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公开(公告)号：US20210389222A1
公开(公告)日：2021-12-16
申请号：US17412679
申请日：2021-08-26
Applicant: Nanohmics, Inc.
Inventor： Steve M. Savoy , Elzbieta A. Ledwosinska , Jeremy J. John , Kyle W. Hoover , Daniel R. Mitchell , Chris W. Mann , Alexander P. Greis
IPC: G01N15/06
Abstract: An apparatus comprises a housing defining a chamber that has a liquid disposed therein, and a sensor submerged in the liquid. The sensor comprises a porous conductive film on a substrate, and the film comprises chemiresistive semiconducting metal oxide structures. The sensor also comprises an electrode pair operably connected to the porous conductive film for generating electric current in the film and for detecting a change in an electrical property of the film. The apparatus can be used to detect, identify, and quantify ions and molecules in a liquid sample. Molecules and ions, in a liquid sample, that interact with the porous conductive film can cause a change in an electrical property of the film. The change in electrical property of the film can be correlated with the presence and amount of the molecules or ions.
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公开(公告)号：US20230355428A1
公开(公告)日：2023-11-09
申请号：US18149784
申请日：2023-01-04
Applicant: Nanohmics, Inc.
Inventor： Steve M. Savoy , Byron G. Zollars , Qizhen Xue , Jeremy J. John , Paul A. Parks
Abstract: Thermoelectric devices and methods for making and using the devices and their intermediates are provided. Membrane-supported thermoelectric modules are fabricated by dispensing thermoelectric powder into select locations of a membrane to form electrically isolated columns of thermoelectric material. The powder is then sintered or fused to form thermoelectric elements, which are then electrically connected and combined with thermal interface films to form the modules. The modules are the building blocks of electrical current generating, thermoelectric cooling and heat scavenging thermoelectric devices.
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公开(公告)号：US09768162B2
公开(公告)日：2017-09-19
申请号：US13788464
申请日：2013-03-07
Applicant: Nanohmics, Inc.
Inventor： Steve M. Savoy , Jeremy J. John , Daniel R. Mitchell , Michael K. McAleer
IPC: H01L29/06 , H01L47/02 , H01L27/088 , G01N27/414 , H01L27/146 , B82Y99/00
CPC classification number: H01L27/088 , B82Y99/00 , G01N27/4148 , H01L27/1462 , H01L29/0673 , Y10S977/762
Abstract: An array of sensor devices, each sensor including a set of semiconducting nanotraces having a width less than about 100 nm is provided. Method for fabricating the arrays is disclosed, providing a top-down approach for large arrays with multiple copies of the detection device in a single processing step. Nanodimensional sensing elements with precise dimensions and spacing to avoid the influence of electrodes are provided. The arrays may be used for multiplex detection of chemical and biomolecular species. The regular arrays may be combined with parallel synthesis of anchor probe libraries to provide a multiplex diagnostic device. Applications for gas phase sensing, chemical sensing and solution phase biomolecular sensing are disclosed.
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4.发明申请Method for Making Wavelength-Selective, Integrated Resonance Detector for Electromagnetic Radiation 审中-公开制造用于电磁辐射的波长选择性集成谐振检测器的方法公开(公告)号：US20150377703A1
公开(公告)日：2015-12-31
申请号：US14718166
申请日：2015-05-21
Applicant: Nanohmics, Inc.
Inventor： Steve M. Savoy , Byron G. Zollars , Andrew J. Milder , Gennady Shvets
CPC classification number: G01J3/12 , G01J1/0414 , G01J1/0429 , G01J1/0488 , G01J1/42 , G01J3/021 , G01J3/0224 , G01J3/26 , G01J3/2803 , G01J3/51 , G01J5/024 , G01J5/0809 , G01J5/0825 , G01J5/0862 , G01J5/20 , H01L31/18
Abstract: Embodiments of the invention are directed to integrated resonance detectors and arrays of integrated resonance detectors and to methods for making and using the integrated resonance detectors and arrays. Integrated resonance detectors comprise a substrate, a conducting mirror layer, an active layer, and a patterned conducting layer. Electromagnetic radiation is detected by transducing a specific resonance-induced field enhancement in the active layer to a detection current that is proportional to the incident irradiance.
