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

Published: December 2011
No. of Pages: 717
  

Report Summary

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.

Homeland security, military communications, infrared countermeasures, chemical warfare agent detection, explosives detection, medical diagnostics, industrial process controls, remote gas leak detection, pollution monitoring, and real-time combustion controls are uses for the mid IR sensors.

Military applications account for a significant portion of mid IR sensor markets in the first three quarters of 2011. The remaining part of revenue came from CO2 building sensors and units for a number of different markets. Markets are anticipated to grow as costs decrease from $5000 per unit to $200 and even to $1 or less per unit for some new technology. Prices will decline on average. The decrease in size of units from bench size devices to portable units makes them more useful across the board in every industry.

Mid Infrared (IR) sensors markets at $509 million market worldwide in 2011 is anticipated to increase tenfold to $5 billion by 2018. This strong growth is anticipated to come as units are less expensive and more effective in the same amount of space. Wireless sensor networks are useful almost everywhere, creating the opportunity to implement controls and mange every aspect of human activity in ways that have not even been imagined hitherto.

WinterGreen Research is an independent research organization funded by the sale of market research studies all over the world and by the implementation of ROI models that are used to calculate the total cost of ownership of equipment, services, and software. The company has 35 distributors worldwide, including Global Information Info Shop, Market Research.com, Research and Markets, Bloomberg, and Thompson Financial.

Research Methodology

WinterGreen Research authors use a structured, consistent, and detailed research approach. The methodology supports an analytical approach to market research. In depth comparisons are made of many aspects of the market. Data relating to Industry segments is developed to permit presentation of forecasts and market share positioned to have substantive value.

Research has been automated using automation of interactive surveys that implement delta trend analysis and instant messaging in combination with e-mail. Automation is made possible because of a proprietary engine that implements multi-layered cell based analysis. Modular systems support dynamic computing that use a graphical configuration engine to reach more people in a research modality.

Full spectrum research and information services, including market reports, customized research, and customer interviewing are available, reports and research are positioned to provide strategic value to industry participants, strategic planners, and product managers.

New systems combine sales tools and independent industry analysis, seeking to leverage the expertise of the sales force and combine it with the skepticism of the analysts to provide accurate return on investment analysis.

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

Table Of Contents

MidIRSensorsExecutiveSummary

Mid-Infrared(IR)LaserSensorSystems

Mid-Infrared(IR)LaserSensorsAreAbleTo
MeasureChangeInDeviceCondition,Chemistry,OrTemperature
TurnkeyMid-InfraredLaserSensorSystemsAreBasedOnTechnologyThatGoesFrom3-12m
MidIRSensorMarketDrivingForces
MidIRSensorMarketShares
MidIRSensorMarketForecasts

1.MidIRSensorMarketDescriptionandMarketDynamics
1.1.InfraredSpectroscopy
1.1.1.FTIRSpectroscopyUsedToEstablishPurityOfChemicalCompounds
1.1.2.ApplicationsofInfraredSensingThermopiles
1.1.3.PreventiveandPredictiveMaintenance
1.1.4.ResidentialControlSystems
1.1.5.WhiteGoods(HomeAppliances)
1.1.6.MedicalandHealth
1.1.7.IndustrialProcessControl
1.1.8.SecurityandSurveillance
1.1.9.Mid-InfraredSensorApplicationsDiscussion
1.1.10.IBMIntegratedProductChangeManagement
1.2.MidIRSensors
1.2.1.PositionedToProvideWavelengthTunabilityAndHighOpticalPower
1.2.2.ECqcLExpressedAsAQCSemiconductorChip
1.2.3.AdvancesOfMid-InfraredBasedTraceGasSensor
1.3.SemiconductorDiodeLasersOperatingAtMidwave-Infrared(Mid-IR)Wavelengths
1.4.InfraredSemiconductorLasers
1.4.1.TestApplicationsForMidIRSensors
1.5.SmartSensorsReplaceExpensiveBuildingControlSystems
1.5.1.BuildingControlStandardization
1.6.BiomedicalAndChemicalMid-IRSprBasedSensor
1.6.1.DevelopmentOfMid-InfraredSurfacePlasmon
1.6.2.SensorsUtilizingSurfacePlasmonResonance(SPR)
1.7.MiniaturizedMid-InfraredSensorTechnologiesTrends
1.7.1.MidIRWaveguides
1.7.2.MiniaturizedIRGasSensors
1.8.EmergingNewFieldsofMidIRSensorApplicationAndOutlook
1.9.Sol-Gel-CoatedMid-InfraredFiber-OpticSensors
1.10.MagneticNanoparticleMid-InfraredPathogenSensorforFoodMatrixes

