Home > Back to Publisher > Report Information

Mid Infrared (IR) Sensors Market Shares, Strategies, and Forecasts, Worldwide, Nanotechnology, 2012 to 2018

Wintergreen Research
December 12, 2011
717 Pages - SKU: WGR6722784

Abstract Table of Contents Search inside this report Related Reports

Countries covered: Global

WinterGreen Research announces that it has a new study on Mid Infrared (IR) Sensors Market Shares and Forecasts, Worldwide, Nanotechnology 2012-2018. Products power sensor networks that are the base for smarter computing and for all manner of military and commercial management of devices.

Intelligent decision making depends on automated process and information gathered from sensors. The 2011 study has 717 pages, 136 tables and figures. Mid Infrared (IR) Sensors are evolving in the context of the development of solid state technology that provides vast improvements. Improvements in energy density are one of the benefits of energy harvesting give to traditional rechargeable and solid state batteries and sensors become much more useful in this context. The ability to locate self-sufficient sensors out in the field without replacing batteries is a significant market development. Lower cost and size of the mid IR sensors is another market aspect

Mid-infrared (MIR) optical chemical sensor technology in the spectral range of 3-12m is gaining importance in process monitoring, environmental analysis, security/surveillance applications, and the biomedical field. Design approaches for digitally dominated active pixel sensors: leveraging Moore's Law scaling in focal plane readout design. CMOS technology scaling has provided tremendous power and circuit density benefits for innumerable applications, focal plane array (FPA) readouts have largely been left behind.

Design and modeling of nanophotonic beam structures as optical NEMS sensors. Silicon photonic crystal (PhC) waveguide based resonator is designed by introducing a micro-cavity within the line defect. Silicon photonic crystals form the resonant band gap structure for PhC.

Mid IR sensors can measure chemical composition of materials and gas in a manner that is unmatched by any other technology, for a cost that is increasingly more competitive. Mid IR is being readied for use beyond military applications to commercial systems, including wireless network systems.

Advances in QC laser technology and spectrometer hardware are combined with spectroscopic techniques. Intra pulse spectroscopy and similar techniques provide a major step change in sensitivity, speed of operation, fingerprinting capability, size and cost. They offer a major improvement on methods of gas detection.

Recent advances in spectrometer hardware relate to QC gas sensors which exploit recent technological advances including miniaturized integrated electronic systems, plug and play interfaces and micro optics. These will progressively replace the unwieldy, fragile and expensive instrumentation of the past.

The lasing wavelength for QCL's is determined by the choice of semiconductor material as with conventional lasers. By adjusting the physical thickness of the semiconductor layers new functionality is achieved. This removes the material barriers associated with conventional semiconductor laser technology. It opens the possibility of near-infrared through to THz spectral coverage.

An infrared spectroscopic laser source has no need for cryogenic cooling, provides high output powers, has large spectral coverage, provides excellent spectral quality, and has good tuneability.

The removal of the noise floor, without the need of complex fringe removal techniques or expensive optical isolators, enables the laboratory performance of this technology to be transferred to real world applications.

Mid-infrared (IR) laser sensors are able to measure change in device condition, chemistry, or temperature. The ability to measure change remotely, at an affordable price, is part of the emerging smarter planet initiative based on smart sensors. The coincident elaboration of the Internet availability leverages wireless devices. Worldwide demand is creating needs for remote connectivity to sensing devices.

Infrared is a portion of the electro-magnetic spectrum that is not visible by the human eye because its wavelength is too long. Unlike visible light, infrared radiation (or heat) is emitted directly by all objects above absolute zero in temperature. The mid IR spectrum goes from 3-12 m.

