Industry: Electronics & Semiconductor
Published Date: 2024-08-25
Pages: 102 Pages
Report ld: 3298112
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Vanadium Oxide Infrared Detector Chips Market Size(US$)

CAGR 2024-2030
3.1%
Market Size,2030
USD 1,921
Million
Market Snapshot
Source: Secondary research, interviews with experts, and QYResearch analysis
Since the 1930s, cryogenic detectors have dominated the development of infrared detectors. However, the requirement for low-temperature cooling in cryogenic detectors not only makes them expensive but also increases the size of the system and makes them inconvenient to use. Non-cryogenic infrared focal plane arrays (FPAs) do not require a cooling mechanism and can operate at room temperature, offering advantages such as compact size, light weight, low power consumption, long lifespan, low cost, and quick start-up. Although they are less sensitive than cryogenic infrared FPAs, the performance of non-cryogenic FPAs is sufficient to meet the technical requirements of some military equipment and the vast majority of civilian technology fields. Currently, the production volume of non-cryogenic infrared detectors far exceeds that of cryogenic detectors, mainly due to the high demand in the civilian market, as well as their ability to meet some military market needs. Non-cryogenic infrared detectors can be categorized into vanadium oxide infrared detectors and amorphous silicon infrared detectors based on different MEMS sensor materials. Vanadium oxide infrared detectors are the most widely used in the non-cryogenic domain. The infrared semiconductor material used is vanadium oxide, which has a high temperature coefficient of resistance, ranging from 2% to 3%/K. Due to the significant change in resistance with temperature, these detectors have a high sensitivity. Most companies produce everything from infrared detector chips, modules, to end products in a complete industrial chain. Furthermore, a significant portion of the infrared detector chips produced by these companies is used internally, so the vanadium oxide infrared detector chips mentioned in this paper include both products used in-house and those sold externally.
The global Vanadium Oxide Infrared Detector Chips market was valued at US$ 1620 million in 2023 and is anticipated to reach US$ 1921 million by 2030, witnessing a CAGR of 3.1% during the forecast period 2024-2030.
North American market for Vanadium Oxide Infrared Detector Chips is estimated to increase from $ million in 2023 to reach $ million by 2030, at a CAGR of % during the forecast period of 2024 through 2030.
Asia-Pacific market for Vanadium Oxide Infrared Detector Chips is estimated to increase from $ million in 2023 to reach $ million by 2030, at a CAGR of % during the forecast period of 2024 through 2030.
The major global manufacturers of Vanadium Oxide Infrared Detector Chips include Teledyne FLIR, Raytron Technology, HIKMICRO, Wuhan Guide Infrared, BAE Systems, Leonardo DRS, Semi Conductor Devices (SCD), NEC, L3Harris Technologies, Inc., Zhejiang Dali Technology, etc. In 2023, the world's top three vendors accounted for approximately % of the revenue.
MARKET SEGMENTATION
REPORT SCOPE
This report aims to provide a comprehensive presentation of the global market for Vanadium Oxide Infrared Detector Chips, with both quantitative and qualitative analysis, to help readers develop business/growth strategies, assess the market competitive situation, analyze their position in the current marketplace, and make informed business decisions regarding Vanadium Oxide Infrared Detector Chips.
The Vanadium Oxide Infrared Detector Chips market size, estimations, and forecasts are provided in terms of output/shipments (K Units) and revenue ($ millions), considering 2023 as the base year, with history and forecast data for the period from 2019 to 2030. This report segments the global Vanadium Oxide Infrared Detector Chips market comprehensively. Regional market sizes, concerning products by Type, by Application, and by players, are also provided.
For a more in-depth understanding of the market, the report provides profiles of the competitive landscape, key competitors, and their respective market ranks. The report also discusses technological trends and new product developments.
The report will help the Vanadium Oxide Infrared Detector Chips manufacturers, new entrants, and industry chain related companies in this market with information on the revenues, production, and average price for the overall market and the sub-segments across the different segments, by company, by Type, by Application, and by regions.
