Radiation Detection Materials Markets – 2011
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Report Summary
The radiation detection industry is about to see accelerated growth reasons ranging from ongoing homeland security concerns to greater concerns about safety in the nuclear power industry. Radiation equipment for both diagnostics and therapeutic applications will also proliferate as populations continue to age. Such trends will create new opportunities for the firms that make radiation detection materials of various kinds. These opportunities will present themselves not just in terms of increases in the volume of materials required, but also in terms of the type of materials. The radiation detection market is looking for materials that can provide more accurate and useful readings and also for those that can lower costs.
Traditionally, radiation detection materials have been classified into two different groups; scintillation detector materials and semiconductor-based detectors. Sodium iodide has been the industry standard for scintillation detectors, but is very fragile and moisture sensitive. With the heightened need for radiation detection, NanoMarkets believes that there are now growing opportunities for new materials such as Bismuth Germanium Oxide (BGO), Lutetium Oxysilicate (LSO) and Strontium Iodide. All of these newer materials are showing potential to provide higher resolution, lower cost and more physically robust solutions than the current Sodium Iodide detectors.
As far as semiconductor radiation detectors go, current materials such as Si and Ge detectors have excellent sensitivity and resolution, but have the drawback of needing to be cooled to liquid nitrogen temperatures for optimal performance. While such cooling is routinely done for medical and scientific applications, it is impractical for pervasive homeland security and mobile applications. As a result, NanoMarkets sees new business potential from new alloys that have the potential for a similar resolution to Si and Ge but with good performance at room temperature and again at lower cost.
This new report – which we believe to be the first of its kind – provides a detailed analysis of the opportunities for firms in, or about to enter, the radiation detection material sector. It provides a deep understanding of the commercial potential for the new materials and discussion of the strategies that are being deployed by firms active in this sector. It also includes a granular eight-year forecast of radiation detection materials broken out by material types and market application.
Table Of Contents
Executive Summary
E.1 Current status of radiation detection materials: Industry and Markets
E.1.1 Scintillation radiation detection materials and applications
E.1.2 Semiconducting radiation detection materials and applications
E.2 Radiation detection materials opportunity profile
E.2.1 Opportunities for low-cost radiation detection materials
E.2.2 Opportunities for high-performance radiation detection materials
E.2.3 Longer-term opportunities for radiation detection materials
E.3 Key firms to watch
E.4 Summary of eight-year forecasts of radiation detection materials
E.1 Current status of radiation detection materials: Industry and Markets
E.1.1 Scintillation radiation detection materials and applications
E.1.2 Semiconducting radiation detection materials and applications
E.2 Radiation detection materials opportunity profile
E.2.1 Opportunities for low-cost radiation detection materials
E.2.2 Opportunities for high-performance radiation detection materials
E.2.3 Longer-term opportunities for radiation detection materials
E.3 Key firms to watch
E.4 Summary of eight-year forecasts of radiation detection materials
Chapter One Introduction
1.1 Background to this report.
1.2 Objective and scope of this report
1.3 Methodology of this report
1.4 Plan of this report
1.1 Background to this report.
1.2 Objective and scope of this report
1.3 Methodology of this report
1.4 Plan of this report
Chapter Two: Current and Future Factors Shaping the Radiation Detection Materials Market
2.1 Application trends impacting demand for novel radiation detection materials
2.1.1 Medical
2.2.2 Homeland security
2.2.3 Military
2.2.4 Nuclear power
2.2.5 Geophysical
2.2.6 Other
2.2 Analysis of industry structure from the materials perspective
2.2.1 Current and future materials requirement for device makers
2.2.2 Market developments and trends at the crystal growers
2.2.3 Opportunities for suppliers of raw chemicals in the radiation detection materials space
2.3 Analysis of key R&D trends in radiation detection materials
Chapter Three: Radiation Detection: Standard and Emerging Materials
3.1 The Future of sodium iodide in radiation detection
3.2 Market opportunities for newer scintillation radiation detection materials
3.2.1 Lanthanum bromide-based materials
3.2.2 Cesium iodide-based materials
3.2.3 Strontium iodide-based materials
3.2.4 Other simple salt scintillation materials
3.2.5 Oxide-based scintillation materials
3.2.6 BGO (Bi3Ge4O12)-based materials
3.2.7 Lead Tungstate (PbW04)-based materials
3.2.8 Zinc oxide-based materials
3.2.9 Other oxide-based materials
3.2.10 Plastic/organic polymer-based scintillation materials
3.2.11 Silicate-based scintillation materials
3.2.12 Yttrium-based scintillation materials
3.3 Market opportunities for semiconductor radiation detector materials
3.3.1 Si- and Ge-based materials
3.3.2 Cadmium selenide, cadmium telluride and cadmium zinc telluride-based materials
3.3.3 Gallium arsenide-based materials
3.3.4 Indium phosphide-based materials
3.3.5 Aluminum antimonide, thallium bromide and other high temperature semiconductor radiation sensitive material
3.3.6 Other semiconducting radiation sensitive materials
2.1 Application trends impacting demand for novel radiation detection materials
2.1.1 Medical
2.2.2 Homeland security
2.2.3 Military
2.2.4 Nuclear power
2.2.5 Geophysical
2.2.6 Other
2.2 Analysis of industry structure from the materials perspective
2.2.1 Current and future materials requirement for device makers
2.2.2 Market developments and trends at the crystal growers
2.2.3 Opportunities for suppliers of raw chemicals in the radiation detection materials space
2.3 Analysis of key R&D trends in radiation detection materials
Chapter Three: Radiation Detection: Standard and Emerging Materials
3.1 The Future of sodium iodide in radiation detection
3.2 Market opportunities for newer scintillation radiation detection materials
3.2.1 Lanthanum bromide-based materials
3.2.2 Cesium iodide-based materials
3.2.3 Strontium iodide-based materials
3.2.4 Other simple salt scintillation materials
3.2.5 Oxide-based scintillation materials
3.2.6 BGO (Bi3Ge4O12)-based materials
3.2.7 Lead Tungstate (PbW04)-based materials
3.2.8 Zinc oxide-based materials
3.2.9 Other oxide-based materials
3.2.10 Plastic/organic polymer-based scintillation materials
3.2.11 Silicate-based scintillation materials
3.2.12 Yttrium-based scintillation materials
3.3 Market opportunities for semiconductor radiation detector materials
3.3.1 Si- and Ge-based materials
3.3.2 Cadmium selenide, cadmium telluride and cadmium zinc telluride-based materials
3.3.3 Gallium arsenide-based materials
3.3.4 Indium phosphide-based materials
3.3.5 Aluminum antimonide, thallium bromide and other high temperature semiconductor radiation sensitive material
3.3.6 Other semiconducting radiation sensitive materials
Chapter Four: Eight-Year Forecasts for Radiation Detector Materials
4.1 Forecasting methodology
4.1.1 Data sources
4.1.2 Roadmap for radiation detector materials growth
4.2 Eight-year forecast of radiation detector materials
4.2.1 Forecast by radiation detection application
4.2.2 Forecast by geography
4.1 Forecasting methodology
4.1.1 Data sources
4.1.2 Roadmap for radiation detector materials growth
4.2 Eight-year forecast of radiation detector materials
4.2.1 Forecast by radiation detection application
4.2.2 Forecast by geography
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