MID IR SENSORS EXECUTIVE SUMMARY: Mid-Infrared (IR) Laser Sensor Systems; Mid-Infrared (IR) Laser Sensors Are Able To Measure Change In Device Condition, Chemistry,; Or Temperature; Turnkey Mid-Infrared Laser Sensor Systems Are Based On Technology That Goes From 3-12 m; Mid IR Sensor Market Driving Forces; Mid IR Sensor Market Shares; Mid IR Sensor Market Forecasts
1. MID IR SENSOR MARKET DESCRIPTION AND MARKET DYNAMICS: 1.1 Infrared Spectroscopy; 1.2 Mid IR Sensors; 1.3 Semiconductor Diode Lasers Operating At Midwave-Infrared (Mid-IR) Wavelengths; 1.4 Infrared Semiconductor Lasers; 1.5 Smart Sensors Replace Expensive Building Control Systems; 1.6 Biomedical And Chemical Mid-IR Spr Based Sensor; 1.7 Miniaturized Mid-Infrared Sensor Technologies Trends; 1.8 Emerging New Fields of Mid IR Sensor Application And Outlook; 1.9 Sol-Gel-Coated Mid-Infrared Fiber-Optic Sensors; 1.10 Magnetic Nanoparticle Mid-Infrared Pathogen Sensor for Food Matrixes
2. MID IR SENSORS MARKET SHARES AND MARKET FORECASTS: 2.1 Mid-Infrared (IR) Laser Sensor Systems; 2.2 Mid IR Sensor Market Shares; 2.3 Mid IR Sensor Market Forecasts; 2.4 Mid IR Sensor Market Opportunity Overview; 2.5 Smarter Planet Market Shares and Forecasts; 2.6 Mid IR Sensor Sample Prices; 2.7 Mid IR Sensor Regional Shipments
3. MID IR SENSORS PRODUCT DESCRIPTION: 3.1 FLIR; 3.2 Daylight Solutions; 3.3 SenseAir; 3.4 Sensor Switch Occupancy Sensor Products; 3.5 Structured Materials Industries; 3.6 Block Engineering Quantum Cascade Laser Products; 3.7 Sofradir; 3.8 Ekips Technologies; 3.9 JonDeTech AB; 3.10 Micropelt Energy Harvesting:; 3.11 EnOcean; 3.12 Agiltron; 3.13 Mirthe Mid IR Sensor Breath Analyzers; 3.14 Cascade Technologies; 3.15 Physical Sciences / Maxion; 3.16 VIASPACE Ionfinity; 3.17 Power Technology Quantum-Cascade Lasers; 3.18 M Squared Next-Generation Bio-Medical Lasers; 3.19 Thermo Fischer Scientific / NovaWave Technologies; 3.20 GE Sensors; 3.21 PNNL Electronics and Systems Integration; 3.22 Hamamatsu; 3.23 AdTech Optics; 3.24 Opto Solutions; 3.25 Sentinel Photonics; 3.26 ILX Lightwave; 3.27 Aerocrine
4. MID IR SENSOR TECHNOLOGY: 4.1 Infrared Technology Overview; 4.2 Mid-infrared (mid-IR) Laser Spectroscopy; 4.3 Remote Detection Of Mines; 4.4 Thermopiles; 4.5 Nanoparticle Dispersions; 4.6 Mid IR Laser Laser Emits A Narrow Range Of Wavelengths; 4.7 IBM Microscope 100 Million Times Finer Resolution Than Current MRI; 4.8 Battery Technology for Mid IR Sensors; 4.9 Breath Analyzers Detect Disease; 4.10 Improving Biomaterials For Medical Implant Applications; 4.11 QC Technology; 4.12 Schematic of Mid-Infrared Trace Gas Sensor; 4.13 Mid-IR Sensors Standards; 4.14 Driving Forces For Building Automation; 4.15 Near IR Night Vision Sensors; 4.16 Mid-IR Non-Invasive Medical Systems; 4.17 University of Oklahoma High-Tech Breath Test; 4.18 Physical Vapor Nanoparticle Synthesis; 4.19 MIRTHE Roadmap
5. MID INFRARED (IR) SENSORS COMPANY PROFILES: 5.1 AdTechoptics; 5.2 Aerocrine; 5.3 Alpes Lasers / ALTechnologies; 5.4 Block Engineering; 5.5 Bosch; 5.6 Cymbet; 5.7 Daylight Solutions; 5.8 Digi International; 5.9 Directed Vapor Technology; 5.10 Dust Networks; 5.11 EnOcean GmbH; 5.12 Ekips Technologies; 5.13 Elliot Scientific; 5.14 Finmeccanica; 5.15 Ferro Solutions; 5.16 Flexible Electronics Concepts; 5.17 FLIR; 5.18 GE Sensors; 5.19 Hamamatsu; 5.20 II-VI incorporated / Marlow Industries; 5.21 ILX Lightwave; 5.22 IPG Photonics; 5.23 Johnson Controls Sensor Products; 5.24 