Honeywell International Inc.

Christopher J Zins

Barrett E Cole

James Allen Cox

Robert E Higashi

Subash Krishnankutty

Aravind Padmanabhan

Peter Tobias

Ron Bardell

Ron L Bardell

Disclosed herein are methods and systems for distinguishing a nuisance gas from a target gas or group of target gases, which involve a configuration of a light source () and paper tape () such that light () emitted from the light source () can reflect off the paper tape (). The light () can emit in at least three wavelengths selected from red, green, blue, and ultra-violet wavelengths, and pattern recognition can be used to identify and/or distinguish the nuisance gas from the target gas or from the group of target gases.

Probing film that absorbs and reacts with gases, with light of different wavelengths for higher gas sensitivity

A microfluidic circuit cartridge for a complete blood count, including analyses of red blood cells. Various parameters of the red blood cells may be attained. The cartridge may have sphering mechanism which has a channel or loop with a configuration for reducing or eliminating cell settling. The channel or loop may incorporate a combination of straight and curve paths in the context of gravity. The channel may alternatively have a hydrophilic or hydrophobic inside surface. Again alternatively, the channel may have an electro-wettable inside surface. Or, the channel may be subject to an electric or magnetic field. There may also be a mechanism for reducing or eliminating clumping of a sample.

Microfluidic card for RBC analysis

A system for determining particle parameters. The system may, for example, may optically determine parameters common to a hematology analysis. Such parameters may include a red blood cell count, a platelet count, a mean cell volume and a red cell distribution width. A hematocrit parameter may be calculated. Also, a measurement of hemoglobin in a blood sample may be obtained leading to a calculation of a mean mass of hemoglobin in a red blood cell and a mean cell hemoglobin concentration. The system may be implemented in a portable cartridge type cytometer.

Particle parameter determination system

A first frequency of electromagnetic radiation and a second frequency of electromagnetic radiation are received at a detector. The first and second frequencies of electromagnetic radiation are transmitted through a medium within a frequency range of approximately 0.1 TeraHertz to approximately 10 TeraHertz. Signals are generated that are proportional to the transmittance of the frequencies of electromagnetic radiation through the medium. A ratio of the of the signals is formed, and one or more of a relative humidity, an absolute humidity, and a water vapor concentration of the medium are calculated as a function of a temperature of the medium, the ratio, and a set of functional parameters associated with the temperature of the medium.

Terahertz sensor to measure humidity and water vapor

A multi-substrate package assembly having a first substrate, a second substrate and a package, each with a number of bond pads. The package includes a cavity for receiving either or both of the first and second substrates, with a number of bond pads positioned along at least part of the periphery of the cavity. The first substrate and the second substrate are preferably positioned in the cavity of the package, with selected bond pads of the first substrate and second substrate electrically connected to selected bond pads of the package. In some embodiments, the bond pads of the first substrate are only connected to bond pads on one or more sides of the cavity, and the bond pads of the second substrate are only connected to bond pads on one or more of the remaining sides of the cavity. The packaging assembly of the present invention can be used in many applications, including spectrally tunable optical detectors.

Multi-substrate package assembly

A spectrally tunable optical detector and methods of manufacture therefore are provided. In one illustrative embodiment, the tunable optical detector includes a tunable bandpass filter, a detector and readout electronics, each supported by a different substrate. The substrates are secured relative to one another to form the spectrally tunable optical detector.

A microbolometer film material VOx having a value such that the thermal coefficient of resistance is between 0.005 and 0.05. The film material may be formed on a wafer. The VOx material properties can be changed or modified by controlling certain parameters in the ion beat sputter deposition environment. There is sufficient control of the oxidation process to permit non-stoichometric formation of VOx films. The process is a low temperature process (less than 100 degrees C.). Argon is used for sputtering a target of vanadium in an environment wherein the oxygen level is controlled to determine the x of VOx. The thickness of the film is controlled by the time of the deposition. Other layers may be deposited as needed to form pixels for a bolometer array.

Flexible high performance microbolometer detector material fabricated via controlled ion beam sputter deposition process

A microbolometer film material VOx having a value such that the thermal coefficient of resistance is between 0.005 and 0.05. The film material may be formed on a wafer. The VOx material properties can be changed or modified by controlling certain parameters in the ion beam sputter deposition environment. There is sufficient control of the oxidation process to permit non-stoichometric formation of VOx films. The process is a low temperature process (less than 100 degrees C.). Argon is used for sputtering a target of vanadium in an environment wherein the oxygen level is controlled to determine the x of VOx. The thickness of the film is controlled by the time of the deposition. Other layers may be deposited as needed to form pixels for a bolometer array.

A high performance microbolometer in which a pixel contains the material VOx wherein x of VOx is set at a value to adjust a thermal coefficient of resistance to a selected value between 0.005 and 0.05.

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Inver Grove Heights, MN, United States of America

Christopher J Zins