CHAPTER OUTLINE
Chapter 1: Introduces the report scope of the report, executive summary of different market segments (by region, by Type, by Application, etc), including the market size of each market segment, future development potential, and so on. It offers a high-level view of the current state of the market and its likely evolution in the short to mid-term, and long term.
Chapter 2: Detailed analysis of Vanadium Oxide Infrared Detector Chips manufacturers competitive landscape, price, production and value market share, latest development plan, merger, and acquisition information, etc.
Chapter 3: Production/output, value of Vanadium Oxide Infrared Detector Chips by region/country. It provides a quantitative analysis of the market size and development potential of each region in the next six years.
Chapter 4: Consumption of Vanadium Oxide Infrared Detector Chips in regional level and country level. It provides a quantitative analysis of the market size and development potential of each region and its main countries and introduces the market development, future development prospects, market space, and production of each country in the world.
Chapter 5: Provides the analysis of various market segments by Type, covering the market size and development potential of each market segment, to help readers find the blue ocean market in different market segments.
Chapter 6: Provides the analysis of various market segments by Application, covering the market size and development potential of each market segment, to help readers find the blue ocean market in different downstream markets.
Chapter 7: Provides profiles of key players, introducing the basic situation of the main companies in the market in detail, including product production/output, value, price, gross margin, product introduction, recent development, etc.
Chapter 8: Analysis of industrial chain, including the upstream and downstream of the industry.
Chapter 9: Introduces the market dynamics, latest developments of the market, the driving factors and restrictive factors of the market, the challenges and risks faced by manufacturers in the industry, and the analysis of relevant policies in the industry.
Chapter 10: The main points and conclusions of the report.
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TABLE OF CONTENTS
1 Vanadium Oxide Infrared Detector Chips Market Overview
1.1 Product Definition
1.2 Vanadium Oxide Infrared Detector Chips by Type
1.2.1 Global Vanadium Oxide Infrared Detector Chips Market Value Growth Rate Analysis by Type: 2023 VS 2030
1.2.2 Wafer Level Packaging
1.2.3 Metal Packaging
1.2.4 Ceramic Packaging
1.3 Vanadium Oxide Infrared Detector Chips by Application
1.3.1 Global Vanadium Oxide Infrared Detector Chips Market Value Growth Rate Analysis by Application: 2023 VS 2030
1.3.2 Self-produced and Used
1.3.3 Commercial
1.3.4 Defense
1.4 Global Market Growth Prospects
1.4.1 Global Vanadium Oxide Infrared Detector Chips Production Value Estimates and Forecasts (2019-2030)
1.4.2 Global Vanadium Oxide Infrared Detector Chips Production Capacity Estimates and Forecasts (2019-2030)
1.4.3 Global Vanadium Oxide Infrared Detector Chips Production Estimates and Forecasts (2019-2030)
1.4.4 Global Vanadium Oxide Infrared Detector Chips Market Average Price Estimates and Forecasts (2019-2030)
1.5 Assumptions and Limitations
2 Market Competition by Manufacturers
2.1 Global Vanadium Oxide Infrared Detector Chips Production Market Share by Manufacturers (2019-2024)
2.2 Global Vanadium Oxide Infrared Detector Chips Production Value Market Share by Manufacturers (2019-2024)
2.3 Global Key Players of Vanadium Oxide Infrared Detector Chips, Industry Ranking, 2022 VS 2023
2.4 Global Vanadium Oxide Infrared Detector Chips Market Share by Company Type (Tier 1, Tier 2, and Tier 3)
2.5 Global Vanadium Oxide Infrared Detector Chips Average Price by Manufacturers (2019-2024)
2.6 Global Key Manufacturers of Vanadium Oxide Infrared Detector Chips, Manufacturing Sites & Headquarters
2.7 Global Key Manufacturers of Vanadium Oxide Infrared Detector Chips, Product Type & Application
2.8 Global Key Manufacturers of Vanadium Oxide Infrared Detector Chips, Date of Enter into This Industry
2.9 Global Vanadium Oxide Infrared Detector Chips Market Competitive Situation and Trends
2.9.1 Global Vanadium Oxide Infrared Detector Chips Market Concentration Rate
2.9.2 Global 5 and 10 Largest Vanadium Oxide Infrared Detector Chips Players Market Share by Revenue
2.10 Mergers & Acquisitions, Expansion
3 Vanadium Oxide Infrared Detector Chips Production by Region
3.1 Global Vanadium Oxide Infrared Detector Chips Production Value Estimates and Forecasts by Region: 2019 VS 2023 VS 2030