JonDeTech; 5.25 Kidde Products Limited / Airsense Technology; 5.26 Lockheed-Martin; 5.28 MIRTHE (Mid-Infrared Technologies for Health and the Environment) National Science Foundation Engineering Research Center; 5.29 Mirthe Mid IR Sensor Breath Analyzers; 5.30 Nanophase Technologies; 5.31 Opto Solutions; 5.32 Physical Sciences Inc. / Maxion Technologies; 5.33 PNNL Electronics and Systems Integration; 5.34 Power Technology; 5.35 Raytheon; 5.36 SenseAir; 5.37 Sensor Switch; 5.38 Sentinel Photonics; 5.39 Sofradir; 5.40 Structured Materials Industries; 5.41 Thermo Fischer Scientific / NovaWave Technologies; 5.42 VIASPACE / Ionfinity
List of Tables and Figures: Table ES-1; Mid IR Sensor Market Driving Forces; Table ES-2; Technologies Impacting Mid IR Sensor Market; Figure ES-3; Mid Infrared (IR) Sensor Market Shares, Dollars,; First Three Quarters 2011; Figure ES-4; Mid Infrared (IR) Sensor Shipments, Market; Forecasts, Dollars, Worldwide, 2012-2018; Table 1-1; IBM Integrated Product Change Management; Market Driving Forces; Figure 1-2; IBM Definition of Smarter Computing; Figure 1-3; Interband-Cascade (IC) Lasers; Table 1-4; Commercialization Of Mid And Long-Wavelength; (3-12 Microns) Infrared Semiconductor Lasers; Table 1-4 (Continued); Commercialization Of Mid And Long-Wavelength; (3-12 Microns) Infrared Semiconductor Lasers; Table 1-5; Mid IR Sensing Systems Components; Table 1-6; Applications For Mid IR Sensing; Table 1-7; Mid-Infrared Fiber-Optic Sensor Characteristics; Table 2-1; Mid IR Sensor Market Driving Forces; Table 2-2; Technologies Impacting Mid IR Sensor Market; Figure 2-3; Mid Infrared (IR) Sensor Market Shares, Dollars,; First Three Quarters 2011; Figure 2-4; Mid Infrared (IR) Sensor Market Shares, Dollars, Worldwide,; First Three Quarters 2011; Figure 2-5; Senseair NDIR (Non-dispersive Infra-Red) technology; Table 2-6; Key Features Of The JonDeTech Thermopile; Table 2-7; JonDeTech Thermopile Sensor Flexibility; Table 2-8; JonDeTech Thermopile Sensor Characteristics; Figure 2-9; Surface Mount Plastic Thermopile Layers; Figure 2-10; Surface Mount Plastic Thermopile; Figure 2-11; Surface Mount Plastic Thermopile; Table 2-12; Maxion Technologies Mid IR Sensor Laser products; Revenue Base Areas; Figure 2-13; Mid Infrared (IR) Sensor Shipments, Market Forecasts,; Dollars, Worldwide, 2012-2018; Table 2-14; Mid IR Sensor Total Market Dollars, Worldwide, 2012-2018; Figure 2-15; Mid Infrared (IR) Sensor Shipments, Units, Worldwide,; Market Forecasts, 2012-2018; Figure 2-16; Military / Airline / Space / Defense Mid Infrared (IR); Sensors Shipments Market Forecasts, Dollars,; Worldwide, 2012-2018; Table 2-17; Smart Building Mid Infrared (IR) Sensor Uses; Table 2-18; Smart Building Mid Infrared (IR) Sensor Market Segments; Figure 2-19; Smart Building Mid Infrared (IR) Sensor Shipments; Market Forecasts, Worldwide, Dollars, 2012-2018; Figure 2-20; Smart City Mid IR Sensor Shipments Market Forecasts,; Dollars, Worldwide, 2012-2018; Figure 2-21; MIRTHE Compound and Vibrational Absorption Analysis; Figure 2-22; Mirthe Assessment of QC Laser Based Sensor Challenges; Table 2-23; Power Technology Mid IR Sensor Applications; Table 2-24; Technology Mid IR Sensor Applications; Table 2-25; Mid IR Technology Quantum-Cascade Lasers Features; Figurev2-26; Daylight Solutions' Core Technology; Figure 2-27; Senseair Carbon Dioxide Sensors; Figure 2-28; Vertical Heat Flow Model Of Jondetech Thermopiles; Figure 2-29; Jondetech