Abstract: The present invention relates to a computer-implemented system [100] and method [300] for determining and monitoring multiple health conditions in a female body based on analytes present in a biological sample of said body. In an embodiment, the system [100] comprises test strips [110A-110N] coupled with a user device [130]. When said biological sample is poured on the test strip [110], the sample is pre-treated followed by reactions comprising (if) reaction between pre-treated sample and a detector reagent; (ii) reaction between each analyte of the reacted sample with corresponding biochemical reagent thereby producing a characteristic colour for each analyte. The information relating to the reactions is transmitted to the user device [130] that further determines a concentration value of each analyte based on said reactions. The user device [130] then analyses a comparison between the measured concentration value and pre-defined concentration value of each analyte to determine the fertility level.

Abstract: A method and handheld computer-implemented system for diagnosing or predicting poly-cystic ovarian syndrome by measuring reproductive hormones or their metabolites in a biological sample of a subject is provided.

Abstract: An immunoassay device that authenticates a biological sample while performing an assay for an analyte or analytes of interest is provided. The device includes a sample receiving zone to receive the biological sample; a validation zone placed before or after the sample receiving zone to validate the biological sample; a conjugate zone having labels conjugated with primary antibodies or reagents specific to a plurality of characteristic markers of the biological sample and the analytes of interest; and a reaction zone having secondary antibodies or antigens or reagents specific to the primary antibodies or reagents that bind with the plurality of characteristic markers of the biological sample and analytes of interest.

Abstract: A test strip assembly 101 for dipping in a bodily fluid sample to analyse a presence or absence of one or more analytes is provided. The test strip assembly 101 includes a basal layer (1), a first adhesive layer (2) that is entirely present over the basal layer (1) a porous membrane (3) that is present over the first adhesive layer (2) and the bodily fluid flows in a lateral direction in the porous membrane (3); a second adhesive layer (4); and a number of detection labels (5) placed on the porous membrane through the adhesive layer (4) and receives bodily fluids flowing in the lateral direction in the porous membrane such that the bodily fluids then flow in a vertical direction in the detection labels (5). A device including the test strip assembly (101) is provided.

Abstract: The invention relates to an adaptor for coupling an add-on device to an electronic device. The adaptor consists of first gripper (101), second gripper (104) and coupler (102). The adaptor is configured to hold the electronic device (114) between the first and second gripper which are adjustable to accommodate different sized electronic devices. The coupler (102) is locked to the adapter and the coupler is configured to slide on members/rods of the adaptor to enable fixing of the add-on device at a working position with respect to the electronic device (114).

Abstract: The present invention relates to an optical system for imaging using a camera and a light source of a handheld device, wherein the optical system comprises a transparent optic defining an optical volume, the transparent optic comprising a first main face adapted for positioning an object to be imaged, the transparent optic adapted to admit into the optical volume a light emitted by the light source for illuminating the object and wherein the transparent optic is adapted to admit the light having interacted with the object into the optical volume and turn the light inside the optical volume such that the light is internally reflected within the optical volume and exit the optical volume to be incident onto the camera.

Abstract: The present invention relates to an optical system, wherein the optical system comprises a transparent optic defining an optical volume, the transparent optic comprising a first main face adapted to admit light into the optical volume and a first turning optic for turning the light admitted inside the optical volume such that the light is internally reflected within the optical volume.

Abstract: The present invention relates to an optical system for imaging using a camera and a light source of a handheld device, wherein the optical system comprises a transparent optic defining an optical volume, the transparent optic comprising a first main face adapted for positioning an object to be imaged, the transparent optic adapted to admit into the optical volume a light emitted by the light source for illuminating the object and wherein the transparent optic is adapted to admit the light having interacted with the object into the optical volume and turn the light inside the optical volume such that the light is internally reflected within the optical volume and exit the optical volume to be incident onto the camera.

Abstract: A method of reducing motion blurring in digital radiography includes capturing at least one temporally coded blurred image of an object generated by using a coded pattern, and generating a de-blurred image from the at least one temporally coded blurred image by using the coded pattern and an estimate of a motion vector of the object. The at least one temporally coded blurred image is captured by using a total amount of generated light corresponding to at least a portion of radiation transmitted by the object. A digital radiography system is also provided.

Abstract: The present invention relates to an optical system, wherein the optical system comprises a transparent optic defining an optical volume, the transparent optic comprising a first main face adapted to admit light into the optical volume and a first turning optic for turning the light admitted inside the optical volume such that the light is internally reflected within the optical volume.

Abstract: A method of reducing motion blurring in digital radiography includes capturing at least one temporally coded blurred image of an object generated by using a coded pattern, and generating a de-blurred image from the at least one temporally coded blurred image by using the coded pattern and an estimate of a motion vector of the object. The at least one temporally coded blurred image is captured by using a total amount of generated light corresponding to at least a portion of radiation transmitted by the object. A digital radiography system is also provided.

Abstract: The invention relates to an integrated light and occupancy sensor device having an overall angular field of view, including an array of modified LED elements; a segmented filtering aperture means having a slit aperture defined by a slit length and a slit width that is significantly smaller than the array length, the slit aperture means being positioned at a distance away from the linear array and so oriented that the slit length crosses the array in a transverse direction; and a processor being operably connected to said array to process light data values corresponding to the light signals, the processor operable in first and second modes.

Abstract: A system for measurement of three-dimensional motion of an object is provided. The system includes a light projection means adapted for projecting, for distinct time intervals, light of at least two different colors with a cross-sectional pattern of fringe lines onto a surface of the object and also includes image acquisition means for capturing an image of the object during an exposure time, wherein the distinct time intervals are within the duration of the exposure time. The system further includes image processing means adapted for processing the image to obtain a different depth map for each color based on a projected pattern of fringe lines on the object as viewed from the position of the image acquisition means, to determine corresponding points on the depth maps of each color, and to determine a three-dimensional motion characteristic of the object based on the positions of corresponding points on the depth maps.

Abstract: A method and apparatus for measuring the vibration characteristics of an object is disclosed. The method includes illuminating the object using at least two light sources, the at least two light sources emitting light of distinct colors wherein each of the at least two light sources are strobed at a respective delay, capturing reflected light from the object to result into one image of the object, the image including at least two distinguishable color channels capable of distinguishing the distinct colors of the light, and processing the image to compute the vibration characteristics associated with the object from positions of the points on the object in the at least two distinguishable color channels of the image.

Abstract: A system for measurement of three-dimensional motion of an object is provided. The system includes a light projection means adapted for projecting, for distinct time intervals, light of at least two different colors with a cross-sectional pattern of fringe lines onto a surface of the object and also includes image acquisition means for capturing an image of the object during an exposure time, wherein the distinct time intervals are within the duration of the exposure time. The system further includes image processing means adapted for processing the image to obtain a different depth map for each color based on a projected pattern of fringe lines on the object as viewed from the position of the image acquisition means, to determine corresponding points on the depth maps of each color, and to determine a three-dimensional motion characteristic of the object based on the positions of corresponding points on the depth maps.