2.MidIRSensorsMarketSharesandMarketForecasts
2.1.Mid-Infrared(IR)LaserSensorSystems
2.1.1.Mid-Infrared(IR)LaserSensorsAreAbleToMeasureChangeInDeviceCondition,Chemistry,OrTemperature
2.1.2.TurnkeyMid-InfraredLaserSensorSystemsAreBasedOnTechnologyThatGoesFrom3-12m
2.1.3.MidIRSensorMarketDrivingForces
2.2.MidIRSensorMarketShares
2.2.1.FLIRSystemsMulti-SensorMissionEquipment
2.2.2.FLIRMidIRSensors
2.2.3.FLIRBuildingInspection
2.2.4.FLIRInfraredDetectorDesignManufacturing
2.2.5.FLIRSensingMaterials
2.2.6.SenseAir
2.2.7.SenseAirCarbonDioxideSensors
2.2.8.SenseairTest&MeasurementCarbonDioxideSensors
2.2.9.SenseAir(Non-dispersiveInfra-Red)Technology
2.2.10.StructuredMaterialsIndustries
2.2.11.DaylightSolutionsFTIRSpectroscopy
2.2.12.DaylightSolutionsBroadlyTunable,Room-Temperature,Mid-IRLaser
2.2.13.Sofradir
2.2.14.Sofradir
2.2.15.Sofradir
2.2.16.JonDeTech
2.2.17.MaxionTechnologies
2.2.18.ThermoFischerScientific/NovaWaveTechnologies
2.2.19.ThermoFischerScientific/NovaWave
2.2.20.PowerTechnologyQuantum-CascadeMidIRLasers
2.2.21.Agiltron
2.2.22.Aerocrine
2.2.23.Bosch
2.2.24.BlockEngineering
2.2.25.II-VIIncorporated(NASDAQ:IIVI)
2.2.26.MIRTHECenter
2.2.27.InfraredFiberSystemsInfraredTransmittingFibersMedicalMarket
2.2.28.MSquaredNext-GenerationBio-MedicalLasersFirefly-IR
2.2.29.RaytheonandLockheedMarketForMid-InfraredLasers
2.2.30.MarketConsolidatioonofMidIRSensorCompanies
2.3.MidIRSensorMarketForecasts
2.3.1.Military/Airline/Space/DefenseMidInfrared(IR)SensorsMarketForecasts
2.3.2.SmartBuildingMidInfrared(IR)SensorMarkets
2.3.3.FLIRBuildingInspection
2.3.4.MidIRsensorsSmartGridandSmartBuildingMarketForecasts
2.3.5.SensorsandAutomation
2.3.6.ApplicationsandBenefits
2.3.7.MIDIRSensorAnalysis
2.3.8.MilitaryMidIRSensorMarketForecasts
2.3.9.HomelandSecurityMidIRSensors
2.3.10.LawEnforcementMidIRSensorMarketForecasts,
2.3.11.SmartElectricalGridMovestoElectronicsandSensorsfromPurelyMechanicalInfrastructure
2.3.12.CarbonDioxideGasSensing
2.3.13.SmartGridNetworking
2.3.14.HealthcareMidIRSensorBreathAnalysisMarketForecasts
2.3.15.MidInfraredIRSensorTechnologiesBasisForIRSensing
2.3.16.NanoparticlesTheBaseForMidIRSensorEvolution
2.3.17.MiniaturizationSignificantForTheDevelopmentOfMidIRApplications
2.4.MidIRSensorMarketOpportunityOverview
2.4.1.MolecularResponsesAcrosstheMIRSpectrum
2.4.2.TechnologyOptionsAvailableinMidIR
2.4.3.DiagramsToIllustrateTheTechnologies
2.4.4.ComparisonofTechnologyOptions
2.4.5.Products,InWhichMIRSensorsAreActuallyDeployed
2.4.6.MarketTrends&KeyCompanies
2.4.7.KeyApplications/ProductsUsedByTheMilitary
2.4.8.PotentialTechnologiesandApplicationsofMIRSensors
2.4.9.KeyDevelopmentsAreRequiredToMakeThePotentialApplicationsIntoRealMarkets
2.4.10.MarketSegmentAnalysis
2.4.11.CharacteristicsRequired
2.4.12.BuildingaRobustDataSensorNetworkIntegrationLayer
2.5.SmarterPlanetMarketSharesandForecasts
2.5.1.IBMImperativesForASmarterPlanet
2.5.2.IBMPositionsToSupportSensorNetworks
2.5.3.IBMJazz.net
2.5.4.SmarterPlanetMarketForecasts
2.5.5.SmarterPlanetSoftwareMarketIndustrySegmentForecasts
2.5.6.SmarterPlanetMarketSegmentForecasts
2.5.7.LinkBetweenSOAandMIRsensors
2.5.8.SOAUsedtoConnectMidIRSensorInformationtoAnalyticalSoftware
2.5.9.ServicesOrientedArchitecture(SOA)MarketDrivingForces
2.5.1.AdvantagesOfferedBySOA
2.5.2.ServicesOrientedArchitectureSOAMarketShares
2.5.3.IBMSOADominatestheIndustry
2.5.4.BuildingaRobustDataSensorNetworkIntegrationLayer
2.5.5.SOANetworkSensorMarketSegment
2.5.6.MidIRSensorEnabledDeviceMarketDrivingForces
2.5.7.SOAMarketShares
2.6.MidIRSensorSamplePrices
2.6.1.SenseAirRNDIR(Non-dispersiveInfra-Red)Technology
2.6.2.MIRTHEPrototypeQCLaserBasedSensors
2.6.3.JonDeTech
2.6.4.Aerocrine
2.7.MidIRSensorRegionalShipments

