Abstract: The disclosure relates to method and system for evaluating luminance in Augmented Reality (AR) applications. The method includes receiving a plurality of video frames corresponding to an AR object in a real-world environment at a current camera angle; for each of the plurality of video frames, subtracting the set of AR object pixels from the set of environment pixels in a frame; calculating mean luminance value corresponding to the set of AR object pixels in each of the at least one of the plurality of blocks in the frame and corresponding to each of the plurality of blocks of the grid in the real-world environment through a light sensor; comparing mean luminance value for each of the plurality of blocks of the grid with mean luminance value corresponding to the set of AR object pixels; and evaluating luminance of AR object at the current location in the AR application.

Abstract: The present disclosure relates to system(s) and method(s) for testing an electronic device. The system may receive a configuration file from a user device. Further, the system may operate the electronic device under test based on a target test case selected from the configuration. The system may further operate a video capturing device to capture a sequence of video frames of visual indicators corresponding to the electronic device under test. The system may further analyse the sequence of video frames to identify one or more target video frames indicating visual change in the visual indicators corresponding to the electronic device. The may further analyse the one or more target video frames to determine response time corresponding to each target video frame. Furthermore, the system may generate a test report based on the response time corresponding to the one or more target video frames.

Abstract: Disclosed is a system for identifying at least one optimum pre-processing technique for text extraction. A data receiving module receives an input image and an expected text pertaining to the input image. Furthermore, a performance module performs a plurality of pre-processing techniques on the input image in order to extract textual information, present in the input image, by using at least one text extraction technique. Subsequently, a recording module records processing time spent on each pre-processing technique performed on the input image. Further, a comparison module compares the textual information with the expected text. Further to comparing the textual information with the expected text, the ranking module may rank each of the plurality of pre-processing techniques based on a result of comparison between the textual information and the expected text, thereby identifying at least one optimum pre-processing technique for text extraction.

Abstract: Disclosed is a system for identifying at least one optimum pre-processing technique for text extraction. A data receiving module receives an input image and an expected text pertaining to the input image. Furthermore, a performance module performs a plurality of pre-processing techniques on the input image in order to extract textual information, present in the input image, by using at least one text extraction technique. Subsequently, a recording module records processing time spent on each pre-processing technique performed on the input image. Further, a comparison module compares the textual information with the expected text. Further to comparing the textual information with the expected text, the ranking module may rank each of the plurality of pre-processing techniques based on a result of comparison between the textual information and the expected text, thereby identifying at least one optimum pre-processing technique for text extraction.

Abstract: The present disclosure relates to system(s) and method(s) for guiding a user in changing oxygen level environment is illustrated. The system is configured to capturing a set of oxygen levels corresponding to a set of zones in a geographical area. Further, the system is configured for receiving an oxygen threshold level and a current location, corresponding to a user in the geographical area, from a user device of a user. Further, the system may identify a current oxygen level from the set of oxygen levels, wherein the current oxygen level corresponds to a zone associated with the current location of the user. Further, the system is configured to display an oxygen level map, corresponding to the geographical area, on the user device for guiding the user to reach a target zone, in the geographical area.

Abstract: The present disclosure relates to system(s) and method(s) for testing an electronic device. The system may receive a configuration file from a user device. Further, the system may operate the electronic device under test based on a target test case selected from the configuration. The system may further operate a video capturing device to capture a sequence of video frames of visual indicators corresponding to the electronic device under test. The system may further analyse the sequence of video frames to identify one or more target video frames indicating visual change in the visual indicators corresponding to the electronic device. The may further analyse the one or more target video frames to determine response time corresponding to each target video frame. Furthermore, the system may generate a test report based on the response time corresponding to the one or more target video frames.

Abstract: Method and a system for mitigating a medical risk are disclosed. Medical profile data associated with a patient is stored in a system. One or more parameters associated with the current medical status of the patient are received from a wearable device associated with the patient. The current medical status of the patient is analyzed with respect to the stored medical profile data of the patient. Based on variations in the one or more parameters, a medical risk associated with the patient is predicted and one or more steps to mitigate the risk are generated. A notification including information about the predicted medical risk and the steps for mitigating the risk is transmitted to the wearable device for displaying to the patient.

Abstract: The present disclosure relates to system(s) and method(s) for guiding a user in changing oxygen level environment is illustrated. The system is configured to capturing a set of oxygen levels corresponding to a set of zones in a geographical area. Further, the system is configured for receiving an oxygen threshold level and a current location, corresponding to a user in the geographical area, from a user device of a user. Further, the system may identify a current oxygen level from the set of oxygen levels, wherein the current oxygen level corresponds to a zone associated with the current location of the user. Further, the system is configured to display an oxygen level map, corresponding to the geographical area, on the user device for guiding the user to reach a target zone, in the geographical area.

Abstract: The present disclosure discloses device system 102 and a method for determining risk associated with lumbar intervertebral disc prolapse. The creating module 116 may create a risk-profile corresponding to each lumbar intervertebral disc of a user. The risk-profile created may comprise annulus fibrosus related data and nucleus pulposusrelated data. The receiving module 118 may receive sensor-data corresponding to one or more muscle groups of user's interest and a lumbar region of the user. The lumbar region comprises L1 to L5 lumbar vertebrae and their adjoining IV discs. Further, the sensor-data indicates an effect of user's activity on the lumbar region of the user. The processing module 120 may process the risk-profile and the sensor-data based on a predefined value in order to determine information pertaining to a risk associated with the lumbar intervertebral disc prolapse. Further, the information may be transmitted by the transmitting module 122 to a wearable device 104 of the user.