBRNE Detection Technologies Forecast, By Threat
13.19.1. Chemical threat
13.19.2. Biological threat
13.19.3. Nuclear threat
13.19.4. Others

13.20. Middle East & Africa CBRNE Detection Technologies Attractiveness Analysis
13.20.1. By detection and equipment
13.20.2. By Threat

13.21. PEST Analysis
13.22. Key Trends
13.23. Key Development

14. South America CBRNE Detection Technologies Analysis
14.1. Key Findings
14.2. South America CBRNE Detection Technologies Overview
14.3. South America CBRNE Detection Technologies Value Share Analysis, by detection and equipment
14.4. South America CBRNE Detection Technologies Forecast, by detection and equipment
14.4.1. Standoff and standalone systems
14.4.2. Radiation detectors
14.4.3. Reconnaissance vehicles
14.4.4. Training simulators
14.4.5. Other

14.5. South America CBRNE Detection Technologies Value Share Analysis, By Threat
14.6. South America CBRNE Detection Technologies Forecast, By Threat
14.6.1. Chemical threat
14.6.2. Biological threat
14.6.3. Nuclear threat
14.6.4. Others

14.7. South America CBRNE Detection Technologies Value Share Analysis, by Country
14.8. South America CBRNE Detection Technologies Forecast, by Country
14.8.1. Brazil
14.8.2. Mexico
14.8.3. Argentina
14.8.4. Rest of South America
14.9. South America CBRNE Detection Technologies Analysis, by Country
14.10. Brazil CBRNE Detection Technologies Forecast, by detection and equipment
14.10.1. Standoff and standalone systems
14.10.2. Radiation detectors
14.10.3. Reconnaissance vehicles
14.10.4. Training simulators
14.10.5. Other

14.11. Brazil CBRNE Detection Technologies Forecast, By Threat
14.11.1. Chemical threat
14.11.2. Biological threat
14.11.3. Nuclear threat
14.11.4. Others

14.12. Mexico CBRNE Detection Technologies Forecast, by detection and equipment
14.12.1. Standoff and standalone systems
14.12.2. Radiation detectors
14.12.3. Reconnaissance vehicles
14.12.4. Training simulators
14.12.5. Other

14.13. Mexico CBRNE Detection Technologies Forecast, By Threat
14.13.1. Chemical threat
14.13.2. Biological threat
14.13.3. Nuclear threat
14.13.4. Others

14.14. Argentina CBRNE Detection Technologies Forecast, by detection and equipment
14.14.1. Standoff and standalone systems
14.14.2. Radiation detectors
14.14.3. Reconnaissance vehicles
14.14.4. Training simulators
14.14.5. Other

14.15. Argentina CBRNE Detection Technologies Forecast, By Threat
14.15.1. Chemical threat
14.15.2. Biological threat
14.15.3. Nuclear threat
14.15.4. Others

14.16. Rest of South America CBRNE Detection Technologies Forecast, by detection and equipment
14.16.1. Standoff and standalone systems
14.16.2. Radiation detectors
14.16.3. Reconnaissance vehicles
14.16.4. Training simulators
14.16.5. Other

14.17. Rest of South America CBRNE Detection Technologies Forecast, By Threat
14.17.1. Chemical threat
14.17.2. Biological threat
14.17.3. Nuclear threat
14.17.4. Others

14.18. South America CBRNE Detection Technologies Attractiveness Analysis
14.18.1. By detection and equipment
14.18.2. By Threat
14.19. PEST Analysis
14.20. Key Trends
14.21. Key Development

15. Company Profiles
15.1. Market Share Analysis, by Company
15.2. Competition Matrix
15.2.1. Competitive Benchmarking of key players by price, presence, market share, Applications and R&D investment
15.2.2. New Product Launches and Product Enhancement
15.2.3. Market Consolidation
15.2.3.1. M&A by Regions, Investment and Applications
15.2.3.2. M&A Key Players, Forward Integration and Backward
Integration
15.3. Company Profiles: Key Players
15.3.1. Thermo Fisher Scientific
15.3.1.1. Company Overview
15.3.1.2. Financial Overview
15.3.1.3. Product Portfolio
15.3.1.4. Business Strategy
15.3.1.5. Recent Developments
15.3.1.6. Company Footprint
15.3.2. Bruker Detection Corporation
15.3.3. Chemring Group
15.3.4. Emergent BioSolutions
15.3.5. Morphix Technologies
15.3.6. Thermo Fisher Scientific
15.3.7. The 3M Company
15.3.8. Morphix Technologies
15.3.9. Proengin
15.3.10. Drägerwerk AG & Co KGaA/Dräger
15.3.11. Others
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