Thermopile Infrared Radiation Tetectors; Generation Flex; Figure 2-30; Mass Spectrometry vs. Mirthe Mid IR Sensors For To; Measuring Trace Gas At Ppm Or Ppb Sensitivity; Table 2-31; Mid IR Sensor; Market Segment Forecasts, Dollars, 2012-2018; Figure 2-32; MID Infrared (IR) Sensor Market Industry Segments, Percent, Worldwide, 2012-2018; Table 2-33; Mid IR Sensor Market Industry Segments, Units,; Worldwide, 2012-2018; Figure 2-34; Smarter Planet Market Shares, Dollars, Worldwide,; First Three Quarters 2011; Table 2-35; Smarter Planet Market Shares, Dollars, Worldwide,; First Three Quarters 2011; Figure 2-36; IBM Imperatives For A Smarter Planet; Table 2-37; IBM Positions To Support Sensor Networks; Figure 2-38; IBM Describes Smarter Plant Solutions Impact on IT; Figure 2-39; IBM Strategic Vision for Innovation; Figure 2-40; Smart Computing Software Modules Market Forecasts,; Dollars, Worldwide, 2011-2017; Table 2-41; Smarter Planet Software Market Total Forecast,; Dollars, Worldwide, 2011-2017; Table 2-42; Smarter Planet Software Market Industry Segment Forecasts, Dollars, Worldwide, 2011-2017; Table 2-43; Smarter Planet Software Market Industry Segment; Forecasts, Percent, Worldwide, 2011-2017; Table 2-44; Types of Internet Connected Devices Likely to be Using; Mid IR Sensors That Need SOA Software To; Achieve Connectivity; Table 2-45; Advantages Offered by SOA; Table 2-46; Services Oriented Architecture SOA Market; Shares, Dollars, Worldwide, 2010; Table 2-47; Services Oriented Architecture SOA Application; Market Shares, Dollars, Worldwide, 2010; Table 2-48; Services oriented architecture (SOA) benefits; Table 2-49; Services Oriented Architecture SOA Market Driving Forces; Figure 2-50; MIRTHE Mass Spectroscopy Pricing Assessment; Figure 2-51; MIRTHE Sensor Price Per Unit Analysis; Figure 2-52; Mid Infrared (IR) Sensor Regional Market; Segments, Dollars, First Three Quarters 2011; Table 2-53; Mid IR Sensor Regional Market Segments,; First Three Quarters 2011; Table 3-1; FLIR Thermal Imaging Applications; Table 3-2; FLIR Technology; Table 3-3; FLIR Technology Systems; Figure 3-4; FLIR Commercial Vision Systems; Table 3-5; Key Features of FLIR Tau 640 Camera; Figure 3-6; FLIR Scout Thermal Night Vision; Figure 3-7; FLIR Infrared Cameras; Table 3-8; FLIR Thermal Imaging Technology -- CBRNE,; Cameras, and Industrial; Table 3-9; FLIR Thermal Imaging Technology - Surveillance,; Police, and Science; Figure 3-10; FLIR Unmanned Laser Targeting Systems; Figure 3-11; FLIR MEP Reconnaissance, Surveillance, Target Acquisition Laser Designator Mid IR Sensor; Table 3-12; Daylight Solutions Mid Infrared Sensor Applications; Figure 3-13; Daylight Solutions Mid IR Sensors; Table 3-14; Daylight Solutions Monitoring; Figure 3-15; Daylight Solutions Industry Specific Solutions; Table 3-16; Daylight Solutions Mid IR Detector Key Features; Figure 3-17; Daylight Solutions Tunable Laser Tuning; Figure 3-18; Daylight Solutions Narrow Tuning; Table 3-19; Daylight Solutions Gaussian Beam Profile; Table 3-20; Daylight Solutions EC-QCL Laser Gaussian Beam Profile; Table 3-21; Daylight Solutions Tunable Mid-IR; External-Cavity CW-MHF Lasers; Table 3-21 (Continued); Daylight Solutions Tunable Mid-IR; External-Cavity CW-MHF Lasers; Table 3-21 (Continued); Daylight Solutions Tunable Mid-IR; External-Cavity CW-MHF Lasers; Figure 3-22; Daylight Solutions Mid-IR; Figure 3-23; Daylight Solutions Controller; Figure 3-24; Daylight Solutions