3.MidIRSensorsProductDescription
3.1.FLIR
3.1.1.FLIRBuildingInspection
3.1.2.FLIRGasDetection
3.1.3.FLIREmergingMarkets
3.1.4.FLIRTechnology
3.1.5.FLIRSystemDesignandIntegration
3.1.6.FLIRSensingMaterials
3.1.7.FLIRLasersandLaserComponents
3.1.8.FLIRTacticalPlatforms
3.1.9.FLIRTauOutputsNTSCVideo
3.1.10.FLIRMidIRSensors
3.1.11.FLIRGovernmentSystemsAirborneMEP
3.1.12.FLIRGovernmentSystemsAirborne-Talon
3.1.13.FLIRGovernmentSystemsUnmanned-StarSAFIREQWIP
3.1.14.FLIRGovernmentSystemsUnmanned-StarSAFIREIII
3.1.15.FLIRGovernmentSystemsUnmannedTacFLIRII
3.1.16.FLIRGovernmentSystems-Products-Maritime-StarSAFIREIII
3.1.17.FLIRGovernmentSystems-Products-Maritime-SeaFLIRII
3.1.18.FLIRGovernmentSystems-Products-Land-RWSS
3.1.19.FLIRGovernmentSystems-Products-Land-WideEyeII
3.1.20.FLIRGovernmentSystemsForceProtection
3.1.21.FLIREO/IR
3.2.DaylightSolutions
3.2.1.DaylightSolutionsLasersForGasSensingInstrumentation
3.2.2.DaylightSolutionsMid-IRHgCdTeDetectors
3.2.3.DaylightSolutionsThermalLaserPointers
3.2.4.DaylightSolutionsTunableLaser
3.2.5.DaylightSolutionsBroadlyTunable,Room-Temperature,Mid-IRLaser
3.2.6.DaylightSolutionsMid-IR
3.2.7.DaylightSolutionsFixedWavelengthPulsedandCWMid-InfraredLasers
3.2.8.DaylightSolutionsMid-IRHgCdTeDetectors
3.2.9.DaylightSolutionsRoom-Temperature,Low-NoiseAmplifiedMCTDetectorCoreTechnology
3.2.10.DaylightSolutionsDigitalObjectIdentifier
3.2.11.PowerTechnologyApplications
3.2.12.DaylightSolutionsPowerTechnologySensorsIntegratedWithWirelessCapability
3.2.13.DaylightSolutionsPowerTechnologyECqcLUsedForIlluminationApplications
3.3.SenseAir
3.3.1.SenseairCarbonDioxide
3.3.2.SenseairTest&MeasurementCarbonDioxideSensors
3.3.3.SenseairTemperatureProportionalToCarbonDioxideLevel
3.3.4.SenseAirCollaboratesWithVentilationSystemsSuppliers
3.3.5.SenseAirMeasurementPlatformHasIntelligence
3.3.6.SenseAirCarbonDioxideSensors
3.3.7.SenseAirhasCollaboratedWithAutolivDevelopmentandHokInstrumentinDevelopingTheNextGenerationOfDriverAlcoholDetectionSystems
3.4.SensorSwitchOccupancySensorProducts
3.4.1.SensorSwitchTechnologyEngineeringDrivenCompany
3.4.2.SensorSwitchPassiveInfrared
3.5.StructuredMaterialsIndustries
3.5.1.StructuredMaterialsIndustriesSpinCVDJMetalOrganicChemicalVaporDeposition
3.6.BlockEngineeringQuantumCascadeLaserProducts
3.6.1.BlockEngineeringQuantumCascadeLaser(QCL)LaserScan™
3.6.2.BlockEngineeringQuantumCascadeLaser(QCL)LaserScope™
3.7.Sofradir
3.7.1.SofradirEPSILONMW
3.7.2.SofradirROICModes:
3.8.EkipsTechnologies
3.8.1.EkipsTechnologiesBreathmeter
3.8.2.EkipsTechnologiesLasers
3.8.3.EkipsTechnologiesLaserSpectrometers
3.8.4.EkipsTechnologiesMid-InfraredLasers
3.8.5.EkipsTechnologiesChallengeInQuantifyingChemicalMolecules
3.9.JonDeTechAB
3.9.1.JonDeTechABApplicationsofInfraredSensingThermopiles
3.9.2.JonDeTechABPreventiveandPredictiveMaintenance
3.9.3.JonDeTechThermopileProducts
3.9.4.JonDeTechSurfaceMountPlasticThermopiles
3.9.5.JonDeTechThermopiles
3.9.6.JonDeTechHorizontalThermocouple
3.9.7.JonDeTechAdvantageOfNanotechnologyVerticalThermocouple
3.10.MicropeltEnergyHarvesting:
3.10.1.MicropeltTwoMicroThermogeneratorsInSeries
3.10.2.MicropeltThermoharvester
3.11.EnOcean
3.11.1.EnOceanECT310-ThermoEnergyHarvesting
3.11.2.EnOceanEnergyHarvestingWirelessSensorSolutions
3.12.Agiltron
3.12.1.AgiltronInfraredDetectorProducts
3.12.2.AgiltronLeadSulfideInfraredDetectorArray
3.12.3.AgiltronLeadSelenideInfraredDetectors
3.12.4.AgiltronLeadSelenideInfrared(Pbse)DetectorArray
3.13.MirtheMidIRSensorBreathAnalyzers
3.13.1.MirtheEngineeredSystemsforMid-IRLaserAbsorptionSpectroscopy
3.13.2.MirtheStrategic3-LevelFramework
3.14.CascadeTechnologies
3.14.1.CascadeTechnologiesCT2100-OnStackMultigasAnalyser
3.14.2.CascadeTechnologiesCT3400-ExtractiveMultigasAnalyser
3.14.3.CascadeTechnologiesRevolutionaryTechnology
3.14.4.CascadeTechnologyImplementation
3.15.PhysicalSciences/Maxion
3.15.1.MaxionTechnologiesInfraredSemiconductorLasers
3.15.2.MaxionTechnologiesTurn-KeyMid-IRLaserSystems
3.15.3.MaxionTechnologiesTurn-KeyMid-IRLaserQuantumCascade(QC)andInterbandCascade(IC)Sensors
3.15.4.MaxionDistributedFeedback(DFB)Single-ModeandFabry-Perot(FP)Multi-ModeLasers
3.15.5.MaxionC-MountandNS-MountLasers
3.16.VIASPACEIonfinity
3.16.1.VIASPACEIonfinitySoftIonizationMembrane
3.17.PowerTechnologyQuantum-CascadeLasers
3.17.1.PowerTechnologyQuantum-CascadeLasersBlue,Violet,&UVDiodeLasers
3.17.2.PowerTechnologyInfraredViewingDevices
3.17.3.PowerTechnologyLaserModulesforOEM
3.18.MSquaredNext-GenerationBio-MedicalLasers
3.18.1.MSquaredLasersFirefly-IR
3.18.2.MSquaredLasersFirefly-THz
3.18.3.MSquaredFirefly-THz:Compact,WidelyTunable,PulsedTerahertzLaserSource
3.18.4.MSquaredLasersProductFamilies
3.18.5.MSquaredICE-BLOC®PhotonicControllers
3.18.6.MSquaredLaserSystems
3.18.7.MSquaredDependableInnovation
3.18.8.MSquaredSolsTiS™:Ultracompact,WidelyTunable,NarrowLinewidthCWTi:SapphireLaser
3.19.ThermoFischerScientific/NovaWaveTechnologies
3.19.1.NASAApplicationsForCompactUVLaser-BasedSensorInstrument
3.19.2.NovawaveTechnologyMid-InfraredLaserSourceReal-time,MultispeciesGreenhouseGasSensor
3.19.3.NovawaveTechnologyCanaryinaBeamLine
3.19.4.NovawaveTechnologyQuasi-Phase-MatchedDFGLasersforSensing
3.20.GESensors
3.20.1.GEWirelessSensorNetworks
3.20.2.GEApplicationsforWirelessSensorNetworks
3.21.PNNLElectronicsandSystemsIntegration
3.22.Hamamatsu
3.22.1.HamamatsuInfraredDetector
3.22.2.HamamatsuQCLforContinuousWaveOperationAtRoomTemperature
3.22.3.HamamatsuLaser
3.23.AdTechOptics
3.24.OptoSolutions
3.24.1.OptoSolutions-IRPhotonics
3.25.SentinelPhotonics
3.26.ILXLightwave
3.27.Aerocrine

