Abstract: Processing generated sensor data of a mobile deep vein thrombosis (DVT) device may include identifying use of the mobile DVT device corresponding to a user. Sensor data associated with the user's identified use of the mobile DVT device may be generated. At least some of the generated sensor data may comprise use data associated with a duration of use of the mobile DVT device by the user. A protocol associated with use of the mobile DVT device may be processed. The generated use data and the protocol associated with use of the mobile DVT device may be correlated. Based on correlating the generated use data and the protocol, an alert associated with the generated use data and the protocol may be generated.

Abstract: A gypsum stud is provided, including a gypsum wallboard panel having first and second facing sheets sandwiching a core therebetween, a series of cuts formed on at least one of the first and second facing sheets and extending into the core, retaining intact an opposing one of said first and second facing sheets to form a hinge point, the panel being rolled from a first side to a second side into a rolled condition so that a rolled up stud is formed.

Abstract: An interior wall is provided, including a frame including at least one footer, at least one header, at least one vertical frame member connecting at least one of the at least one footer to at least one of the at least one header, the frame having a first side and a second side, and defining an interior frame space. A first wallboard panel is fastened to the first side of the frame. At least one gypsum wallboard stud is secured in the interior frame space, being fastened to the first wallboard panel and being dimensioned to extend from the first side to the second side. A second wallboard panel is fastened to the second side of the frame and to the at least one gypsum wallboard stud for creating a continuous acoustic connection between the first wallboard panel and the second wallboard panel.

Abstract: In a described embodiment, a device pairing method is disclosed. The device pairing method comprises: generating, using a server (130), a user pairing identifier corresponding to a user profile; sending, using the server (130), the generated user pairing identifier for use by a first user device (110) of the user profile to pair a second user device (120) with the user profile. In another described embodiment, a device communication control method is disclosed. The method comprises: sending, using a challenging computing device (120) to a responding computing device (110), a random number and an associated key identifier; controlling communication based on a result of comparison of the response and verification HMAC values computed with the random number and one of a plurality of cryptographic keys identified by the key identifier.

Abstract: Processing generated sensor data of a lymphedema device may include identifying use of the lymphedema device corresponding to a user. Sensor data associated with the user's identified use of the lymphedema device may be generated. At least some of the generated sensor data may comprise use data associated with a duration of use of the lymphedema device by the user. A protocol associated with use of the lymphedema device may be processed. The generated use data and the protocol associated with use of the lymphedema device may be correlated. Based on correlating the generated use data and the protocol, an alert associated with the generated use data and the protocol may be generated.

Abstract: Processing generated sensor data of a mobile deep vein thrombosis (DVT) device may include identifying use of the mobile DVT device corresponding to a user. Sensor data associated with the user's identified use of the mobile DVT device may be generated. At least some of the generated sensor data may comprise ambulation data associated with a duration of ambulation during use of the mobile DVT device by the user. A protocol associated with ambulation of the mobile DVT device may be processed. The generated ambulation data and the protocol associated with ambulation during use of the mobile DVT device may be correlated. Based on correlating the generated ambulation data and the protocol, an alert associated with the generated ambulation data and the protocol may be generated.

Abstract: Processing generated sensor data of a mobile deep vein thrombosis (DVT) device may include identifying use of the mobile DVT device corresponding to a user. Sensor data associated with the user's identified use of the mobile DVT device may be generated. At least some of the generated sensor data may comprise use data associated with a duration of use of the mobile DVT device by the user. A protocol associated with use of the mobile DVT device may be processed. The generated use data and the protocol associated with use of the mobile DVT device may be correlated. Based on correlating the generated use data and the protocol, an alert associated with the generated use data and the protocol may be generated.

Abstract: In a described embodiment, a device pairing method is disclosed. The device pairing method comprises: generating, using a server (130), a user pairing identifier corresponding to a user profile; sending, using the server (130), the generated user pairing identifier for use by a first user device (110) of the user profile to pair a second user device (120) with the user profile. In another described embodiment, a device communication control method is disclosed. The method comprises: sending, using a challenging computing device (120) to a responding computing device (110), a random number and an associated key identifier; controlling communication based on a result of comparison of the response and verification HMAC values computed with the random number and one of a plurality of cryptographic keys identified by the key identifier.

Abstract: A monitoring system includes a transmitter (102) with two transmit modules (208, 210) and a receiver (104) with two receive modules (212, 214). Each of the transmit modules (208, 210) generates an optical signal modulated at a unique frequency. The optical signals are transmitted across a roadway (112) and are detected by the receive modules (212, 214). When a vehicle (110) moves between the transmitter (102) and receiver (104), the optical signals are blocked. The receiver (104) generates timestamped make and break events corresponding to the blocking and unblocking of the signals, and these are used to determine parameters for the vehicle (110) such as velocity and vehicle classification. Because each signal is modulated at a different frequency, each receive module (212, 214) can distinguish the signals received from each of the transmit modules (208, 210), allowing the lane position of the vehicle (110) in a multi-lane roadway (112) to be determined.

Abstract: A monitoring system includes a transmitter (102) with two transmit modules (208, 210) and a receiver (104) with two receive modules (212, 214). Each of the transmit modules (208, 210) generates an optical signal modulated at a unique frequency. The optical signals are transmitted across a roadway (112) and are detected by the receive modules (212, 214). When a vehicle (110) moves between the transmitter (102) and receiver (104), the optical signals are blocked. The receiver (104) generates timestamped make and break events corresponding to the blocking and unblocking of the signals, and these are used to determine parameters for the vehicle (110) such as velocity and vehicle classification. Because each signal is modulated at a different frequency, each receive module (212, 214) can distinguish the signals received from each of the transmit modules (208, 210), allowing the lane position of the vehicle (110) in a multi-lane roadway (112) to be determined.