Abstract translation: 本发明的实施例涉及集成谐振检测器和集成谐振检测器的阵列以及用于制造和使用集成谐振检测器和阵列的方法。 集成谐振检测器包括基板，导电镜层，有源层和图案化导电层。 通过将有源层中的特定共振诱导场增强转换成与入射辐照度成比例的检测电流来检测电磁辐射。
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5.发明申请Apparatus and Methods for Locating Source Of and Analyzing Electromagnetic Radiation 有权用于定位电磁辐射源和分析的装置和方法公开(公告)号：US20150331082A1
公开(公告)日：2015-11-19
申请号：US14531247
申请日：2014-11-03
Applicant: Nanohmics, Inc.
Inventor： Byron G. Zollars , Steve M. Savoy , Michael W. Mayo , Daniel R. Mitchell
CPC classification number: G01S3/782 , G01J1/0411 , G01J1/0422 , G01J1/0492 , G01J1/4257 , G01J2001/4266 , G01J2003/2813 , G01S3/781 , G01S3/784 , H01L27/14621 , H01L27/14625 , H01L31/02327
Abstract: Method and apparatus for determining direction from which electromagnetic radiation originates and spectral characteristics of the radiation are provided. Lenses, diffraction gratings, which may be present on the surface of the lenses, and mirrors direct radiation to a photodetector. Lens and grating parameters, along with the location, size, relative spacing and orientation of diffracted orders of radiation detected by the photodetector are used for determining direction from which the radiation originates.
Abstract translation: 确定电磁辐射起源的方向和辐射的光谱特性的方法和装置。 透镜，可能存在于透镜表面上的衍射光栅，并且将直接辐射镜反射到光电检测器。 透镜和光栅参数以及由光电检测器检测的辐射衍射级数的位置，大小，相对间距和取向用于确定辐射源自的方向。
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Patent Agency Ranking
公开(公告)号：US20130193405A1
公开(公告)日：2013-08-01
申请号：US13788464
申请日：2013-03-07
Applicant: NANOHMICS, INC.
Inventor： Steve M. Savoy , Jeremy J. John , Daniel R. Mitchell , Michael K. McAleer
IPC: H01L27/088
CPC classification number: H01L27/088 , B82Y99/00 , G01N27/4148 , H01L27/1462 , H01L29/0673 , Y10S977/762
Abstract: An array of sensor devices, each sensor including a set of semiconducting nanotraces having a width less than about 100 nm is provided. Method for fabricating the arrays is disclosed, providing a top-down approach for large arrays with multiple copies of the detection device in a single processing step. Nanodimensional sensing elements with precise dimensions and spacing to avoid the influence of electrodes are provided. The arrays may be used for multiplex detection of chemical and biomolecular species. The regular arrays may be combined with parallel synthesis of anchor probe libraries to provide a multiplex diagnostic device. Applications for gas phase sensing, chemical sensing and solution phase biomolecular sensing are disclosed.
Abstract translation: 提供一组传感器装置，每个传感器包括一组宽度小于约100nm的半导体纳米管。 公开了用于制造阵列的方法，在单个处理步骤中为检测装置的多个拷贝的大阵列提供自上而下的方法。 提供具有精确尺寸和间隔的避免电极影响的纳米感测元件。 阵列可用于化学和生物分子物种的多重检测。 常规阵列可以与锚探针库的并行合成组合以提供多路诊断装置。 公开了用于气相感测，化学感测和溶液相生物分子感测的应用。
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公开(公告)号：US20190383720A1
公开(公告)日：2019-12-19
申请号：US16434172
申请日：2019-06-06
Applicant: Nanohmics, Inc.
