Physiological monitoring can be provided through a lightweight wearable monitor that includes two components, a flexible extended wear electrode patch and a reusable monitor recorder that removably snaps into a receptacle on the electrode patch. The wearable monitor sits centrally on the patient's chest along the sternum oriented top-to-bottom. The placement of the wearable monitor in a location at the sternal midline, with its unique narrow “hourglass”-like shape, significantly improves the ability of the wearable monitor to cutaneously sense cardiac electrical potential signals, particularly the P-wave and the QRS interval signals indicating ventricular activity in the ECG waveforms. In particular, the ECG electrodes on the electrode patch are tailored to be positioned axially along the midline of the sternum for capturing action potential propagation in an orientation that corresponds to the aVF lead used in a conventional 12-lead ECG that is used to sense positive or upright P-waves.

A system and method for performing an electrocardiogram is described herein. The system may include one or more of an electrode strip, a data recorder, a connector, one or more computing platforms, and/or other components. The electrode strip may include multiple electrodes configured to provide signals conveying information associated with electrocardiograms. The multiple electrodes may be integrated into the electrode strip. The data recorder may be configured to receive and record information associated with electrocardiograms. Information associated with electrocardiograms may be communicated from the electrode strip to the data recorder via a connector. The connector may include a cableless connector. In some implementations, the information associated with electrocardiograms may be transmitted to one or more computing platforms.

A system and method for monitoring body chemistry of a user, the system comprising: a housing supporting: a microsensor comprising a first and second working electrode, a reference electrode, and a counter electrode, and configured to access interstitial fluid of the user, and an electronics subsystem comprising a signal conditioning module that receives a signal stream, from the microsensor, wherein the electronics subsystem is configured to detect an impedance signal derived from two of the first working electrode, the second working electrode, the reference electrode, and the counter electrode; and a processing subsystem comprising: a first module configured to generate an analysis indicative of an analyte parameter of the user and derived from the signal stream and the impedance signal, and a second module configured to transmit information derived from the analysis to the user, thereby facilitating monitoring of body chemistry of the user.

A surgical robotic system including at least one movable cart including a robotic arm having a surgical instrument is disclosed. The system further includes a control tower having at least one component and a power supply system coupled to the at least one movable cart via a cable. The power supply system includes: a tower power supply chassis configured to supply first direct current to the at least one movable cart; a power distribution unit configured to supply second direct current to the at least one component; a first uninterruptable power supply coupled to the tower power supply chassis; and a second uninterruptable power supply coupled to the power distribution unit. The control tower further includes a startup controller configured to control the power supply system to transition between a plurality of power stages.

A system and method are disclosed for the remote detection of otitis media in children at home or in other locations for use in a telemedicine environment. The system runs on a smartphone application and is easy for a child's caregiver to use. The system also includes a pop-open soundwave guide that directs an audio signal from a smartphone's speaker to the patient's eardrum and back to the smartphone's microphone.

A wearable sensing device (100) for sensing one or more physiological signals of a subject, comprising: a sensor unit (200), including a housing, a connection receptacle (210) and electronic circuitry configured for acquiring one or more physiological signals received via the connection receptacle; a patch unit (300), including a connection plug (310) connected via conductive tracks (341) to a plurality of electrodes (342) configured for sensing the one or more physiological signals. The connection plug (310) is configured for being connectable with the connection receptacle (210) such that the one or more physiological signals sensed by the electrodes (342) are transmitted to the electronic circuitry of the sensor unit (200). The patch unit (300) comprises at least one top layer (380) and at least one bottom layer (360, 330), each including an adhesive material, such that the at least one top layer (380) is configured to be attachable to a surface of the housing and the at least one bottom layer (360, 330) is configured to be attachable to the skin of the subject.

A clamping device of an external fixation system that has a jaw set with a passage at one end configured to hold an element from a first range of sizes and a second passage configured to hold an element from a different range of sizes. The jaw set includes a first jaw, a second jaw, and a slider interposed between the first and second jaws that moves to a first position when the first element is located in the first passage and to a second position when the second element is located in the second passage.

A composite thread includes first and second segments joined to each other. The first segment comprises a functional segment that interacts with an environment of the thread. The second segment communicates information between the first segment and a point external to said composite thread.

An integrated glucose monitoring system comprising a glucometer and mobile device housed in a housing. The glucometer includes a measurement component to receive a blood glucose test strip containing a sample of blood of an individual, and a port to transmit the blood glucose measurement to a mobile device. The mobile device communicatively and physically coupled to the glucometer. The mobile device includes a port configured to couple with the glucometer, a communication component to receive the blood glucose measurement from glucometer, a power management component to transmit power to the glucometer, and another port to receive power from a power source to power the mobile device. The housing is to house the glucometer and the mobile device to form a single solitary glucose monitoring system.

The present disclosure provides a sleep monitoring garment and a sleep monitoring system. The sleep monitoring garment includes a wearable textile structure; a first monitoring band circumferentially extending along the wearable textile structure; a second monitoring band circumferentially extending along the wearable textile structure and with a distance to the first monitoring band; and an interface communicatively coupled with the first monitoring band and the second monitoring band.