Applications; Figure 3-25; Daylight Solutions Laserhead; Table 3-26; Daylight Solutions Tunable Mid-IR External Cavity Lasers Features; Table 3-27; Daylight Solutions Tunable Mid-IR; External Cavity Lasers Advantages; Table 3-28; Daylight Solutions Products; Figure 3-29; Daylight Solutions Fixed-Wavelength Mid-IR; External-Cavity Lasers; Table 3-30; Daylight Solutions Fixed-Wavelength Mid-IR; External-Cavity Lasers Key Features; Table 3-31; Daylight Solutions Fixed-Wavelength Mid-IR; External-Cavity Lasers Applications; Figure 3-32; Daylight Solutions Mid-IR HgCdTe Detectors; Table 3-33; Daylight Solutions Mid-IR HgCdTe Detectors Key Features; Table 3-34; Daylight Solutions Core Technology; Figure 3-35; Daylight Solutions' Core Technology; Table 3-36; Daylight Solutions Power Technology Mid IR Sensor Applications; Table 3-36 (Continued); Daylight Solutions Power Technology Mid IR Sensor Applications; Table 3-37; SenseAir® CO2 Sensors; Table 3-38; SenseAir® CO2 Energy Saving Intelligence And Comfort Sensors; Table 3-39; SenseAir® CO2 Process Yield And Economic Outcome Sensors; Table 3-40; SenseAir® CO2 personal safety Sensors; Figure 3-41; SenseAir Products; Figure 3-42; Senseair Carbon Dioxide Sensors; Figure 3-43; SenseAir Carbon Dioxide Sensor; Figure 3-44; SenseAir Circuit Board; Table 3-45; Sensor Switch Product Highlights; Figure 3-46; Sensor Switch Smart Buildings; Table 3-47; Sensor Switch Lighting Controls Technical Services; Table 3-48; Sensor Switch Engineering Advances; Figure 3-49; Block Engineering Quantum Cascade Laser; Table 3-50; Block Engineering Tunable Mid-IR Sources Products; Figure 3-51; Block Engineering LaserScope Target Size; Table 3-52; Block Engineering Quantum Cascade Laser Products; Table 3-53; Block Engineering Standoff Passive FTIR Spectroscopy Products; Table 3-54; Block Engineering Examples of LaserScan Functions:; Table 3-55; Block Engineering Laserscan Product Line Functions; Table 3-56; Block Engineering LaserScope Functions:; Table 3-57; Block Engineering Quantum Cascade Laser (QCL) LaserTune™; Figure 3-58; Sofradir Mid IR EPSILON MW 384x288; Figure 3-59; Sofradir IR Products; Figure 3-60; Sofradir Jet IR Product; Figure 3-61; Sofradir Vision IR Product; Figure 3-62; Sofradir Marine IR Product; Figure 3-63; Sofradir Helicopter IR Product; Figure 3-64; Sofradir EPSILON MW 384x288; Table 3-65; Sofradir Hand-Held Thermal Imaging UAV Applications; Table 3-66; Sofradir ROIC Modes:; Table 3-67; Sofradir Development Trends In Cooled Infrared Technology; Figure 3-68; Sofradir VEGA LW 384x288 QWIP (25μm pitch); Figure 3-69; Eikips Technologies Biomarkers in Breath; Table 3-70; Ekips Technologies Category Examples Of Laser Emission Spectra; Figure 3-71; JonDeTech AB Low-Cost, Surface Mount Thermopiles; Table 3-72; JonDeTech AB Consumer Electronics Mid IR Sensors; Table 3-73; JonDeTech AB Residential Control Systems Mid IR Sensors; Table 3-74; JonDeTech’s Technology Competitive Advantages; Figure 3-75; JonDeTech AB JIRS3 Sensor; Table 3-76; JonDeTech AB Key Features of the Thermopile; Figure 3-77; JonDeTech AB JIRS5 Sensor; Figure 3-78; JonDeTech AB Close-up of JIRS5 Sensor; Figure 3-79; JonDeTech AB Nanowire Sensors; Figure 3-80; JonDeTech AB Linear Array of IR Sensorson Polyimide Foil; Table 3-81; JonDeTech Thermopile Applications; Figure 3-82; JonDeTech AB Vertical Heat Flow Model Of Jondetech Thermopiles; Figure 3-83; JonDeTech AB Vertical Heat Flow Model; Figure 3-84; Jondetech