4.MidIRSensorTechnology
4.1.InfraredTechnologyOverview
4.1.1.DaylightSolutionsCoreTechnology
4.2.Mid-infrared(mid-IR)LaserSpectroscopy
4.2.1.ApplicationofInfraredLaserstoNanosecondTime-ResolvedCondensed-PhaseSamples
4.3.RemoteDetectionOfMines
4.4.Thermopiles
4.4.1.JonDeTech:VerticalVS.HorizontalThermopileLeadConfiguration
4.5.NanoparticleDispersions
4.5.1.AqueousDispersions
4.5.2.JonDeTechsThermopilesBasedOnNanotechnology
4.5.3.NanotechnolgyParticleSizeInTheRangeOf1-100Nanometers
4.5.4.Nanoparticles
4.5.5.SiliconInABatterySwellsAsItAbsorbsLithiumAtoms
4.5.6.DifferentShapesOfTheSameMaterialCreateDifferentCharacteristics
4.5.7.OpticalPropertiesIntegratedIntoNewMidIRSensorTechnology
4.6.MidIRLaserLaserEmitsANarrowRangeOfWavelengths
4.6.1.InterbandCascadeLaser(ICL)BasedSpectroscopicTrace-GasSensorProvidesForSimultaneousDetectionOfTwoAtmosphericTraceGases
4.6.2.NarrowBandGapSemiconductorLaserDiodes
4.7.IBMMicroscope100MillionTimesFinerResolutionThanCurrentMRI
4.7.1.IBMResearch
4.7.2.TechnologicalTrendsinMicroscopy
4.8.BatteryTechnologyforMidIRSensors
4.8.1.BatteryChemistriesTechnology
4.9.BreathAnalyzersDetectDisease
4.10.ImprovingBiomaterialsForMedicalImplantApplications
4.10.1.BioactiveMaterials
4.10.2.FormingAChemicalBondWithBone
4.10.3.BioactivityIncreasedThroughSurfaceModification
4.10.4.BiofilmsMultilayeredColoniesOfBacteria
4.10.5.BiofilmFormation
4.10.6.BiofilmsAsAMajorContributorToChronicWounds
4.10.7.AcuteorChronicInfectioninSomeBiomaterialApplications
4.10.8.BiomaterialsResearch
4.11.QCTechnology
4.11.1.ComponentsofanECqcL
4.12.SchematicofMid-InfraredTraceGasSensor
4.13.Mid-IRSensorsStandards
4.14.DrivingForcesForBuildingAutomation
4.15.NearIRNightVisionSensors
4.15.1.SensorBasedThreatDetection
4.16.Mid-IRNon-InvasiveMedicalSystems
4.17.UniversityofOklahomaHigh-TechBreathTest
4.17.1.NanotechnologyImprovesLaserPerformance
4.17.2.NanotechnologyBreathAnalyzerForKidneyFailure
4.18.PhysicalVaporNanoparticleSynthesis
4.18.1.NanophaseVaporDevelopmentProcess
4.18.2.NanoparticleCoatings-DiscreteParticleEncapsulation
4.18.3.NanoparticleVaporOrganicDispersions
4.19.MIRTHERoadmap
4.19.1.NearIRLaserSensors:

