Abstract: Described in detail herein is a usage tracking system. In exemplary embodiments, an usage application executed on a device can transmit a request to a computing system for connecting the device to the Internet. The computing system can include a first server and a second server. The computing system can receive the request for connecting the device to the Internet from the application. The first server can initiate a connection of the device with the Internet. The first server can allocate a range of Internet Protocol (IP) addresses to the at least one device based on a set of selected digital services being executed on the at least one device. Each IP address of the range of IP addresses corresponds to a digital service of selected set of digital services executed on the at least one device.

Abstract: Described in detail herein is a usage tracking system. In exemplary embodiments, an usage application executed on a device can transmit a request to a computing system for connecting the device to the Internet. The computing system can include a first server and a second server. The computing system can receive the request for connecting the device to the Internet from the application. The first server can initiate a connection of the device with the Internet. The first server can allocate a range of Internet Protocol (IP) addresses to the at least one device based on a set of selected digital services being executed on the at least one device. Each IP address of the range of IP addresses corresponds to a digital service of selected set of digital services executed on the at least one device.

Abstract: A method of controlling a user specific rehabilitative video game, including: monitoring user motion during the game using a motion recognition gaming system; wherein the user is required to perform specific exercises dictated by a game plan; checking compliance of the user motion to an ideal motion for performing the exercises; providing feedback to the user based on the user's performance relative to the ideal motion; updating a level of feedback responsive to the user's performance throughout the game, and optionally, changing the game plan responsive to the user's performance throughout the game.

Abstract: A kinetic rehabilitation system comprising: a kinetic sensor comprising a motion-sensing camera; and a computing device comprising: (a) a communication module; (b) a non-transient memory comprising a stored set of values of rehabilitative gestures each defined by a time series of spatial relations between a plurality of theoretical body joints, and wherein each time series comprises: initial spatial relations, mid-gesture spatial relations and final spatial relations, and (c) a hardware processor configured to: (i) continuously receive a recorded time series of frames from said motion-sensing camera, wherein each frame comprises a three-dimensional position of each of a plurality of body joints of a patient, (ii) compare, in real time, at least a portion of the recorded time series of frames with the time series of spatial relations, to detect a rehabilitative gesture performed by the patient, (iii) detect a discrepancy between the rehabilitative gesture performed by the patient and a corresponding one of sai

Abstract: A kinetic rehabilitation system comprising: a kinetic sensor comprising a motion-sensing camera; and a computing device comprising: (a) a non-transient memory comprising a stored set of values of rehabilitative gestures each defined by a time series of spatial relations between a plurality of theoretical body joints, and wherein each time series comprises: initial spatial relations, mid-gesture spatial relations and final spatial relations, and (b) a hardware processor configured to continuously receive a recorded time series of frames from said motion-sensing camera, wherein each frame comprises a three-dimensional position of each of a plurality of body joints of a patient, wherein said hardware processor is further configured to compare, in real time, at least a portion of the recorded time series of frames with the time series of spatial relations, to detect a rehabilitative gesture performed by the patient.

Abstract: A kinetic rehabilitation system comprising: a kinetic sensor comprising a motion-sensing camera; and a computing device comprising: (a) a non-transient memory comprising a stored set of values of rehabilitative gestures each defined by a time series of spatial relations between a plurality of theoretical body joints, and wherein each time series comprises: initial spatial relations, mid-gesture spatial relations and final spatial relations, and (b) a hardware processor configured to: (i) continuously receive a recorded time series of frames from said motion-sensing camera, wherein each frame comprises a three-dimensional position of each of a plurality of body joints of a patient, (ii) compare, in real time, at least a portion of the recorded time series of frames with the time series of spatial relations, to detect a rehabilitative gesture performed by said patient, (iii) detect a discrepancy between the rehabilitative gesture performed by said patient and a corresponding one of said stored set of values of

Abstract: A method of controlling a user specific rehabilitative video game, including: monitoring user motion during the game using a motion recognition gaming system; wherein the user is required to perform specific exercises dictated by a game plan; checking compliance of the user motion to an ideal motion for performing the exercises; providing feedback to the user based on the user's performance relative to the ideal motion; updating a level of feedback responsive to the user's performance throughout the game, and optionally, changing the game plan responsive to the user's performance throughout the game.