Abstract: The embodiments herein relate to a system and a method identifying and generating an alert, using a deep learning model, for atypical events during an activity on an electronic whiteboard. The system includes a user device associated with a user, and an atypical event detecting server. The atypical event detecting server (i) receives one or more canvases at concurrent sessions, (ii) annotates the one or more canvases, (iii) detects historical atypical events from the annotated one or more canvases, (iv) trains the deep learning model by correlating the historical atypical events, historical bounding boxes with historical canvases in historical sessions, (v) processes the one or more canvases by determining a bounding box around each atypical event, and (vi) generates an alert for identified atypical events using an event record table.

Abstract: A robot using less storage and computational resources to embody panoramic attention. The robot includes a panoramic attention module with multiple levels that are hierarchically structured to process different levels of information. The top-level of the panoramic attention module receives information about entities detected from the environment of the robot and maps the entities to a panoramic map maintained by the robot. By mapping and storing high-level entity information instead of low-level sensory information in the panoramic map, the amount of storage and computation resources for panoramic attention can be reduced significantly. Further, the mapping and storing of high-level entity information in the panoramic map also facilitates consistent and logical processing of different conceptual levels of information.

Abstract: A robot using less storage and computational resources to embody panoramic attention. The robot includes a panoramic attention module with multiple levels that are hierarchically structured to process different levels of information. The top-level of the panoramic attention module receives information about entities detected from the environment of the robot and maps the entities to a panoramic map maintained by the robot. By mapping and storing high-level entity information instead of low-level sensory information in the panoramic map, the amount of storage and computation resources for panoramic attention can be reduced significantly. Further, the mapping and storing of high-level entity information in the panoramic map also facilitates consistent and logical processing of different conceptual levels of information.