Inventor
Barrett E. Cole
Inventor
Bloomington, MN, US
Overview
Patents· 98 as inventor
Public. Assignee & technology derived from the patent record. Each patent links to its LexDana page.
G01Jprimary
G01JMeasurement of intensity, velocity, spectral content, polarisation, phase or pulse characteristics of infrared, visible or ultraviolet light28%
G01NInvestigating or analysing materials by determining their chemical or physical properties18%
H10FInorganic semiconductor devices sensitive to infrared radiation, light, electromagnetic radiation of shorter wavelength or corpuscular radiation8%
G02BOptical elements, systems or apparatus6%
H01JElectric discharge tubes or discharge lamps5%
B82YSpecific uses or applications of nanostructures3%
C23CCoating metallic material3%
G01BMeasuring length, thickness or similar linear dimensions3%
H10WGeneric packages, interconnections, connectors or other constructional details of devices covered by class h103%
Y10STechnical subjects covered by former uspc cross-reference art collections [xracs] and digests3%
PatentTitleYear
10,876,897Configurable fail-safe flame detector202010,180,357Multispectral band system20199,976,896Utilizing a quench time to deionize an ultraviolet (UV) sensor tube20189,921,144'Particulate matter detector'20189,733,129'Multispectral band sensor'20179,587,987'Method and device for detection of multiple flame types'20179,574,947'Sensor temperature sensing device'20179,417,124'Utilizing a quench time to deionize an ultraviolet (UV) sensor tube'20169,413,989'Dual band imager'20169,255,847'Thermo-optical array devices and methods of processing thermo-optical array devices'20169,250,135'MWIR sensor for flame detection'20169,228,903'Infrared imager'20168,993,966'Flame sensor integrity monitoring'20158,969,809'Thermo-optical array devices and methods of processing thermo-optical array devices'20158,841,617'Flame detectors and methods of detecting flames'20148,651,737'Sensor temperature sensing device'20148,437,000'Multiple wavelength cavity ring down gas sensor'20138,325,343'Detector for cavity ring-down spectroscopy'20128,314,769'High performance detection pixel'20128,294,008'Carbon nanotube sensor'20128,269,972'Beam intensity detection in a cavity ring down sensor'20128,218,215'Transducer-mirror structure'20128,076,245'MOS low power sensor with sacrificial membrane'20117,955,483'Carbon nanotube-based glucose sensor'20117,918,706'Mesotube burn-in manifold'20117,916,395'Cavity ring-down spectroscopy mirror, and methods of using same'20117,902,534'Cavity ring down system having a common input/output port'20117,893,615'Ultra violet flame sensor with run-on detection'20117,884,938'Multiple beam wide band CRDS cavity sensor and detector'20117,877,862'Weldless mesotube grid holder'20117,871,303'System for filling and venting of run-in gas into vacuum tubes'20117,864,326'Compact gas sensor using high reflectance terahertz mirror and related system and method'20117,786,880'Smoke detector'20107,786,440'Nanowire multispectral imaging array'20107,750,284'Mesotube with header insulator'20107,746,236'Fire detection system and method'20107,663,756'Cavity enhanced photo acoustic gas sensor'20107,656,532'Cavity ring-down spectrometer having mirror isolation'20107,649,189'CRDS mirror for normal incidence fiber optic coupling'20107,628,907'Gas sensor'20097,612,885'Spectroscopy method and apparatus for detecting low concentration gases'20097,586,114'Optical cavity system having an orthogonal input'20097,551,278'Fluid light guide system'20097,531,363'Particle detection using fluorescence'20097,502,106'SERS analyzer'20097,486,398'Groundwater monitoring system and method'20097,470,894'Multi-substrate package assembly'20087,468,515'Ultra violet light sensor'20087,456,412'Insulator for tube having conductive case'20087,391,147'Planar ultra violet light detector'20087,369,242'Cavity