Abstract: Systems and methods for optimizing HVAC systems in large institutions are provided. Various embodiments of the technology provide systems and methods for determining and predicting building occupancy more accurately and in real-time to enhance energy usage and occupant comfort. Embodiments include a system and method that uses existing Wi-Fi infrastructure to collect wireless presence data, processes this data in a cloud-based environment, and employs machine learning algorithms to forecast occupancy. The system integrates scheduling data and can also incorporate CO2 sensor data to refine these predictions and dynamically adjust HVAC set points via the BACnet protocol.

Abstract: Embodiments leverage wireless data passively collected by access points of a school to correlate a student's behavior with respect to time and place. This data-driven approach can quantify student behaviors and objectively measure and track how students move and interact on campus. For example, if a student accesses a wireless router that is in the same physical location as a class on the student's schedule at the time the class takes place, the correlated time and place quantifies how the student behaves with respect to class attendance. The invention takes the sum of such interactions (e.g., attending classes, studying in the library, etc.) and produces a student engagement score (SES) for each student. The SES is evaluated to determine how student behaviors change over time (e.g., throughout a semester) and whether the student is trending to a low engagement score and thus “at-risk” of dropping out.

Abstract: Embodiments leverage wireless data passively collected by access points of a school to correlate a student's behavior with respect to time and place. This data-driven approach can quantify student behaviors and objectively measure and track how students move and interact on campus. For example, if a student accesses a wireless router that is in the same physical location as a class on the student's schedule at the time the class takes place, the correlated time and place quantifies how the student behaves with respect to class attendance. The invention takes the sum of such interactions (e.g., attending classes, studying in the library, etc.) and produces a student engagement score (SES) for each student. The SES is evaluated to determine how student behaviors change over time (e.g., throughout a semester) and whether the student is trending to a low engagement score and thus “at-risk” of dropping out.