5.MidInfrared(IR)SensorsCompanyProfiles
5.1.AdTechoptics
5.2.Aerocrine
5.3.AlpesLasers/ALTechnologies
5.3.1.Laserdiodes
5.4.BlockEngineering
5.4.1.BlockPositionedToExpandItsCommercialMarkets
5.4.2.BlockEngineeringContracts
5.4.3.BlockEngineeringLaserScan™Analyzer
5.4.4.BlockEngineering:DeveloperOfHighPerformanceQCLandFT-IRSpectrometers
5.4.5.BlockMEMSReceives$4.5MillionDevelopmentContractforMEMSGasSensor
5.5.Bosch
5.5.1.BoschBuildingAutomation
5.5.2.BoschCarbonDioxideVentilationIRSensors
5.5.3.BoschMotionDetectors
5.5.4.BoschSmartSensorsSimplify
5.6.Cymbet
5.6.1.CymbetTeam:
5.6.2.CymbetInvestors:
5.6.3.CymbetPartners,SalesandDistribution:
5.6.4.CymbetManufacturing:
5.6.5.CymbettoOpenWorld'sHighestVolumeSolid-StateBatteryManufacturingFacility
5.6.6.CymbetPartneringwithX-FAB
5.6.7.Cymbet/X-FAB,Inc.
5.6.8.CymbetExpandinginMinnesota
5.6.9.Cymbet/LEDA
5.6.10.DistributionAgreementEnerChip™Eco-friendlySolidStateBatteries
5.6.11.CymbetEVAL-09UtilizesHarnessingAmbientEnergy
5.6.12.CymbetSecures$31MillioninPrivateFinancing
5.7.DaylightSolutions
5.7.1.$15MillionEquityforDaylightIncludesNorthropGrummanFunds
5.7.2.DaylightSolutionsManufacturingExpansion
5.7.3.DaylightSolutionsCollaborations
5.8.DigiInternational
5.8.1.DigiInternationalRevenue
5.8.2.DigiInternationalBusinessHighlights:
5.9.DirectedVaporTechnology
5.9.1.DirectedVaporDepositionNextGenerationCoatingTechnology
5.10.DustNetworks
5.10.1.DustNetworksSelf-PoweredIPV6WirelessSensorNetwork
5.11.EnOceanGmbH
5.11.1.EnOceanTechnology
5.12.EkipsTechnologies
5.13.ElliotScientific
5.14.Finmeccanica
5.14.1.Finmeccanica/SELEXGalileo
5.14.2.SELEXGalileoInc.
5.14.3.SELEXGalileoTechnologies
5.15.FerroSolutions
5.15.1.FerroSolutions
5.16.FlexibleElectronicsConcepts
5.17.FLIR
5.17.1.FLIRTraining
5.17.2.FLIRSalesandDistribution
5.17.3.FLIRSensorSystems
5.17.4.FLIRSystemsThermographyProducts
5.17.5.FLIRSystemsInfraredTechnology
5.17.6.FLIRSystems
5.17.7.FLIRSystems
5.17.8.FLIRSystemsThirdQuarter2011FinancialResults
5.17.9.FLIRSystems
5.17.10.FLIRSystems,INC.Revenue
5.17.11.FLIRSystemsSegmentOperatingResults
5.17.12.FLIRSystemsThermalVisionandMeasurement
5.17.13.FLIRSystemsRaymarine
5.17.14.FLIRSystemsSurveillance
5.17.15.FLIRSystemsDetectionRevenue
5.17.16.FLIRSystemsIntegratedSystemsRevenue
5.17.17.FLIRSystemsCompetitiveStrengths
5.17.18.FLIRSystemsCommercialOperatingModel
5.17.19.FLIRSystemsVerticallyIntegratedManufacturing
5.17.20.FLIRSystemsIndustry-LeadingMarketPosition
5.17.21.FLIRSystemsBroadProductLine
5.17.22.FLIRSystemsInternally-FundedInnovation
5.17.23.FLIRSystemsDiverseCustomerBase
5.17.24.FLIRSystemsGlobalDistributionCapabilities
5.17.25.FLIRSystemsGrowthStrategies
5.17.26.FLIRSystemsContinuallyReducesCosts
5.17.27.FLIRSystemsExpandsGlobalReach
5.17.28.FLIRSystemsBuildsApplicationAwarenessandBrand
5.17.29.FLIRSystemsComplementCoreCompetencieswithStrategicAcquisitions
5.17.30.FLIRAcquiresAeriusPhotonics,LLC
5.17.31.FLIRRadiometry
5.17.32.FLIRPredictiveMaintenance
5.17.33.FLIRResearch&DevelopmentApplications
5.17.34.FLIRManufacturingProcessControl
5.17.35.FLIRMechanicalEngineering
5.17.36.FLIRInfraredDetectorDesignManufacturing
5.17.37.FLIRIntegratedCircuitsandElectronicDesign
5.17.38.FLIRSoftwareDevelopment
5.17.39.FLIRMotionControlSystems
5.17.40.FLIROpticalDesign,FabricationandCoating
5.17.41.FLIRMicro-Coolers
5.18.GESensors
5.18.1.GEWirelessSensorNetworks
5.18.2.GEApplicationsforWirelessSensorNetworks
5.19.Hamamatsu
5.19.1.HamamatsuElectronTubeDivision
5.19.2.HamamatsuSolidStateDivision
5.19.3.HamamatsuSystemsDivision
5.19.4.HamamatsuLaserGroup
5.19.5.HamamatsuOpticalCommunicationGroup
5.19.6.HamamatsuCentralResearchLaboratory
5.19.7.HamamatsuTsukubaResearchLaboratory
5.19.8.HamamatsuSportsPhotonicsLaboratory
5.19.9.HamamatsuPETCenter
5.19.10.HamamatsuRevenue
5.20.II-VI.incorporated/MarlowIndustries
5.20.1.II-VI.Incorporated(NASDAQ:IIVI)
5.20.2.II-VI.Revenue
5.20.3.II-VI./AegisLightwave
5.20.4.II-VI.Incorporated/MarlowInfraredAndNear-InfraredLaserOpticalElements
5.20.5.II-VI.incorporated/MarlowProductionOperations
5.20.6.II-VI.incorporated/MarlowPrimaryProducts
5.20.7.II-VI.incorporated/MarlowMarkets
5.20.8.II-VI.InfraredOpticsMarket
5.20.9.II-VI.One-MicronLaserMarket.
5.20.10.II-VI.Near-InfraredOpticsMarket.
5.20.11.II-VI.ThermoelectricMarket
5.21.ILXLightwave
5.21.1.ILXLightwaveProductInnovation
5.22.IPGPhotonics
5.22.1.IPGPhotonicsRevenue
5.23.JohnsonControlsSensorProducts
5.23.1.JohnsonControlsValveProducts
5.24.JonDeTech
5.25.KiddeProductsLimited/AirsenseTechnology
5.26.Lockheed-Martin
5.26.1.LockheedMartinCorp
5.26.2.LockheedMartinCustomerBase:
5.26.3.LockheedMartinOrganization:
5.26.4.LockheedMartinFinancialPerformance:
5.26.5.LockheedMartinReceives$260MillionM-TADS/PNVSProductionContract
5.26.6.LockheedMartinF-35Electro-OpticalTargetingSystem
5.26.7.LockheedMartin
5.26.8.LockheedMartinDefenseDepartmentPositioning
5.26.9.USNavyawardsLockheedMartincontracttoPioneerTechnologyToEfficientlyManageGroupsOfUnmannedVehicles
5.27.MSquared
5.27.1.MSquaredNext-GenerationBio-MedicalLasers
5.27.2.MSquaredLasersFirefly-IR
5.27.3.MSquaredLasersFirefly-THz
5.27.4.MSquaredFirefly-THz:Compact,WidelyTunable,PulsedTerahertzLaserSource
5.27.5.MSquaredLasersProductFamilies
5.27.6MSquaredICE-BLOC®PhotonicControllers
5.27.7.MSquaredLaserSystems
5.27.8.MSquaredDependableInnovation
5.27.9.MSquaredSolsTiS™:Ultracompact,WidelyTunable,NarrowLinewidthCWTi:SapphireLaser
5.28.MIRTHE(Mid-InfraredTechnologiesforHealthandtheEnvironment)NationalScienceFoundationEngineeringResearchCenter
5.29.MirtheMidIRSensorBreathAnalyzers
5.29.1.MirtheEngineeredSystemsforMid-IRLaserAbsorptionSpectroscopy
5.29.2.MirtheStrategic5-LevelFramework
5.30.NanophaseTechnologies
5.30.1.NanomaterialsTechnologyEnergy
5.30.2.NanomaterialsTechnologyAluminumOxide
5.30.3.NanomaterialsTechnology
5.30.4.NanomaterialsTechnologyThirdQuarter2011FinancialResults
5.31.OptoSolutions
5.32.PhysicalSciencesInc./MaxionTechnologies
5.32.1.MaxionTechnologies
5.32.2.MaxionandtheUniversityofMaryland,BaltimoreCounty
5.33.PNNLElectronicsandSystemsIntegration
5.34.PowerTechnology
5.35.Raytheon
5.35.1.RaytheonInnovation
5.35.2.RaytheonIntegratedDefenseSystems(IDS)
5.35.3.RaytheonIntelligenceandInformationSystems(IIS)
5.35.4.RaytheonNetworkCentricSystems(NCS)
5.35.5.RaytheonTechnicalServicesCompany(RTSC)
5.35.6.RaytheonMissileSystems(RMS)
5.35.7.RaytheonSpaceandAirborneSystems(SAS)
5.36.SenseAir
5.37.SensorSwitch
5.38.SentinelPhotonics
5.39.Sofradir
5.39.1.Sofradir:LeaderincooledanduncooledIRdetectors
5.39.2.SofradirSubsidiaryULISSAS
5.39.3.Sofradir/Electrophysics
5.39.4.SofradirInfraredCompany
5.39.5.Sofradirawardedmulti-millionEuroMUSIS/CSOInfraredcontract
5.40.StructuredMaterialsIndustries
5.40.1.StructuredMaterialsSMIProducts
5.40.2.StructuredMaterialsSMICustomerAdvantage
5.41.ThermoFischerScientific/NovaWaveTechnologies
5.41.1.ThermoFisherScientificRevenue
5.41.2.ThermoFisherScientificAcquiredLaser-BasedGasDetectionCompanyNovaWaveTechnologies
5.41.3.NovaWaveSelectedforCPPParticipation
5.41.4.ThermoFischerScientific/NovaWaveTechnologies
5.42.VIASPACE/Ionfinity
5.42.1.VIASPACE/IonfinityProductFocus
5.42.2.VIASPACE/IonfinityNext-GenerationChemicalAnalysis