ring-down spectrometer for semiconductor processing'20087,329,877'Photoelectrocatalytic sensor for measuring oxidizable impurities in air'20087,329,853'Spectrally tunable detector'20087,329,895'Dual wavelength detector'20087,276,285'Nanotube fabrication basis'20077,242,007'Small-gap light sensor'20077,230,432'Nanotube sensor'20077,196,790'Multiple wavelength spectrometer'20077,170,059'Planar thermal array'20077,145,143'Tunable sensor'20067,145,165'Tunable laser fluid sensor'20067,075,629'High temperature pyrometer'20067,071,566'Multi-substrate package assembly'20067,057,402'Carbon nanotube sensor'20067,048,384'Multiple scene projection system'20067,015,457'Spectrally tunable detector'20066,949,931'Nanotube sensor'20056,919,730'Carbon nanotube sensor'20056,838,306'Infrared detector packaged with improved antireflection element'20056,816,636'Tunable optical filter'20046,627,907'Infrared scene projector with current-mirror control electronics'20036,627,892'Infrared detector packaged with improved antireflection element'20036,621,083'High-absorption wide-band pixel for bolometer arrays'20036,495,865'Microcathode with integrated extractor'20026,495,070'Flexible high performance microbolometer detector material fabricated via controlled ion beam sputter deposition process'20026,354,736'Wide temperature range RTD'20026,322,670'Flexible high performance microbolometer detector material fabricated via controlled ion beam sputter deposition process'20016,313,463'Flexible high performance microbolometer detector material fabricated via controlled ion beam sputter deposition process'20016,287,940'Dual wafer attachment process'20016,238,085'Differential thermal analysis sensor'2001RE037146'Low power infrared scene projector array and method of manufacture'20016,210,494'High temperature ZrN and HfN IR scene projector pixels'20016,097,031'Dual bandwith bolometer'2000RE036706'Microstructure design for high IR sensitivity'20006,046,485'Large area low mass IR pixel having tailored cross section'20005,973,383'High temperature ZrN and HfN IR scene projector pixels'19995,886,249'Micromachined integrated opto-flow gas/liquid sensor'19995,869,749'Micromachined integrated opto-flow gas/liquid sensor'19995,600,148'Low power infrared scene projector array and method of manufacture'19975,550,373'Fabry-Perot micro filter-detector'19965,389,218'Process for operating a solid-state oxygen microsensor'19955,389,225'Solid-state oxygen microsensor and thin structure therefor'19955,328,582'Off-axis magnetron sputter deposition of mirrors'19945,286,976'Microstructure design for high IR sensitivity'19945,282,948'Rugged 02 microsensor'19944,848,909'Ion beam sputtered mirrors for ring laser gyros'19894,582,431'Optical monitor for direct thickness control of transparent films'19864,424,103'Thin film deposition'1984Career & activity timeline
Assembled from patent assignee/location history and declaration credentials.
1984–2000Patents assigned to HONEYWELL INC (12)· patent assignee history
1984–2020Based in Bloomington, MN, US· patent location history
1994–1995Patents assigned to GAS RES INST (3)· patent assignee history
2000–2020Patents assigned to HONEYWELL INT INC (82)· patent assignee history
2007–2017Patents assigned to COLE BARRETT E (14)· patent assignee history
2012–2016Patents assigned to HIGASHI ROBERT (3)· patent assignee history
2016Based in Morristown, NJ, US· patent location history
Inventor activity
Assignee and location history derived from the patent record.
Assignees
| Assignee | Patents | Span |
|---|---|---|
| HONEYWELL INT INC | 82 | 2000–2020 |
| COLE BARRETT Eself | 14 | 2007–2017 |
| HONEYWELL INC | 12 | 1984–2000 |
| GAS RES INST | 3 | 1994–1995 |
| HIGASHI ROBERT | 3 | 2012–2016 |
Locations
| Location | Patents | Span |
|---|---|---|
| Bloomington, Minnesota, US | 97 | 1984–2020 |
| Morristown, New Jersey, US | 1 | 2016 |