Abstract: According to the embodiments described herein, a method for characterizing in vivo operation of a dental prosthetic can include providing subject position data and prosthetic position data. The method may further include transforming the subject position data into a reference three-dimensional coordinate system. The reference three-dimensional coordinate system can be ordered according to a coordinate index. The coordinate index can be based at least in part upon a subject position index of the subject position data. The method may further include comparing, automatically with one or more processors, the prosthetic position data and the reference three-dimensional coordinate system according to a comparison order to characterize the dental prosthetic. The comparison order can be based at least in part upon a prosthetic position index of the prosthetic position data and the coordinate index.

Abstract: A therapeutic micro-current delivery device includes a first electrode in electrical contact with a user at a first user location, a second electrode in electrical contact with the user at a second user location, a power source operable to provide a first voltage potential at the first electrode and a second voltage potential at the second electrode, and a micro-current control circuit in electrical communication with the first electrode, second electrode and power source. Electrical contact of the first electrode at the first user location and electrical contact of the second electrode at the second user location completes an electrical circuit. The micro-current control circuit generates a micro-current Iramped through a user between the first location and the second location that increases from a start current Istart to an end current Iend over a rise time trise. Oral care devices and micro-current control methods are also disclosed.

Abstract: According to the embodiments described herein, a method for characterizing in vivo operation of a dental prosthetic can include providing subject position data and prosthetic position data. The method may further include transforming the subject position data into a reference three-dimensional coordinate system. The reference three-dimensional coordinate system can be ordered according to a coordinate index. The coordinate index can be based at least in part upon a subject position index of the subject position data. The method may further include comparing, automatically with one or more processors, the prosthetic position data and the reference three-dimensional coordinate system according to a comparison order to characterize the dental prosthetic. The comparison order can be based at least in part upon a prosthetic position index of the prosthetic position data and the coordinate index.

Abstract: A therapeutic micro-current delivery device includes a first electrode in electrical contact with a user at a first user location, a second electrode in electrical contact with the user at a second user location, a power source operable to provide a first voltage potential at the first electrode and a second voltage potential at the second electrode, and a micro-current control circuit in electrical communication with the first electrode, second electrode and power source. Electrical contact of the first electrode at the first user location and electrical contact of the second electrode at the second user location completes an electrical circuit. The micro-current control circuit generates a micro-current Iramped through a user between the first location and the second location that increases from a start current Istart to an end current Iend over a rise time trise. Oral care devices and micro-current control methods are also disclosed.

Abstract: A wearable garment adapted to carry and keep multiple beverages cold (or hot). The garment is similar to an apron in that it has a main body with securing means combined therewith for securing the garment to the user. The garment includes multiple beverage holding compartments combined with the main body of the garment. The beverage holding compartments are positioned horizontally across the garment so that each compartment has an opening at its outside end.

Abstract: A bed monitoring system that remotely monitors a patient bed. The bed monitoring system comprises a bed status system and a master station. The bed status system is coupled to the patient bed and is configured to monitor at least one condition of the bed, and to generate a bed message indicating the status of the monitored condition. The master station, remote from the patient bed, is operatively coupled to the bed status system to receive bed status information. The bed message can include a bed identifier, bed type identifier, patient exit detection signal, bed occupied signal, or various other status signals. The system can also include locating stations that receive the bed messages from any beds within its monitored location, and generates a station message including information from the bed messages. The master station receives the station messages and can determine the status and location of any bed.

Abstract: A bed monitoring system that remotely monitors a patient bed. The bed monitoring system comprises a bed status system and a master station. The bed status system is coupled to the patient bed and is configured to monitor at least one condition of the bed, and to generate a bed message indicating the status of the monitored condition. The master station, remote from the patient bed, is operatively coupled to the bed status system to receive bed status information. The bed message can include a bed identifier, bed type identifier, patient exit detection signal, bed occupied signal, or various other status signals. The system can also include locating stations that receive the bed messages from any beds within its monitored location, and generates a station message including information from the bed messages. The master station receives the station messages and can determine the status and location of any bed.

Abstract: A bed monitoring system that remotely monitors a patient bed. The bed monitoring system comprises a bed status system and a master station. The bed status system is coupled to the patient bed and is configured to monitor at least one condition of the bed, and to generate a bed message indicating the status of the monitored condition. The master station, remote from the patient bed, is operatively coupled to the bed status system to receive bed status information. The bed message can include a bed identifier, bed type identifier, patient exit detection signal, bed occupied signal, or various other status signals. The system can also include locating stations that receive the bed messages from any beds within its monitored location, and generates a station message including information from the bed messages. The master station receives the station messages and can determine the status and location of any bed.

Abstract: An apparatus is configured to control at least one function of a bed located in a room from a remote location outside of the room. The apparatus includes a controller configured to control the at least one bed function, an interface device coupled to the controller, and an input device located at the remote location. The input device is configured to generate a message signal to control the at least one bed function. The message signal is transmitted from the input device to the interface device and from the interface device to the controller to control the at least one bed function from the remote location.

Abstract: An apparatus is configured to control at least one function of a bed located in a room from a remote location outside of the room. The apparatus includes a controller configured to control the at least one bed function, an interface device coupled to the controller, and an input device located at the remote location. The input device is configured to generate a message signal to control the at least one bed function. The message signal is transmitted from the input device to the interface device and from the interface device to the controller to control the at least one bed function from the remote location.

Abstract: An apparatus is configured to control at least one function of a bed located in a room from a remote location outside of the room. The apparatus includes a controller configured to control the at least one bed function, an interface device coupled to the controller, and an input device located at the remote location. The input device is configured to generate a message signal to control the at least one bed function. The message signal is transmitted from the input device to the interface device and from the interface device to the controller to control the at least one bed function from the remote location.

Abstract: A bed status information system for indicating to attending personnel the status of a patient bed includes bed condition input signal generators carried by the bed and coupled to operational elements on the bed, which have one or more monitorable conditions. The signal generators are operable to monitor a bed element condition and input signal indicative of the status of the monitored condition. An interface board on the bed processes the bed condition input signal and generates bed condition messages, which indicate the status of the monitored condition. A processing station remote from the bed is electrically coupled via a datalink to the interface board and is operable to receive the bed condition messages and indicate the status of the patient bed and its operational elements to attending personnel at a location remote from the bed, thereby eliminating the need for constant personnel attendance at the bed.

Abstract: A bed status information system for indicating to attending personnel the status of a patient bed includes bed condition input signal generators carried by the bed and coupled to operational elements on the bed, which have one or more monitorable conditions. The signal generators are operable to monitor a bed element condition and input signal indicative of the status of the monitored condition. An interface board on the bed processes the bed condition input signal and generates bed condition messages, which indicate the status of the monitored condition. A processing station remote from the bed is electrically coupled via a datalink to the interface board and is operable to receive the bed condition messages and indicate the status of the patient bed and its operational elements to attending personnel at a location remote from the bed, thereby eliminating the need for constant personnel attendance at the bed.