A wearable continuous analyte monitoring (CAM) device includes a disposable sensor unit and a long-life reusable transmitter unit. The transmitter unit has no power source and has an enclosure that seals wireless transmitter circuitry within. The disposable sensor unit is configured to receive and provide power to the transmitter unit therein. Upon expiration of the disposable sensor unit, the transmitter unit can be removed from the disposable sensor unit and reused in another disposable sensor unit with a fresh power source. The CAM device has a cover constructed of a fabric material to improve aesthetics and feel of the CAM device. Methods of preparing and applying the CAM device to a user's skin are also provided, as are other aspects.

A noninvasive blood pressure monitor. The noninvasive blood pressure monitor may include an inflatable cuff, a pressure transducer, one or more air pumps, and a processor. The processor may control the air pump(s) so as to initiate inflation of the cuff. The processor may also identify an oscillometric signal in an output of the pressure transducer, and may determine an envelope of the oscillometric signal. The processor may also determine one or more characteristics of the envelope of the oscillometric signal, and may control the air pump(s) so as to stop inflation of the cuff based on the one or more characteristics of the envelope of the oscillometric signal.

Various embodiments provide a wellness tracking device with a base plate that may be utilized as a combination electrode by a variety of sensors. The base plate may be a multi-material electrode that includes a conductor and a transparent or semi-transparent material to enable optical sensing. In certain embodiments, the base plate supports a plurality of different sensors, which may selectively utilize the base plate as an electrode.

A method of determination of a zero flow level for pulmonary function test devices and a stand of determination of the zero flow level used for implementing the method are provided. The method of determination of the zero flow level enabling the zero flow level of the pulmonary function test devices to perform under suitable conditions and the stand of determination of the zero flow level used for implementing the method are developed.

A charging device for a physiological signal transmitter is disclosed. The charging device includes a transmitter placing seat, and a controlling module controlling an operation between the charging device and the physiological signal transmitter in a safe state. When the physiological signal transmitter is at the predetermined position, the locking portion unlocks the operating portion to perform one of driving the second electrical connecting port to move from the first position to the second position to electrically connect to the first electrical connecting port and driving the second electrical connecting port to move from the second position to the first position to electrically disconnect to the first electrical connecting port.

Methods and devices and systems including a communication module operatively coupled to a data collection module for communicating the stored analyte related data after the analyte related data is stored in the data collection module over a predetermined time period, and a user interface unit configured to communicate with the communication module to receive from the communication module the stored analyte related data in the data collection module over the predetermined time period, and to output information associated with the monitored analyte level, where the user interface unit is configured to operate in a prospective analysis mode including substantially real time output of information associated with the monitored analyte level, or a retrospective analysis mode including limited output of information during the predetermined time period wherein no information related to the monitored analyte level is output during the predetermined time period, are provided.

Devices, systems and methods are disclosed that allow a patient to self-treat a medical condition, such as headache, by noninvasive stimulation of a nerve. A system comprises a stimulator having an interface configured to contact an outer skin surface of a patient and an energy source coupled to the interface. The energy source transmits an electrical impulse through the interface transcutaneously through the outer skin surface of the patient to a nerve of the patient such that the nerve is modulated. The system further comprises a mobile device coupled to the stimulator to transmit data to the stimulator. The data includes a therapy regimen to reduce one or more symptoms of a headache in the patient.

Devices, systems and methods are disclosed that allow a patient to self-treat a medical condition, such as migraine headache, by electrical noninvasive stimulation of a vagus nerve. The system comprises a stimulator that applies an electrical impulse transcutaneously through an outer skin surface of the patient. The electrical impulse includes pulses having a frequency of about 1 kHz to about 20 kHz. The device housing may transmit data to or from a patient interface device, such as a mobile phone or computer, relating to the stimulation parameters. The interface device in turn may communicate with a database contained within other computers, via a network or the internet.

Medical patient monitoring sensor devices including a disposable sensor assembly and a reusable pairing device are disclosed. The disposable sensor assembly can collect patient physiological data and provide power for the reusable pairing device. The reusable pairing device can establish wireless communication with a monitoring device. Once the reusable pairing device receives patient physiological data from the disposable sensor assembly, the reusable pairing device can wirelessly transmit the data to the computing device via the wireless communication.

A charging device for a physiological signal transmitter used to receive a physiological signal from the subcutaneous tissue of a living body and having a first electrical connecting port is disclosed. The charging device includes a transmitter placing seat and a charging module. The transmitter placing seat includes a bearing surface for placing the physiological signal transmitter and an opening configured to align with the first electrical connection port of the physiological signal transmitter. The charging module includes a second electrical connecting port, a third electrical connecting port, a circuit assembly and a control module. The second electrical connecting port is disposed in the opening, and driven to move between a first position and a second position. The third electrical connecting port connects to a power source.