3.2 Global Vanadium Oxide Infrared Detector Chips Production Value by Region (2019-2030)
3.2.1 Global Vanadium Oxide Infrared Detector Chips Production Value Market Share by Region (2019-2024)
3.2.2 Global Forecasted Production Value of Vanadium Oxide Infrared Detector Chips by Region (2025-2030)
3.3 Global Vanadium Oxide Infrared Detector Chips Production Estimates and Forecasts by Region: 2019 VS 2023 VS 2030
3.4 Global Vanadium Oxide Infrared Detector Chips Production by Region (2019-2030)
3.4.1 Global Vanadium Oxide Infrared Detector Chips Production Market Share by Region (2019-2024)
3.4.2 Global Forecasted Production of Vanadium Oxide Infrared Detector Chips by Region (2025-2030)
3.5 Global Vanadium Oxide Infrared Detector Chips Market Price Analysis by Region (2019-2024)
3.6 Global Vanadium Oxide Infrared Detector Chips Production and Value, Year-over-Year Growth
3.6.1 North America Vanadium Oxide Infrared Detector Chips Production Value Estimates and Forecasts (2019-2030)
3.6.2 Europe Vanadium Oxide Infrared Detector Chips Production Value Estimates and Forecasts (2019-2030)
3.6.3 China Vanadium Oxide Infrared Detector Chips Production Value Estimates and Forecasts (2019-2030)
3.6.4 Japan Vanadium Oxide Infrared Detector Chips Production Value Estimates and Forecasts (2019-2030)
4 Vanadium Oxide Infrared Detector Chips Consumption by Region
4.1 Global Vanadium Oxide Infrared Detector Chips Consumption Estimates and Forecasts by Region: 2019 VS 2023 VS 2030
4.2 Global Vanadium Oxide Infrared Detector Chips Consumption by Region (2019-2030)
4.2.1 Global Vanadium Oxide Infrared Detector Chips Consumption by Region (2019-2030)
4.2.2 Global Vanadium Oxide Infrared Detector Chips Forecasted Consumption by Region (2025-2030)
4.3 North America
4.3.1 North America Vanadium Oxide Infrared Detector Chips Consumption Growth Rate by Country: 2019 VS 2023 VS 2030
4.3.2 North America Vanadium Oxide Infrared Detector Chips Consumption by Country (2019-2030)
4.3.3 U.S.
4.3.4 Canada
4.4 Europe
4.4.1 Europe Vanadium Oxide Infrared Detector Chips Consumption Growth Rate by Country: 2019 VS 2023 VS 2030
4.4.2 Europe Vanadium Oxide Infrared Detector Chips Consumption by Country (2019-2030)
4.4.3 Germany
4.4.4 France
4.4.5 U.K.
4.4.6 Italy
4.4.7 Netherlands
4.5 Asia Pacific
4.5.1 Asia Pacific Vanadium Oxide Infrared Detector Chips Consumption Growth Rate by Country: 2019 VS 2023 VS 2030
4.5.2 Asia Pacific Vanadium Oxide Infrared Detector Chips Consumption by Region (2019-2030)
4.5.3 China
4.5.4 Japan
4.5.5 South Korea
4.5.6 China Taiwan
4.5.7 Southeast Asia
4.5.8 India
4.6 Latin America, Middle East & Africa
4.6.1 Latin America, Middle East & Africa Vanadium Oxide Infrared Detector Chips Consumption Growth Rate by Country: 2019 VS 2023 VS 2030
4.6.2 Latin America, Middle East & Africa Vanadium Oxide Infrared Detector Chips Consumption by Country (2019-2030)
4.6.3 Mexico
4.6.4 Brazil
4.6.5 Israel
5 Segment by Type
5.1 Global Vanadium Oxide Infrared Detector Chips Production by Type (2019-2030)
5.1.1 Global Vanadium Oxide Infrared Detector Chips Production by Type (2019-2024)
5.1.2 Global Vanadium Oxide Infrared Detector Chips Production by Type (2025-2030)
5.1.3 Global Vanadium Oxide Infrared Detector Chips Production Market Share by Type (2019-2030)
5.2 Global Vanadium Oxide Infrared Detector Chips Production Value by Type (2019-2030)
5.2.1 Global Vanadium Oxide Infrared Detector Chips Production Value by Type (2019-2024)
5.2.2 Global Vanadium Oxide Infrared Detector Chips Production Value by Type (2025-2030)
5.2.3 Global Vanadium Oxide Infrared Detector Chips Production Value Market Share by Type (2019-2030)