Thermopile Infrared Radiation Tetectors Generation Flex; Figure 3-85; Micropelt Thermoharvester; Figure 3-86; EnOcean ECO 100 - Motion Energy Harvesting; Table 3-87; EnOcean Energy Harvesting Motion Converter; Table 3-88; EnOcean Thermo Converter; Table 3-89; EnOcean Energy Converters For Energy Harvesting; Wireless Applications; Figure 3-90; Agiltron Room Temperature Automated Chemical; Processing (ACP) Sensors; Figure 3- 91; Agiltron Typical Room Temperature Electrical; Characteristics Of Automated Chemical Processing (ACP); Table 3-92; Agiltron Response of PbS Detectors; Figure 3-93; Agiltron Infrared Detector Configurations; Figure 3-94; Agiltron Lead Sulfide Infrared (PbS) Detector Array; Figure 3-95; Quartz Resonator Photoacoustic Sensing Cell; Figure 3-96; Mass Spectrometry vs. Mirthe Mid IR Sensors For To; Measuring Trace Gas At Ppm Or Ppb Sensitivity; Table 3-97; Mirthe Impact In Environment And Homeland Security:; Table 3-98; Mirthe Impact In Health:; Table 3-99; Mirthe Impact In Industrial Outreach:; Figure 3-100; Mirthe’s Strategic 3-Level Framework; Figure 3-101; Cascade Technologies CT2100 Analyzer; Table 3-102; Cascade Technologies CT2100 analyzer Measurements*; Table 3-103; Cascade Technologies Analyzers; Figure 3-104; Cascade Technologies Quantum Cascade Laser (QCL),; Table 3-105; Cascade Technologies Rapid Sweep Combined With; High Duty Cycles Key Advantages; Figure 3-106; Maxion Laser Products; Figure 3-107; Maxion Products Single Mode Lasers; Table 3-108; Integration into Maxion’s Turn-Key Laser System Benefits; Table 3-109; Maxion Single Mode Laser Device Performance; Table 3-110; Maxion Technologies Infrared Semiconductor; Laser Products Solutions Areas; Figure 3-111; Maxion Multimode Lasers High Heat Load Laser Package; Figure 3-112; Maxion Turnkey Laser System Single Mode Lasers; Figure 3-113; Maxion Linear Arrays Of IC and QC Lasers --; C-mount and NS-mount Lasers; Figure 3-114; Maxion LED in a Dewar; Figure 3-115; VIASPACE Ionfinity SIM Ionizes The Sample; Without Fragmentation; Figure 3-116; Ionfinity Industrial Process Control And; Environmental Monitoring; Table 3-117; Power Technology Available Wavelengths & Output Powers; Table3-118; Power Technology Applications for an infrared viewer; Table 3-119; Power Technology Quantum-Cascade Lasers Features; Table 3-120; Power Technology Quantum-Cascade Lasers; Mechanical Dimensions; Figure 3-121; Power Technology Temperature Controlled Laser Diode Modules; Table 3-122; Power Technology Mid IR Sensor Applications; Figure 3-123; Power Technology Infrared Viewers; Figure 3-124; Power Technology Mid IR Specifications; Table 3-125; Power Technology Infrared Illuminator; Figure 3-126; Power Technology. Infrared Photosensivity; Table 3-127; Power Technology Near Infrared Viewer Power Densities; Figure 3-128; Power Technology Laser Modules for OEM; Figure 3-129; M Squared Device; Table 3-130; M Squared Firefly-IR Applications Positioning; Table 3-130 (Continued); M Squared Firefly-IR Applications Positioning; Table 3-131; M Squared Firefly-THz features; Figure 3-132; Novawave Technology IRIS™ 1000 Tunable Laser System; Table 3-133; Novawave Technology System Features; Figure 3-134; GE Wireless Sensor Networks; Table 3-135; PNNL Electronics Products; Table 3-136; PNNL System Integration; Figure 3-137; Hamamatsu Infrared Detector; Figure 3-138; Hamamatsu InGaAs Photodiodes; Figure 3-139; Hamamatsu Detectors With Sensitivity To Wavelengths; Figure 