Abstract: A computer-implemented system for determining an analyte in milk is provided. The system first causes irradiation of the sample with light in a plurality of discrete spectral bands. The spectral bands can be selected based on phenomenon of specific analytes. The irradiation causes a fluorescent response in the milk, which is received by light sensors and converted into digitized spectral data. The digitized spectral data is then transmitted to a machine learning system which can determine the concentration of analytes and produce an output indicative of said concentration.

Abstract: A computer-implemented system for determining an analyte in milk is provided. The system first causes irradiation of the sample with light in a plurality of discrete spectral bands. The spectral bands can be selected based on phenomenon of specific analytes. The irradiation causes a fluorescent response in the milk, which is received by light sensors and converted into digitized spectral data. The digitized spectral data is then transmitted to a machine learning system which can determine the concentration of analytes and produce an output indicative of said concentration.

Abstract: A system is provided giving an instant preview of the appearance of a compiled native application on a mobile computing device during an application development process as the application would appear as if installed from a digital distribution platform such as an app store, without compiling the application. The system previews an accurate representation of the appearance of the app in the user interface without compiling the app, and the content management modules allows the user to iteratively change the elements to obtain a desired appearance for the app.

Abstract: An otoscope may project a temporal sequence of phase-shifted fringe patterns onto an eardrum, while a camera in the otoscope captures images. A computer may calculate a global component of these images. Based on this global component, the computer may output an image of the middle ear and eardrum. This image may show middle ear structures, such as the stapes and incus. Thus, the otoscope may “see through” the eardrum to visualize the middle ear. The otoscope may project another temporal sequence of phase-shifted fringe patterns onto the eardrum, while the camera captures additional images. The computer may subtract a fraction of the global component from each of these additional images. Based on the resulting direct-component images, the computer may calculate a 3D map of the eardrum.

Abstract: A system is provided giving an instant preview of the appearance of a compiled native application on a computing device during an application development process as the application would appear as if installed from a digital distribution platform, without compiling the application. The system includes a database, a processing unit, and a user interface. An application template module may include one or more application templates. An application template is selected and loaded into a content management module. The application templates provide application elements and features that can be included in a native application. The user can select and arrange the application elements. Upon a computer command, the content management module previews an accurate representation of the appearance of the app in the user interface without compiling the app, and the content management modules allows the user to iteratively change the elements to obtain a desired appearance for the app.

Abstract: An otoscope may project a temporal sequence of phase-shifted fringe patterns onto an eardrum, while a camera in the otoscope captures images. A computer may calculate a global component of these images. Based on this global component, the computer may output an image of the middle ear and eardrum. This image may show middle ear structures, such as the stapes and incus. Thus, the otoscope may “see through” the eardrum to visualize the middle ear. The otoscope may project another temporal sequence of phase-shifted fringe patterns onto the eardrum, while the camera captures additional images. The computer may subtract a fraction of the global component from each of these additional images. Based on the resulting direct-component images, the computer may calculate a 3D map of the eardrum.

Abstract: An otoscope may project a temporal sequence of phase-shifted fringe patterns onto an eardrum, while a camera in the otoscope captures images. A computer may calculate a global component of these images. Based on this global component, the computer may output an image of the middle ear and eardrum. This image may show middle ear structures, such as the stapes and incus. Thus, the otoscope may “see through” the eardrum to visualize the middle ear. The otoscope may project another temporal sequence of phase-shifted fringe patterns onto the eardrum, while the camera captures additional images. The computer may subtract a fraction of the global component from each of these additional images. Based on the resulting direct-component images, the computer may calculate a 3D map of the eardrum.

Abstract: Disclosed is a system for facilitating instant preview of a customized native application in near real time through a digital distribution platform on a computing device. The system includes a database to store plurality of modules, a processing unit is coupled to the database for processing the plurality of modules, a display unit displays processed plurality of modules and an input unit to input content. The modules include a registration module, an application template module, a content management module and an application module. The registration module register users on receiving a user ID and a password. The application template module allows registered users to select one default application template from multiple default application template. The content management module allows registered users to input content as per the format of the selected default template application to create a customized application. The input content and the selected template is stored in the database.

Abstract: An otoscope may project a temporal sequence of phase-shifted fringe patterns onto an eardrum, while a camera in the otoscope captures images. A computer may calculate a global component of these images. Based on this global component, the computer may output an image of the middle ear and eardrum. This image may show middle ear structures, such as the stapes and incus. Thus, the otoscope may “see through” the eardrum to visualize the middle ear. The otoscope may project another temporal sequence of phase-shifted fringe patterns onto the eardrum, while the camera captures additional images. The computer may subtract a fraction of the global component from each of these additional images. Based on the resulting direct-component images, the computer may calculate a 3D map of the eardrum.