5.3 Global Vanadium Oxide Infrared Detector Chips Price by Type (2019-2030)
6 Segment by Application
6.1 Global Vanadium Oxide Infrared Detector Chips Production by Application (2019-2030)
6.1.1 Global Vanadium Oxide Infrared Detector Chips Production by Application (2019-2024)
6.1.2 Global Vanadium Oxide Infrared Detector Chips Production by Application (2025-2030)
6.1.3 Global Vanadium Oxide Infrared Detector Chips Production Market Share by Application (2019-2030)
6.2 Global Vanadium Oxide Infrared Detector Chips Production Value by Application (2019-2030)
6.2.1 Global Vanadium Oxide Infrared Detector Chips Production Value by Application (2019-2024)
6.2.2 Global Vanadium Oxide Infrared Detector Chips Production Value by Application (2025-2030)
6.2.3 Global Vanadium Oxide Infrared Detector Chips Production Value Market Share by Application (2019-2030)
6.3 Global Vanadium Oxide Infrared Detector Chips Price by Application (2019-2030)
7 Key Companies Profiled
7.1 Teledyne FLIR
7.1.1 Teledyne FLIR Vanadium Oxide Infrared Detector Chips Company Information
7.1.2 Teledyne FLIR Vanadium Oxide Infrared Detector Chips Product Portfolio
7.1.3 Teledyne FLIR Vanadium Oxide Infrared Detector Chips Production, Value, Price and Gross Margin (2019-2024)
7.1.4 Teledyne FLIR Main Business and Markets Served
7.1.5 Teledyne FLIR Recent Developments/Updates
7.2 Raytron Technology
7.2.1 Raytron Technology Vanadium Oxide Infrared Detector Chips Company Information
7.2.2 Raytron Technology Vanadium Oxide Infrared Detector Chips Product Portfolio
7.2.3 Raytron Technology Vanadium Oxide Infrared Detector Chips Production, Value, Price and Gross Margin (2019-2024)
7.2.4 Raytron Technology Main Business and Markets Served
7.2.5 Raytron Technology Recent Developments/Updates
7.3 HIKMICRO
7.3.1 HIKMICRO Vanadium Oxide Infrared Detector Chips Company Information
7.3.2 HIKMICRO Vanadium Oxide Infrared Detector Chips Product Portfolio
7.3.3 HIKMICRO Vanadium Oxide Infrared Detector Chips Production, Value, Price and Gross Margin (2019-2024)
7.3.4 HIKMICRO Main Business and Markets Served
7.3.5 HIKMICRO Recent Developments/Updates
7.4 Wuhan Guide Infrared
7.4.1 Wuhan Guide Infrared Vanadium Oxide Infrared Detector Chips Company Information
7.4.2 Wuhan Guide Infrared Vanadium Oxide Infrared Detector Chips Product Portfolio
7.4.3 Wuhan Guide Infrared Vanadium Oxide Infrared Detector Chips Production, Value, Price and Gross Margin (2019-2024)
7.4.4 Wuhan Guide Infrared Main Business and Markets Served
7.4.5 Wuhan Guide Infrared Recent Developments/Updates
7.5 BAE Systems
7.5.1 BAE Systems Vanadium Oxide Infrared Detector Chips Company Information
7.5.2 BAE Systems Vanadium Oxide Infrared Detector Chips Product Portfolio
7.5.3 BAE Systems Vanadium Oxide Infrared Detector Chips Production, Value, Price and Gross Margin (2019-2024)
7.5.4 BAE Systems Main Business and Markets Served
7.5.5 BAE Systems Recent Developments/Updates
7.6 Leonardo DRS
7.6.1 Leonardo DRS Vanadium Oxide Infrared Detector Chips Company Information
7.6.2 Leonardo DRS Vanadium Oxide Infrared Detector Chips Product Portfolio
7.6.3 Leonardo DRS Vanadium Oxide Infrared Detector Chips Production, Value, Price and Gross Margin (2019-2024)
7.6.4 Leonardo DRS Main Business and Markets Served
7.6.5 Leonardo DRS Recent Developments/Updates
7.7 Semi Conductor Devices (SCD)
7.7.1 Semi Conductor Devices (SCD) Vanadium Oxide Infrared Detector Chips Company Information
7.7.2 Semi Conductor Devices (SCD) Vanadium Oxide Infrared Detector Chips Product Portfolio
7.7.3 Semi Conductor Devices (SCD) Vanadium Oxide Infrared Detector Chips Production, Value, Price and Gross Margin (2019-2024)
7.7.4 Semi Conductor Devices (SCD) Main Business and Markets Served