3-140; Hamamatsu Continuous-Wave QCL For Room; Temperature Operation; Table 3-141; Hamamatsu Laser Group Products; Figure 3-142; Opto Solutions Products; Table 3-143; Opto Solutions - IR Photonics Features and Applications; Figure 3-144; ILX Lightwave Laser Diode Instrumentation; Table 4-1; Daylight Solutions Basic Technologies; Figure 4-2; Thermocouple Lead Structures Based On Nanotechnology; Figure 4-3; JonDeTechs Nanotechnology Thermopiles; Figure 4-4; Nanowire Battery Can Hold 10 Times The; Charge Of Existing Lithium-Ion Battery; Table 4-5; Computerization Of Microscopic Manufacturing Procedure Benefits; Table 4-6; Battery Chemistries At The Forefront For Mid IR Sensors; Figure 4-7; Biofilm Formation; Figure 4-8; Mid IR Spectrum Wavenumber and Absorbance; Figure 4-9; Mid-Infrared Light Novel Mid-Infrared Materials; Figure 4-10; Mid-Infrared Light Sources; Figure 4-11; Mid IR Sensor Applications & Testbeds; Figure 4-12; University of Oklahoma Researchers Are; Working On A High-Tech Breath Test; Figure 4-13; Physical Vapor Nanoparticle Synthesis Process; Figure 4-14; Nanophase Technologies Organic Dispersions In Manufacturing; Figure 4-15; Nanophase Technologies Organic Dispersions In; Polar And Non-Polar Organic Fluids; Table 5-1; Block Engineering LaserScope IR Microscope; Key Benefits & Advantages; Table 5-2; Bosch Building Automation Sensors; Table 5-3; Bosch Building Automation Sensor Management Architecture; Figure 5-4; Directed Vapor Technology; Table 5-5; FLIR Systems Thermal Imaging Infrared; Cameras Target Markets; Table 5-6; FLIR Systems Commercial Vision Applications; Table 5-7; FLIR Systems Sensor Applications; Table 5-8; FLIR Systems Sensor Uses; Table 5-9; FLIR Systems Sensor Market Segments; Table 5-10; FLIR Detection System Sensor Applications; Figure 5-11; GE Wireless Sensor Networks; Table 5-12; II-VI Significant Materials Capabilities; Table 5-13; II-VI Specific Growth Strategies:; Table 5-14; Johnson Controls Sensors; Figure 5-15; Johnson Controls Sensor Products; Table 5-16; Johnson Controls Sensor Types; Table 5-17; Johnson Controls Valve Categories:; Figure 5-18; Airsense Smart Building Monitor; Figure 5-19; Lockheed Martin F35B In-Flight STOVL Operations; Figure 5-20; Lockheed Martin Autonomous Underwater Vehicles; Figure 5-21; Lockheed Martin C-139 J Cargo Plane; Figure 5-22; Lockheed Martin Next Generation Identification Systems; Figure 5-23; Lockheed Martin Linking Legacy Radio; Waveforms to AMF JTRS; Figure 5-24; M Squared Device; Table 5-25; M Squared Firefly-IR Applications Positioning; Table 5-25 (Continued); M Squared Firefly-IR Applications Positioning; Table 5-26; M Squared Firefly-THz features; Figure 5-27; Quartz Resonator Photoacoustic Sensing Cell; Figure 5-28; Mass Spectrometry vs. Mirthe Mid IR Sensors For To; Measuring Trace Gas At Ppm Or Ppb Sensitivity; Table 5-29; Mirthe Impact In Environment And Homeland Security:; Table 5-30; Mirthe Impact In Health:; Table 5-31; Mirthe Impact In Industrial Outreach:; Figure 5-32; Mirthe’s Strategic Multi-level Mid IR Sensor Framework; Table 5-33; OPTO Solutions Opto 22 Systems Markets; Table 5-34; Maxion Technologies Laser Product Segment Positioning; Table 5-35; Pacific Northwest National Laboratory (PNNL) Focus; Table 5-36; Pacific Northwest National Laboratory (PNNL) Electronics Products; Table 5-37; PNNL System Integration; Table 5-38; Power Technology Laser Applications; Table 5-39; Sofradir Notable Accomplishments

