A surgical instrument receives an indication to provide adaptive control of surgical instrument functions. The indication may indicate to provide adaptable staple height operating range, to control motors associated with tissue compression, and/or to operate using the operational parameters associated with previous surgical procedures. The surgical instrument may determine values for parameters associated with the identified function and adapt the control of the identified function based upon the determined parameters. The surgical instrument may adapt a display of staple height operating range based on parameters indicating a size of an anvil head. The surgical instrument may control motors associated with tissue compression based on parameters indicating force applied in the instrument. The surgical instrument may operate according to operational parameters identified by a surgical hub.

A surgical instrument controls communication capabilities between the surgical instrument and a removeable component. The surgical instrument may determine parameters associated with the surgical instrument and the removable component. Based on the parameters, the surgical instrument determines a level or tier of communication between the surgical instrument and the removable component. The surgical instrument may determine to configure one or more of the following levels: one-way static communication with the component; two-way communication with the component; real-time two-way communication with the component; and communication with a surgical hub.

A surgical instrument may have multiple operating modes. An instrument operation mode may be selected from multiple operation modes, which may be preconfigured, dynamically updated, semi-dynamically updated, periodically updated, or preset. Multi-modal instrument operation may control the availability, access, level of use, level of interaction and/or support for one or more capabilities available through an instrument. A multi-modal surgical instrument may be fully operational in multiple modes of operation while varying one or more capabilities based on a mode of operation, such as one or more of sensors, communications, user-instrument interaction, displays, data storage, data access, data aggregation, data analytics, surgical support, feedback, surgical recommendations, etc. An instrument may be configured to determine an operation mode based on one or more instrument operation control parameters, such as system capabilities, system capacity parameters, system condition parameters, system authorization parameters, and/or external control parameters.

Various methods and devices are provided for detecting a device connection based on a magnetic signature. In one example, a host device includes a connector configured to connect to a medical sensor device, a magnetic detection unit positioned proximate the connector and including a magnetic field generator and one or more magnetic field detectors, and a memory storing instructions executable by a processor to determine a magnitude of a magnetic field generated by the magnetic field generator based on output from the one or more magnetic field detectors and in response to detecting a change in the magnitude of magnetic field that is greater than a threshold change, establish a connection with the medical sensor device.

A system may include an electronic device that communicates with one or more wearable tags. The wearable tags may be placed on different parts of a user's body or clothing and may be used for one or more health-related functions such as posture monitoring, sun exposure monitoring, physical therapy, running assistance, fall detection, and other functions. The wearable tag may have different types of sensors that gather different types of sensor data depending on the health-related function that the wearable tag is being used for. A user may configure, control, and receive data from the wearable tag using an electronic device. The electronic device may be used to determine the location of the wearable tag on the user's body and to determine the desired health-related function for the wearable tag based on user input or based on sensor data gathered from the wearable tag.

A perspiration sensing system includes a sensor patch and a smart device. The sensor patch includes one or more perspiration sensing portions. The one or more perspiration sensing portions include an inlet having a predefined size to receive perspiration from a predefined number of sweat glands and an outlet for reducing back pressure. At least one perspiration sensing portion includes a channel having a colorimetric sensing material that changes color when exposed to perspiration. At least one perspiration sensing portion includes a colorimetric assay in a substrate that changes color when exposed to biochemical components of perspiration. The system further includes a smart device having a camera that can take a picture of the sensor patch and determine the volume, rate of perspiration, and/or biochemical components of the perspiration from the one or more perspiration sensing portions.

A device and a method for delivering a flowable ingestible medicament into the gastrointestinal tract of a user. The device includes a vibrating ingestible capsule attached to a medicament delivery compartment. The medicament delivery compartment includes a housing including a portal, a medicament reservoir, a reservoir biasing mechanism applying pressure to the reservoir, a resilient conduit extending from the reservoir to the portal, and a valve including a weight and a spring adapted, when closed, to bias the weight against the conduit so as to block flow therethrough, and, when open, to remove the weight from the conduit to allow fluid to flow through the conduit. When the vibrating agitator is in the vibration mode of operation, vibrations exerted thereby are applied to the valve biasing mechanism and periodically transition the valve between the closed operative orientation and the open operative orientation.

A mobile device, a host device, and an X-ray detector are provided. The mobile device includes a first communicator configured to receive identification information of the X-ray detector from the X-ray detector, and a second communicator configured to send the received identification information of the X-ray detector to the host device.

An electrocardiography patch is provided. A pair of electrodes are exposed on a contact surface of a flexible backing. A circuit includes a pair of circuit traces and each circuit trace is electrically coupled to one of the electrodes in the pair. A plurality of electrical pads are positioned between the electrodes and above at least a portion of the circuit traces. A pair of the electrical pads interface with the electrodes. A pair of battery leads electrically interface a battery to another pair of the electrical pads.

Devices, systems, and methods are disclosed for relaying information from a cardiac pacemaker to an external device. Logic on the pacemaker modulates a heartbeat clock of the pacemaker to encode information onto a blood pressure sequence by adding or subtracting a small subinterval to or from a pulse repetition interval of the pacemaker. A muscle stimulator beats the heart according to the modulated sequence. A monitoring device external to the body monitors the blood pressure to retrieve the encoded information, or message. The encoded information is then decoded to determine the information in the message. This information may concern the pacemaker as well as other devices within the body that communicate with the pacemaker such as blood monitors, etc. Since the message is conveyed via simple modulation of the heart beat intervals, no separate transmitter is required in the pacemaker which would otherwise increase cost and decrease battery life.