7.7.5 Semi Conductor Devices (SCD) Recent Developments/Updates
7.8 NEC
7.8.1 NEC Vanadium Oxide Infrared Detector Chips Company Information
7.8.2 NEC Vanadium Oxide Infrared Detector Chips Product Portfolio
7.8.3 NEC Vanadium Oxide Infrared Detector Chips Production, Value, Price and Gross Margin (2019-2024)
7.8.4 NEC Main Business and Markets Served
7.8.5 NEC Recent Developments/Updates
7.9 L3Harris Technologies, Inc.
7.9.1 L3Harris Technologies, Inc. Vanadium Oxide Infrared Detector Chips Company Information
7.9.2 L3Harris Technologies, Inc. Vanadium Oxide Infrared Detector Chips Product Portfolio
7.9.3 L3Harris Technologies, Inc. Vanadium Oxide Infrared Detector Chips Production, Value, Price and Gross Margin (2019-2024)
7.9.4 L3Harris Technologies, Inc. Main Business and Markets Served
7.9.5 L3Harris Technologies, Inc. Recent Developments/Updates
7.10 Zhejiang Dali Technology
7.10.1 Zhejiang Dali Technology Vanadium Oxide Infrared Detector Chips Company Information
7.10.2 Zhejiang Dali Technology Vanadium Oxide Infrared Detector Chips Product Portfolio
7.10.3 Zhejiang Dali Technology Vanadium Oxide Infrared Detector Chips Production, Value, Price and Gross Margin (2019-2024)
7.10.4 Zhejiang Dali Technology Main Business and Markets Served
7.10.5 Zhejiang Dali Technology Recent Developments/Updates
7.11 North Guangwei Technology
7.11.1 North Guangwei Technology Vanadium Oxide Infrared Detector Chips Company Information
7.11.2 North Guangwei Technology Vanadium Oxide Infrared Detector Chips Product Portfolio
7.11.3 North Guangwei Technology Vanadium Oxide Infrared Detector Chips Production, Value, Price and Gross Margin (2019-2024)
7.11.4 North Guangwei Technology Main Business and Markets Served
7.11.5 North Guangwei Technology Recent Developments/Updates
7.12 Beijing Fjr Optoelectronic Technology
7.12.1 Beijing Fjr Optoelectronic Technology Vanadium Oxide Infrared Detector Chips Company Information
7.12.2 Beijing Fjr Optoelectronic Technology Vanadium Oxide Infrared Detector Chips Product Portfolio
7.12.3 Beijing Fjr Optoelectronic Technology Vanadium Oxide Infrared Detector Chips Production, Value, Price and Gross Margin (2019-2024)
7.12.4 Beijing Fjr Optoelectronic Technology Main Business and Markets Served
7.12.5 Beijing Fjr Optoelectronic Technology Recent Developments/Updates
8 Industry Chain and Sales Channels Analysis
8.1 Vanadium Oxide Infrared Detector Chips Industry Chain Analysis
8.2 Vanadium Oxide Infrared Detector Chips Key Raw Materials
8.2.1 Key Raw Materials
8.2.2 Raw Materials Key Suppliers
8.3 Vanadium Oxide Infrared Detector Chips Production Mode & Process
8.4 Vanadium Oxide Infrared Detector Chips Sales and Marketing
8.4.1 Vanadium Oxide Infrared Detector Chips Sales Channels
8.4.2 Vanadium Oxide Infrared Detector Chips Distributors
8.5 Vanadium Oxide Infrared Detector Chips Customers
9 Vanadium Oxide Infrared Detector Chips Market Dynamics
9.1 Vanadium Oxide Infrared Detector Chips Industry Trends
9.2 Vanadium Oxide Infrared Detector Chips Market Drivers
9.3 Vanadium Oxide Infrared Detector Chips Market Challenges
9.4 Vanadium Oxide Infrared Detector Chips Market Restraints
10 Research Findings and Conclusion
11 Methodology and Data Source
11.1 Methodology/Research Approach
11.1.1 Research Programs/Design
11.1.2 Market Size Estimation
11.1.3 Market Breakdown and Data Triangulation
11.2 Data Source
11.2.1 Secondary Sources
11.2.2 Primary Sources
11.3 Author List
11.4 Disclaimer
TABLE OF FIGURES
List of Tables
List of Figures
KEY QUESTIONS ADDRESSED BY THE REPORT