More Global Nanotechnology Materials & Applications Reports

The Global Market for Nanomaterials 2002-2016: Production volumes, revenues and end user market demand by Future Markets, Inc.
Nanomaterials are being applied across a raft of industries and technologies due to their outstanding magnetic, optical, catalytic and electronic properties, which depend greatly on ...

Nanocomposites by Global Industry Analysts
This report analyzes the Global market for Nanocomposites in Million Pounds. The report analyzes the Global and the US market for Nanocomposites by the following ...

Global Markets, Technologies and Materials for Thin and Ultrathin Films - Focus on Optical Coatings by BCC Research
The global market for thin film materials increased from $6.9 billion in 2009, to $8.4 billion in 2010, and to $9.3 billion in 2011. BCC ...

Nanotechnology in Drug Delivery: Global Markets by Cientifica Ltd.
Cientifica's latest report, Nanotechnology in Drug Delivery: Global Markets, indicates nanotech-enabled drug delivery therapeutics is set to grow from a current value of $2.3 billion ...

Nanotechnology by Global Industry Analysts
The global outlook series on Nanotechnology provides a collection of statistical anecdotes, market briefs, and concise summaries of research findings. The report offers a bird’s ...

See all reports like this >>

Mid Infrared (IR) Sensors Market Shares, Strategies, and Forecasts, Worldwide, Nanotechnology, 2012 to 2018

Share this report

Other tasks

Research Assistance

Related Markets

Nanotechnology Materials & Applications Reports

Free Alert Me service