List Of Tables and Figures

MidInfrared(IR)SensorExecutiveSummary
TableES-1:MidIRSensorMarketDrivingForces
TableES-2:TechnologiesImpactingMidIRSensorMarket
FigureES-3:MidInfrared(IR)SensorMarketShares,Dollars,FirstThreeQuarters2011
FigureES-4:MidInfrared(IR)SensorShipments,MarketForecasts,Dollars,Worldwide,2012-2018
MidInfrared(IR)SensorMarketDescriptionandMarketDynamics
Table1-1:IBMIntegratedProductChangeManagementMarketDrivingForces
Figure1-2:IBMDefinitionofSmarterComputing
Figure1-3:Interband-Cascade(IC)Lasers
Table1-4:CommercializationOfMidAndLong-Wavelength(3-12Microns)InfraredSemiconductorLasers
Table1-4(Continued):CommercializationOfMidAndLong-Wavelength(3-12Microns)InfraredSemiconductorLasers
Table1-5:MidIRSensingSystemsComponents
Table1-6:ApplicationsForMidIRSensing
Table1-7:Mid-InfraredFiber-OpticSensorCharacteristics
MidInfrared(IR)SensorMarketSharesandMarketForecasts
Table2-1:MidIRSensorMarketDrivingForces
Table2-2:TechnologiesImpactingMidIRSensorMarket
Figure2-3:MidInfrared(IR)SensorMarketShares,Dollars,FirstThreeQuarters2011
Figure2-4:MidInfrared(IR)SensorMarketShares,Dollars,Worldwide,FirstThreeQuarters2011
Figure2-5:SenseairNDIR(Non-dispersiveInfra-Red)technology
Table2-6:KeyFeaturesOfTheJonDeTechThermopile
Table2-7:JonDeTechThermopileSensorFlexibility
Table2-8:JonDeTechThermopileSensorCharacteristics
Figure2-9:SurfaceMountPlasticThermopileLayers
Figure2-10:SurfaceMountPlasticThermopile
Figure2-11:SurfaceMountPlasticThermopile
Table2-12:MaxionTechnologiesMidIRSensorLaserproductsRevenueBaseAreas
Figure2-13:MidInfrared(IR)SensorShipments,MarketForecasts,Dollars,Worldwide,2012-2018
Table2-14:MidIRSensorTotalMarketDollars,Worldwide,2012-2018
Figure2-15:MidInfrared(IR)SensorShipments,Units,Worldwide,MarketForecasts,2012-2018
Figure2-16:Military/Airline/Space/DefenseMidInfrared(IR)SensorsShipmentsMarketForecasts,Dollars,Worldwide,2012-2018
Table2-17:SmartBuildingMidInfrared(IR)SensorUses
Table2-18:SmartBuildingMidInfrared(IR)SensorMarketSegments
Figure2-19:SmartBuildingMidInfrared(IR)SensorShipmentsMarketForecasts,Worldwide,Dollars,2012-2018
Figure2-20:SmartCityMidIRSensorShipmentsMarketForecasts,Dollars,Worldwide,2012-2018
Figure2-21:MIRTHECompoundandVibrationalAbsorptionAnalysis
Figure2-22:MirtheAssessmentofQCLaserBasedSensorChallenges
Table2-23:PowerTechnologyMidIRSensorApplications
Table2-24:TechnologyMidIRSensorApplications
Table2-25:MidIRTechnologyQuantum-CascadeLasersFeatures
Figurev2-26:DaylightSolutions'CoreTechnology
Figure2-27:SenseairCarbonDioxideSensors
Figure2-28:VerticalHeatFlowModelOfJondetechThermopiles
Figure2-29:JondetechThermopileInfraredRadiationTetectorsGenerationFlex
Figure2-30:MassSpectrometryvs.MirtheMidIRSensorsForToMeasuringTraceGasAtPpmOrPpbSensitivity
Table2-31:MidIRSensorMarketSegmentForecasts,Dollars,2012-2018
Figure2-32:MIDInfrared(IR)SensorMarketIndustrySegments,Percent,Worldwide,2012-2018
Table2-33:MidIRSensorMarketIndustrySegments,Units,Worldwide,2012-2018
Figure2-34:SmarterPlanetMarketShares,Dollars,Worldwide,FirstThreeQuarters2011
Table2-35:SmarterPlanetMarketShares,Dollars,Worldwide,FirstThreeQuarters2011
Figure2-36:IBMImperativesForASmarterPlanet
Table2-37:IBMPositionsToSupportSensorNetworks
Figure2-38:IBMDescribesSmarterPlantSolutionsImpactonIT
Figure2-39:IBMStrategicVisionforInnovation
Figure2-40:SmartComputingSoftwareModulesMarketForecasts,Dollars,Worldwide,2011-2017
Table2-41:SmarterPlanetSoftwareMarketTotalForecast,Dollars,Worldwide,2011-2017
Table2-42:SmarterPlanetSoftwareMarketIndustrySegmentForecasts,Dollars,Worldwide,2011-2017
Table2-43:SmarterPlanetSoftwareMarketIndustrySegmentForecasts,Percent,Worldwide,2011-2017
Table2-44:TypesofInternetConnectedDevicesLikelytobeUsingMidIRSensorsThatNeedSOASoftwareToAchieveConnectivity
Table2-45:AdvantagesOfferedbySOA
Table2-46:ServicesOrientedArchitectureSOAMarketShares,Dollars,Worldwide,2010
Table2-47:ServicesOrientedArchitectureSOAApplicationMarketShares,Dollars,Worldwide,2010
Table2-48:Servicesorientedarchitecture(SOA)benefits
Table2-49:ServicesOrientedArchitectureSOAMarketDrivingForces
Figure2-50:MIRTHEMassSpectroscopyPricingAssessment
Figure2-51:MIRTHESensorPricePerUnitAnalysis
Figure2-52:MidInfrared(IR)SensorRegionalMarketSegments,Dollars,FirstThreeQuarters2011
Table2-53:MidIRSensorRegionalMarketSegments,FirstThreeQuarters2011
MidInfrared(IR)SensorProductDescription
Table3-1:FLIRThermalImagingApplications
Table3-2:FLIRTechnology
Table3-3:FLIRTechnologySystems
Figure3-4:FLIRCommercialVisionSystems
Table3-5:KeyFeaturesofFLIRTau640Camera
Figure3-6:FLIRScoutThermalNightVision
Figure3-7:FLIRInfraredCameras
Table3-8:FLIRThermalImagingTechnology--CBRNE,Cameras,andIndustrial
Table3-9:FLIRThermalImagingTechnology-Surveillance,Police,andScience
Figure3-10:FLIRUnmannedLaserTargetingSystems
Figure3-11:FLIRMEPReconnaissance,Surveillance,TargetAcquisitionLaserDesignatorMidIRSensor
Table3-12:DaylightSolutionsMidInfraredSensorApplications
Figure3-13:DaylightSolutionsMidIRSensors