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Since the 1930s, cryogenic detectors have dominated the development of infrared detectors. However, the requirement for low-temperature cooling in cryogenic detectors not only makes them expensive but also increases the size of the system and makes them inconvenient to use. Non-cryogenic infrared focal plane arrays (FPAs) do not require a cooling mechanism and can operate at room temperature, offering advantages such as compact size, light weight, low power consumption, long lifespan, low cost, and quick start-up. Although they are less sensitive than cryogenic infrared FPAs, the performance of non-cryogenic FPAs is sufficient to meet the technical requirements of some military equipment and the vast majority of civilian technology fields. Currently, the production volume of non-cryogenic infrared detectors far exceeds that of cryogenic detectors, mainly due to the high demand in the civilian market, as well as their ability to meet some military market needs. Non-cryogenic infrared detectors can be categorized into vanadium oxide infrared detectors and amorphous silicon infrared detectors based on different MEMS sensor materials. Vanadium oxide infrared detectors are the most widely used in the non-cryogenic domain. The infrared semiconductor material used is vanadium oxide, which has a high temperature coefficient of resistance, ranging from 2% to 3%/K. Due to the significant change in resistance with temperature, these detectors have a high sensitivity. Most companies produce everything from infrared detector chips, modules, to end products in a complete industrial chain. Furthermore, a significant portion of the infrared detector chips produced by these companies is used internally, so the vanadium oxide infrared detector chips mentioned in this paper include both products used in-house and those sold externally.
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Since the 1930s, cryogenic detectors have dominated the development of infrared detectors. However, the requirement for low-temperature cooling in cryogenic detectors not only makes them expensive but also increases the size of the system and makes them inconvenient to use. Non-cryogenic infrared focal plane arrays (FPAs) do not require a cooling mechanism and can operate at room temperature, offering advantages such as compact size, light weight, low power consumption, long lifespan, low cost, and quick start-up. Although they are less sensitive than cryogenic infrared FPAs, the performance of non-cryogenic FPAs is sufficient to meet the technical requirements of some military equipment and the vast majority of civilian technology fields. Currently, the production volume of non-cryogenic infrared detectors far exceeds that of cryogenic detectors, mainly due to the high demand in the civilian market, as well as their ability to meet some military market needs. Non-cryogenic infrared detectors can be categorized into vanadium oxide infrared detectors and amorphous silicon infrared detectors based on different MEMS sensor materials. Vanadium oxide infrared detectors are the most widely used in the non-cryogenic domain. The infrared semiconductor material used is vanadium oxide, which has a high temperature coefficient of resistance, ranging from 2% to 3%/K. Due to the significant change in resistance with temperature, these detectors have a high sensitivity. Most companies produce everything from infrared detector chips, modules, to end products in a complete industrial chain. Furthermore, a significant portion of the infrared detector chips produced by these companies is used internally, so the vanadium oxide infrared detector chips mentioned in this paper include both products used in-house and those sold externally.
