Abstract: A method for tracking usage of a pulse oximeter via a network system comprising: uploading a patient information with corresponding pulse oximeter identification data to a network server; connecting the pulse oximeter to a patient monitoring device; acquiring the connected pulse oximeter identification data and status data via the patient monitoring device; acquiring and storing pulse oximeter data using the connected pulse oximeter; transmitting the acquired pulse oximeter data, the acquired pulse oximeter identification data, and the acquired status data to the network server; matching the transmitted pulse oximeter identification data with the uploaded pulse oximeter identification data stored in the network server; and associating the transmitted pulse oximeter data to the patient information.

Abstract: A method for tracking usage of a pulse oximeter via a network system comprising: uploading a patient information with corresponding pulse oximeter identification data to a network server; connecting the pulse oximeter to a patient monitoring device; acquiring the connected pulse oximeter identification data and status data via the patient monitoring device; acquiring and storing pulse oximeter data using the connected pulse oximeter; transmitting the acquired pulse oximeter data, the acquired pulse oximeter identification data, and the acquired status data to the network server; matching the transmitted pulse oximeter identification data with the uploaded pulse oximeter identification data stored in the network server; and associating the transmitted pulse oximeter data to the patient information.

Abstract: Systems and methods for providing a virtual infusion pump 120 are provided. An infusion pump may be used in medical treatment of a patient. One or more sensors may monitor one or more medical factors relevant to a patient. Such monitored factors may be identified as being associated with a recommended action. A virtual infusion pump 120 controller may then formulate instructions for executing the recommended action, wherein the instructions are sent to the infusion pump for execution.

Abstract: In one embodiment, a system (200) comprising a wearable base (104) and a detachable health-parameter sensor apparatus (108) detachably coupled to the base, the detachable health-parameter sensor apparatus automatically and repeatedly monitoring one or more health parameters of a user, and responsive to determining a need for truer readings, instructing the user to locate the health-parameter sensor apparatus to another location on the user.

Abstract: The present disclosure provides devices, systems and methods directed towards smart plurality of sensors for power management. More specifically, the present disclosure provides devices, systems and methods that can reduce the amount of power consumed by the plurality of sensors by evaluating when sensors should be activated or deactivated. By reducing the amount of time a particular sensor is actively polling for information, power consumed by the plurality of sensors associated with the wearable device can be reduced.

Abstract: Systems and methods for monitoring a patient with a specific condition by using a kit with monitoring devices and a corresponding memory device for the specific condition. The system comprises a health monitor, and a plurality of monitoring devices for acquiring patient health data. The kit further comprises one or more monitoring devices—such as pulse oximeters, sphygmomanometers, thermometers, EEG and ECG leads, blood 5 glucose meters, and other health monitoring devices relating to the condition specific to the kit. Such a system may be useful as a means of identifying current patient condition and determining which steps to take in the emergency situation.

Abstract: The present disclosure provides devices, systems and methods directed towards smart plurality of sensors for power management. More specifically, the present disclosure provides devices, systems and methods that can reduce the amount of power consumed by the plurality of sensors by evaluating when sensors should be activated or deactivated. By reducing the amount of time a particular sensor is actively polling for information, power consumed by the plurality of sensors associated with the wearable device can be reduced.

Abstract: In one embodiment, a system (200) comprising a wearable base (104) and a detachable health-parameter sensor apparatus (108) detachably coupled to the base, the detachable health-parameter sensor apparatus automatically and repeatedly monitoring one or more health parameters of a user, and responsive to determining a need for truer readings, instructing the user to locate the health-parameter sensor apparatus to another location on the user.

Abstract: Various embodiments relate to a method of assisting a user with administering a sweat test based on monitoring one or more physiological conditions of the user by a wearable device. In an embodiment, a wearable device may receive an indication of a selected sweat-test type from the user and determine as a function of the sweat-test type, which of the plurality of physiological sensors to use for data collection. Following data collection, it may be determined on the wearable device, if one or more test-triggering physiological conditions are present in the user. If one or more test-triggering physiological conditions are present, instructions to deploy the sweat-test strip to a location of the user and to start the sweat test may be provided to the user. Instructions may also be provided to the user to end the sweat test.