Table3-14:DaylightSolutionsMonitoring
Figure3-15:DaylightSolutionsIndustrySpecificSolutions
Table3-16:DaylightSolutionsMidIRDetectorKeyFeatures
Figure3-17:DaylightSolutionsTunableLaserTuning
Figure3-18:DaylightSolutionsNarrowTuning
Table3-19:DaylightSolutionsGaussianBeamProfile
Table3-20:DaylightSolutionsEC-QCLLaserGaussianBeamProfile
Table3-21:DaylightSolutionsTunableMid-IRExternal-CavityCW-MHFLasers
Table3-21(Continued):DaylightSolutionsTunableMid-IRExternal-CavityCW-MHFLasers
Table3-21(Continued):DaylightSolutionsTunableMid-IRExternal-CavityCW-MHFLasers
Figure3-22:DaylightSolutionsMid-IR
Figure3-23:DaylightSolutionsController
Figure3-24:DaylightSolutionsApplications
Figure3-25:DaylightSolutionsLaserhead
Table3-26:DaylightSolutionsTunableMid-IRExternalCavityLasersFeatures
Table3-27:DaylightSolutionsTunableMid-IRExternalCavityLasersAdvantages
Table3-28:DaylightSolutionsProducts
Figure3-29:DaylightSolutionsFixed-WavelengthMid-IRExternal-CavityLasers
Table3-30:DaylightSolutionsFixed-WavelengthMid-IRExternal-CavityLasersKeyFeatures
Table3-31:DaylightSolutionsFixed-WavelengthMid-IRExternal-CavityLasersApplications
Figure3-32:DaylightSolutionsMid-IRHgCdTeDetectors
Table3-33:DaylightSolutionsMid-IRHgCdTeDetectorsKeyFeatures
Table3-34:DaylightSolutionsCoreTechnology
Figure3-35:DaylightSolutions'CoreTechnology
Table3-36:DaylightSolutionsPowerTechnologyMidIRSensorApplications
Table3-36(Continued):DaylightSolutionsPowerTechnologyMidIRSensorApplications
Table3-37:SenseAir®CO2Sensors
Table3-38:SenseAir®CO2EnergySavingIntelligenceAndComfortSensors
Table3-39:SenseAir®CO2ProcessYieldAndEconomicOutcomeSensors
Table3-40:SenseAir®CO2personalsafetySensors
Figure3-41:SenseAirProducts
Figure3-42:SenseairCarbonDioxideSensors
Figure3-43:SenseAirCarbonDioxideSensor
Figure3-44:SenseAirCircuitBoard
Table3-45:SensorSwitchProductHighlights
Figure3-46:SensorSwitchSmartBuildings
Table3-47:SensorSwitchLightingControlsTechnicalServices
Table3-48:SensorSwitchEngineeringAdvances
Figure3-49:BlockEngineeringQuantumCascadeLaser
Table3-50:BlockEngineeringTunableMid-IRSourcesProducts
Figure3-51:BlockEngineeringLaserScopeTargetSize
Table3-52:BlockEngineeringQuantumCascadeLaserProducts
Table3-53:BlockEngineeringStandoffPassiveFTIRSpectroscopyProducts
Table3-54:BlockEngineeringExamplesofLaserScanFunctions:
Table3-55:BlockEngineeringLaserscanProductLineFunctions
Table3-56:BlockEngineeringLaserScopeFunctions:
Table3-57:BlockEngineeringQuantumCascadeLaser(QCL)LaserTune™
Figure3-58:SofradirMidIREPSILONMW384x288
Figure3-59:SofradirIRProducts
Figure3-60:SofradirJetIRProduct
Figure3-61:SofradirVisionIRProduct
Figure3-62:SofradirMarineIRProduct
Figure3-63:SofradirHelicopterIRProduct
Figure3-64:SofradirEPSILONMW384x288
Table3-65:SofradirHand-HeldThermalImagingUAVApplications
Table3-66:SofradirROICModes
Table3-67:SofradirDevelopmentTrendsInCooledInfraredTechnology
Figure3-68:SofradirVEGALW384x288QWIP(25μmpitch)
Figure3-69:EikipsTechnologiesBiomarkersinBreath
Table3-70:EkipsTechnologiesCategoryExamplesOfLaserEmissionSpectra
Figure3-71:JonDeTechABLow-Cost,SurfaceMountThermopiles
Table3-72:JonDeTechABConsumerElectronicsMidIRSensors
Table3-73:JonDeTechABResidentialControlSystemsMidIRSensors
Table3-74:JonDeTech'sTechnologyCompetitiveAdvantages
Figure3-75:JonDeTechABJIRS3Sensor
Table3-76:JonDeTechABKeyFeaturesoftheThermopile
Figure3-77:JonDeTechABJIRS5Sensor
Figure3-78:JonDeTechABClose-upofJIRS5Sensor
Figure3-79:JonDeTechABNanowireSensors
Figure3-80:JonDeTechABLinearArrayofIRSensorsonPolyimideFoil
Table3-81:JonDeTechThermopileApplications
Figure3-82:JonDeTechABVerticalHeatFlowModelOfJondetechThermopiles
Figure3-83:JonDeTechABVerticalHeatFlowModel
Figure3-84:JondetechThermopileInfraredRadiationTetectorsGenerationFlex
Figure3-85:MicropeltThermoharvester
Figure3-86:EnOceanECO100-MotionEnergyHarvesting
Table3-87:EnOceanEnergyHarvestingMotionConverter
Table3-88:EnOceanThermoConverter
Table3-89:EnOceanEnergyConvertersForEnergyHarvestingWirelessApplications
Figure3-90:AgiltronRoomTemperatureAutomatedChemicalProcessing(ACP)Sensors
Figure3-91:AgiltronTypicalRoomTemperatureElectricalCharacteristicsOfAutomatedChemicalProcessing(ACP)
Table3-92:AgiltronResponseofPbSDetectors
Figure3-93:AgiltronInfraredDetectorConfigurations
Figure3-94:AgiltronLeadSulfideInfrared(PbS)DetectorArray
Figure3-95:QuartzResonatorPhotoacousticSensingCell
Figure3-96:MassSpectrometryvs.MirtheMidIRSensorsForToMeasuringTraceGasAtPpmOrPpbSensitivity
Table3-97:MirtheImpactInEnvironmentAndHomelandSecurity:
Table3-98:MirtheImpactInHealth
Table3-99:MirtheImpactInIndustrialOutreach
Figure3-100:Mirthe'sStrategic3-LevelFramework
Figure3-101:CascadeTechnologiesCT2100Analyzer
Table3-102:CascadeTechnologiesCT2100analyzerMeasurements*
Table3-103:CascadeTechnologiesAnalyzers
Figure3-104:CascadeTechnologiesQuantumCascadeLaser(QCL),
Table3-105:CascadeTechnologiesRapidSweepCombinedWithHighDutyCyclesKeyAdvantages
Figure3-106:MaxionLaserProducts