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Published: 2025-03-09
Pages: 96
Since the 1930s, cryogenic detectors have dominated the development of infrared detectors. However, the requirement for low-temperature cooling in cryogenic detectors not only makes them expensive but also increases the size of the system and makes them inconvenient to use. Non-cryogenic infrared focal plane arrays (FPAs) do not require a cooling mechanism and can operate at room temperature, offering advantages such as compact size, light weight, low power consumption, long lifespan, low cost, and quick start-up. Although they are less sensitive than cryogenic infrared FPAs, the performance of non-cryogenic FPAs is sufficient to meet the technical requirements of some military equipment and the vast majority of civilian technology fields. Currently, the production volume of non-cryogenic infrared detectors far exceeds that of cryogenic detectors, mainly due to the high demand in the civilian market, as well as their ability to meet some military market needs. Non-cryogenic infrared detectors can be categorized into vanadium oxide infrared detectors and amorphous silicon infrared detectors based on different MEMS sensor materials. Vanadium oxide infrared detectors are the most widely used in the non-cryogenic domain. The infrared semiconductor material used is vanadium oxide, which has a high temperature coefficient of resistance, ranging from 2% to 3%/K. Due to the significant change in resistance with temperature, these detectors have a high sensitivity. Most companies produce everything from infrared detector chips, modules, to end products in a complete industrial chain. Furthermore, a significant portion of the infrared detector chips produced by these companies is used internally, so the vanadium oxide infrared detector chips mentioned in this paper include both products used in-house and those sold externally.
Published: 2024-08-25
Pages: 124
Since the 1930s, cryogenic detectors have dominated the development of infrared detectors. However, the requirement for low-temperature cooling in cryogenic detectors not only makes them expensive but also increases the size of the system and makes them inconvenient to use. Non-cryogenic infrared focal plane arrays (FPAs) do not require a cooling mechanism and can operate at room temperature, offering advantages such as compact size, light weight, low power consumption, long lifespan, low cost, and quick start-up. Although they are less sensitive than cryogenic infrared FPAs, the performance of non-cryogenic FPAs is sufficient to meet the technical requirements of some military equipment and the vast majority of civilian technology fields. Currently, the production volume of non-cryogenic infrared detectors far exceeds that of cryogenic detectors, mainly due to the high demand in the civilian market, as well as their ability to meet some military market needs. Non-cryogenic infrared detectors can be categorized into vanadium oxide infrared detectors and amorphous silicon infrared detectors based on different MEMS sensor materials. Vanadium oxide infrared detectors are the most widely used in the non-cryogenic domain. The infrared semiconductor material used is vanadium oxide, which has a high temperature coefficient of resistance, ranging from 2% to 3%/K. Due to the significant change in resistance with temperature, these detectors have a high sensitivity. Most companies produce everything from infrared detector chips, modules, to end products in a complete industrial chain. Furthermore, a significant portion of the infrared detector chips produced by these companies is used internally, so the vanadium oxide infrared detector chips mentioned in this paper include both products used in-house and those sold externally.
Published: 2024-08-25
Pages: 155
REPORT COVERAGE
DESCRIPTION
OVERVIEW
MARKET SEGMENTATION
REPORT SCOPE
CHAPTER OUTLINE
QYRESEARCH'S STRENGTHS
TABLE OF CONTENTS
TABLE OF FIGURES
RLEATED REPORTS
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