Fluorescence imaging probe and handheld ImagingProber

    公开(公告)号:US12264966B2

    公开(公告)日:2025-04-01

    申请号:US18562332

    申请日:2023-04-06

    Abstract: Provided are a fluorescence imaging probe and a handheld imaging prober, relating to the technical field of medical devices. The fluorescence imaging probe includes a dichroic filter and an image detector, the dichroic filter is arranged at an included angle of 45° with a direction of a main optical axis of incident excitation light, the incident excitation light is reflected by the dichroic filter to a target detection position, the reflected incident excitation light excites a fluorescent substance at the target detection position to form fluorescence, a main optical axis of the fluorescence is arranged coaxially with the image detector, the fluorescence is incident to the image detectors through the dichroic filter, and the image detector converts the received fluorescence into an image signal.

    SPECTRAL-SPATIAL IMAGING DEVICE
    13.
    发明申请

    公开(公告)号:US20250093204A1

    公开(公告)日:2025-03-20

    申请号:US18778628

    申请日:2024-07-19

    Abstract: In general, an imaging system to synchronously record a spatial image and a spectral image of a portion of the spatial image is described. In some examples, a beam splitter of the imaging system splits an optical beam, obtained from a viewing device, into a first split beam directed by the imaging system to a spatial camera and a second split beam directed by the imaging system to the entrance slit of an imaging spectrograph that is coupled to a spectral camera. An electronic apparatus synchronously triggers the spatial camera and the spectral camera to synchronously record a spatial image and a spectral image, respectively.

    AFFORDABLE HIGH SPECTRAL-RESOLUTION 3D IMAGING LEVERAGING ROBOTIC SCANNING SPECTROSCOPY COMBINED WITH SEMANTIC SLAM

    公开(公告)号:US20250093201A1

    公开(公告)日:2025-03-20

    申请号:US18886898

    申请日:2024-09-16

    Abstract: A method of adaptively scanning a selected area that includes selecting an imaging mode, performing a scan of the selected area using the imaging mode, detecting an item of interest, automatically selecting a new imaging mode in response to detecting the item of interest, and performing a scan of the item of interest using the new imaging mode. The imaging mode may determine at least one of a scanning pattern, a scanning speed, and a scanning rate. Spectral data and image data may be gathered and used to detect the item of interest. The method may also include providing a scanning spectrometer system that has a gimbal system configured to provide at least two degrees of freedom to the scanning spectrometer system. The gimbal system may have a spectrometer and a camera each mounted on the gimbal system and configured to gather the spectral data and the image data, respectively.

    Optical sensor device
    16.
    发明授权

    公开(公告)号:US12253412B2

    公开(公告)日:2025-03-18

    申请号:US17661179

    申请日:2022-04-28

    Inventor: William D. Houck

    Abstract: An optical sensor device includes an optical sensor; an optical filter; a phase mask configured to distribute a plurality of light beams associated with a subject in an encoded pattern; a movement component configured to move the phase mask; and one or more processors configured to: obtain, from the optical sensor, a first set of sensor data that indicates information related to first light that originates at the subject and passes through the phase mask when the phase mask is located at a first position; obtain, from the optical sensor, a second set of sensor data that indicates information related to second light that originates at the subject and passes through the phase mask when the phase mask is located at a second position; determine and provide, based on the first set of sensor data and the second set of sensor data, information associated with the subject.

    SYSTEMS, METHODS, AND INTERFACES FOR VIEWING AND MODIFYING SUB-COMPONENTS OF A COATING

    公开(公告)号:US20250086853A1

    公开(公告)日:2025-03-13

    申请号:US18580304

    申请日:2022-07-12

    Abstract: A computer-implemented method can include providing via a digital display a graphical user interface including one or more selectable elements for retrieving spectrophotometer data measured from a target asset. The method also includes receiving spectrophotometer data from an end user of the graphical user interface, and retrieving from a database a plurality of closest match colors corresponding to the spectrophotometer data. In addition, the method can include displaying a plurality of selectable color tiles corresponding to the retrieved closest match colors, and further displaying an image for each of one or more selectable sub-component options corresponding to one or more alternate formulas for at least one of the selectable color tiles. The method further includes displaying both the adjusted formula and related sub-components corresponding to the user modifications, as well as options to select the color as a coating for eventual application.

    WAVELENGTH CALIBRATION METHOD FOR GRATING SPECTROMETERS

    公开(公告)号:US20250085164A1

    公开(公告)日:2025-03-13

    申请号:US18773672

    申请日:2024-07-16

    Abstract: A wavelength calibration method for a grating spectrometer is provided, including: moving a plurality of characteristic peaks of a calibration light source to a central position of a detector of the spectrometer respectively, and determining a functional relationship between a grating rotation angle of the rotatable grating and a central wavelength; and determining parameters γ, f, a, b, c in the following physical model, the physical model being used to calculate a corresponding wavelength at each pixel within an imaging range of the detector when the central wavelength is determined, λ ′ = sin ⁢ ( Ψ - γ 2 ) + sin ⁢ ( Ψ + γ 2 + arctan ⁢ ( a ⁡ ( n ⁢ x ) 2 + b ⁡ ( n ⁢ x ) + c f ) ) 1 ⁢ 0 - 6 · m · N wherein Ψ is the grating rotation angle corresponding to the central wavelength as determined via the functional relationship, γ is built-in angle of the spectrometer, f is a focal distance of the spectrometer, m is grating diffraction order, N is the number of grating rulings (unit: line/mm), nx is a distance between a corresponding pixel and a central pixel.

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