Figure3-107:MaxionProductsSingleModeLasers
Table3-108:IntegrationintoMaxion'sTurn-KeyLaserSystemBenefits
Table3-109:MaxionSingleModeLaserDevicePerformance
Table3-110:MaxionTechnologiesInfraredSemiconductorLaserProductsSolutionsAreas
Figure3-111:MaxionMultimodeLasersHighHeatLoadLaserPackage
Figure3-112:MaxionTurnkeyLaserSystemSingleModeLasers
Figure3-113:MaxionLinearArraysOfICandQCLasers--C-mountandNS-mountLasers
Figure3-114:MaxionLEDinaDewar
Figure3-115:VIASPACEIonfinitySIMIonizesTheSampleWithoutFragmentation
Figure3-116:IonfinityIndustrialProcessControlAndEnvironmentalMonitoring
Table3-117:PowerTechnologyAvailableWavelengths&OutputPowers
Table3-118:PowerTechnologyApplicationsforaninfraredviewer
Table3-119:PowerTechnologyQuantum-CascadeLasersFeatures
Table3-120:PowerTechnologyQuantum-CascadeLasersMechanicalDimensions
Figure3-121:PowerTechnologyTemperatureControlledLaserDiodeModules
Table3-122:PowerTechnologyMidIRSensorApplications
Figure3-123:PowerTechnologyInfraredViewers
Figure3-124:PowerTechnologyMidIRSpecifications
Table3-125:PowerTechnologyInfraredIlluminator
Figure3-126:PowerTechnology.InfraredPhotosensivity
Table3-127:PowerTechnologyNearInfraredViewerPowerDensities
Figure3-128:PowerTechnologyLaserModulesforOEM
Figure3-129:SquaredDevice
Table3-130:SquaredFirefly-IRApplicationsPositioning
Table3-130(Continued):SquaredFirefly-IRApplicationsPositioning
Table3-131:SquaredFirefly-THzfeatures
Figure3-132:NovawaveTechnologyIRIS™1000TunableLaserSystem
Table3-133:NovawaveTechnologySystemFeatures
Figure3-134:GEWirelessSensorNetworks
Table3-135:PNNLElectronicsProducts
Table3-136:PNNLSystemIntegration
Figure3-137:HamamatsuInfraredDetector
Figure3-138:HamamatsuInGaAsPhotodiodes
Figure3-139:HamamatsuDetectorsWithSensitivityToWavelengths
Figure3-140:HamamatsuContinuous-WaveQCLForRoomTemperatureOperation
Table3-141:HamamatsuLaserGroupProducts
Figure3-142:OptoSolutionsProducts
Table3-143:OptoSolutions-IRPhotonicsFeaturesandApplications
Figure3-144:ILXLightwaveLaserDiodeInstrumentation
MidInfrared(IR)SensorTechnology
Table4-1:DaylightSolutionsBasicTechnologies
Figure4-2:ThermocoupleLeadStructuresBasedOnNanotechnology
Figure4-3:JonDeTechsNanotechnologyThermopiles
Figure4-4:NanowireBatteryCanHold10TimesTheChargeOfExistingLithium-IonBattery
Table4-5:ComputerizationOfMicroscopicManufacturingProcedureBenefits
Table4-6:BatteryChemistriesAtTheForefrontForMidIRSensors
Figure4-7:BiofilmFormation
Figure4-8:MidIRSpectrumWavenumberandAbsorbance
Figure4-9:Mid-InfraredLightNovelMid-InfraredMaterials
Figure4-10:Mid-InfraredLightSources
Figure4-11:MidIRSensorApplications&Testbeds
Figure4-12:UniversityofOklahomaResearchersAreWorkingOnAHigh-TechBreathTest
Figure4-13:PhysicalVaporNanoparticleSynthesisProcess
Figure4-14:NanophaseTechnologiesOrganicDispersionsInManufacturing
Figure4-15:NanophaseTechnologiesOrganicDispersionsInPolarAndNon-PolarOrganicFluids
MidInfrared(IR)SensorCompanyProfiles
Table5-1:BlockEngineeringLaserScopeIRMicroscopeKeyBenefits&Advantages
Table5-2:BoschBuildingAutomationSensors
Table5-3:BoschBuildingAutomationSensorManagementArchitecture
Figure5-4:DirectedVaporTechnology
Table5-5:FLIRSystemsThermalImagingInfraredCamerasTargetMarkets
Table5-6:FLIRSystemsCommercialVisionApplications
Table5-7:FLIRSystemsSensorApplications
Table5-8:FLIRSystemsSensorUses
Table5-9:FLIRSystemsSensorMarketSegments
Table5-10:FLIRDetectionSystemSensorApplications
Figure5-11:GEWirelessSensorNetworks
Table5-12:II-VISignificantMaterialsCapabilities
Table5-13:II-VISpecificGrowthStrategies:
Table5-14:JohnsonControlsSensors
Figure5-15:JohnsonControlsSensorProducts
Table5-16:JohnsonControlsSensorTypes
Table5-17:JohnsonControlsValveCategories:
Figure5-18:AirsenseSmartBuildingMonitor
Figure5-19:LockheedMartinF35BIn-FlightSTOVLOperations
Figure5-20:LockheedMartinAutonomousUnderwaterVehicles
Figure5-21:LockheedMartinC-139JCargoPlane
Figure5-22:LockheedMartinNextGenerationIdentificationSystems
Figure5-23:LockheedMartinLinkingLegacyRadioWaveformstoAMFJTRS
Figure5-24:MSquaredDevice
Table5-25:MSquaredFirefly-IRApplicationsPositioning
Table5-25(Continued):MSquaredFirefly-IRApplicationsPositioning
Table5-26:MSquaredFirefly-THzfeatures
Figure5-27:QuartzResonatorPhotoacousticSensingCell
Figure5-28:MassSpectrometryvs.MirtheMidIRSensorsForToMeasuringTraceGasAtPpmOrPpbSensitivity
Table5-29:MirtheImpactInEnvironmentAndHomelandSecurity:
Table5-30:MirtheImpactInHealth:
Table5-31:MirtheImpactInIndustrialOutreach:
Figure5-32:Mirthe'sStrategicMulti-levelMidIRSensorFramework
Table5-33:OPTOSolutionsOpto22SystemsMarkets
Table5-34:MaxionTechnologiesLaserProductSegmentPositioning
Table5-35:PacificNorthwestNationalLaboratory(PNNL)Focus
Table5-36:PacificNorthwestNationalLaboratory(PNNL)ElectronicsProducts
Table5-37:PNNLSystemIntegration
Table5-38:PowerTechnologyLaserApplications
Table5-39:SofradirNotableAccomplishments

Published By: WinterGreen Research
Product Code: WinterGreen Research28


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