Inventor： Steve M. Savoy , Elzbieta A. Ledwosinska , Jeremy J. John , Kyle W. Hoover , Daniel R. Mitchell , Chris W. Mann , Alexander P. Greis
IPC: G01N15/06
Abstract: An apparatus comprises a housing defining a chamber that has a liquid disposed therein, and a sensor submerged in the liquid. The sensor comprises a porous conductive film on a substrate, and the film comprises chemiresistive semiconducting metal oxide structures. The sensor also comprises an electrode pair operably connected to the porous conductive film for generating electric current in the film and for detecting a change in an electrical property of the film. The apparatus can be used to detect, identify, and quantify ions and molecules in a liquid sample. Molecules and ions, in a liquid sample, that interact with the porous conductive film can cause a change in an electrical property of the film. The change in electrical property of the film can be correlated with the presence and amount of the molecules or ions.
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公开(公告)号：US10386365B2
公开(公告)日：2019-08-20
申请号：US15372343
申请日：2016-12-07
Applicant: Nanohmics, Inc
Inventor： Steve M. Savoy , Kyle W. Hoover , Chris W. Mann , Daniel R. Mitchell , Jeremy J. John , Alexander P. Greis
IPC: G01N33/543
Abstract: Methods and sensors for detection and quantification of one or more analyte in a test sample are described. A response profile of an ion sensor to a control sample of a known interrogator ion is determined. The ion sensor is exposed to a test sample then to a second sample comprising the known interrogator ion, and a test sample response profile of the ion sensor is determined. One or more test sample sensor response profiles are compared with one or more control sensor response profiles for detecting, identifying, and quantifying one or more analytes in the test sample.
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9.发明授权Method for making wavelength-selective, integrated resonance detector for electromagnetic radiation 有权制造用于电磁辐射的波长选择性集成谐振检测器的方法公开(公告)号：US09423301B2
公开(公告)日：2016-08-23
申请号：US14718166
申请日：2015-05-21
Applicant: Nanohmics, Inc.
Inventor： Steve M. Savoy , Byron G. Zollars , Gennady Shvets
IPC: G01J3/12 , H01L31/18 , G01J1/04 , G01J5/08 , G01J1/42 , G01J3/02 , G01J3/26 , G01J3/28 , G01J3/51 , G01J5/02 , G01J5/20
CPC classification number: G01J3/12 , G01J1/0414 , G01J1/0429 , G01J1/0488 , G01J1/42 , G01J3/021 , G01J3/0224 , G01J3/26 , G01J3/2803 , G01J3/51 , G01J5/024 , G01J5/0809 , G01J5/0825 , G01J5/0862 , G01J5/20 , H01L31/18
Abstract: Embodiments of the invention are directed to integrated resonance detectors and arrays of integrated resonance detectors and to methods for making and using the integrated resonance detectors and arrays. Integrated resonance detectors comprise a substrate, a conducting mirror layer, an active layer, and a patterned conducting layer. Electromagnetic radiation is detected by transducing a specific resonance-induced field enhancement in the active layer to a detection current that is proportional to the incident irradiance.
Abstract translation: 本发明的实施例涉及集成谐振检测器和集成谐振检测器的阵列以及用于制造和使用集成谐振检测器和阵列的方法。 集成谐振检测器包括基板，导电镜层，有源层和图案化导电层。 通过将有源层中的特定共振诱导场增强转换成与入射辐照度成比例的检测电流来检测电磁辐射。
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10.发明授权公开(公告)号：US11988662B2
公开(公告)日：2024-05-21
申请号：US15372075
申请日：2016-12-07
Applicant: Nanohmics, Inc.
Inventor： Steve M. Savoy , Kyle W. Hoover , Daniel R. Mitchell , Jeremy J. John , Chris W. Mann , Alexander P. Greis
IPC: G01N33/53 , G01N33/00 , G01N33/497
CPC classification number: G01N33/5308 , G01N33/0008 , G01N33/0031 , G01N33/0047 , G01N33/497 , G01N2033/4975
Abstract: Methods and sensors for the detection, identification, and quantification of one or more gas species, including volatile organic compounds, in a test sample are described. Methods employ gas sensors comprising a diffusion matrix present on the sensor surface. A gas analyte in a test sample diffuses through the matrix and is detected upon interaction of the analyte with the sensor. A response profile of a gas sensor to a gas analyte in the test sample is compared to a control gas sensor response profile determined in a similar manner for a known gas species. Comparisons of test sample and control sample sensor response profiles enable detection, identification, and quantification of a gas species analyte in a test sample.
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