Methods, systems, and media are disclosed for detrending a bioelectric signal. In some embodiments, the disclosed system can include a processor configured to receive the bioelectric signal, identify at least one breakpoint section corresponds to a rapid change of amplitude of the bioelectric signal, smooth an amplitude of the bioelectric signal after the at least one breakpoint section; and reconstruct the bioelectric signal based on the smoothed amplitude of the bioelectric signal and a reset of the breakpoint section to remove extrinsic components caused by a non-biological factor from the bioelectric signal.

Devices, systems, and techniques are described for detecting stroke or seizure with a compact system. For example, a system includes a memory, a plurality of electrodes, and sensing circuitry configured to sense, via at least two electrodes of the plurality of electrodes, electrical signals from a patient, and generate, based on the electrical signals, physiological information. The system may also include processing circuitry configured to receive, from the sensing circuitry, the physiological information, determine, based on the physiological information, a seizure metric indicative of a seizure status of the patient and a stroke metric indicative of a stroke status of the patient, and store the seizure metric and the stroke metric in the memory. A housing may carry the plurality of electrodes and contain both of the sensing circuitry and the processing circuitry.

The present disclosure broadly provides applications of communication at ultrasound frequencies to establish transcutaneous data communication between medical devices located on and/or within a body of a patient, including inter alia: features for adjustable implants including data communication, hermetic containment, and torque amplification features.

Embodiments of the present disclosure provide a blood pressure measuring method, a blood pressure measuring apparatus, an electronic device and a computer readable storage medium. The electronic device includes a processor configured to: acquire an electrocardiosignal and a blood oxygen volume wave signal of a target object within a preset measurement period; and determine beat-wise blood pressure values of the target object within the preset measurement period by means of a first trained blood pressure calculation model based on the acquired electrocardiosignal and blood oxygen volume wave signal.

In some embodiments, techniques capable of obtaining high-quality fetal ECG (fECG) information using as few as two composite (maternal and fetal) maternal abdominal ECG (aECG) signals to derive the fetal ECG information are provided. In some embodiments, maternal ECG information and fetal ECG information are both obtained from the aECG signals, and are either presented or stored. The techniques may use novel proposed diffusion-based channel selection criteria. To validate the proposed techniques, analysis results of two publicly available databases are described, and compared with other available techniques in the literature.

A Neurological Rehabilitation method utilizing oculomotor, visual and/or vestibular rehabilitation tasks on subjects with pharmacologically induced neuroplasticity comprising the steps of Inducing neuroplasticity in a subject through administering of a neuroplasticity medicament; Providing a oculomotor, visual and vestibular rehabilitation task platform configured to supply visual targets to a subject for oculomotor, visual and vestibular rehabilitation tasks and track and record eye movement of the subject during oculomotor, visual and vestibular rehabilitation tasks; Performing oculomotor, visual and/or vestibular rehabilitation tasks on the platform with subjects during periods of pharmacologically induced neuroplasticity. The neuroplasticity medicament generally is comprising at least one of an antidepressant, a Brain Derived Neuro trophic factor enhancer, a steroid, a psychedelic, valproic acid, NDRI's, lithium carbonate, Metformin, N-Acetylcystine, and Human Growth Hormone.

Various embodiments of a method and a device for monitoring the health of an infant are disclosed. A wearable infant monitoring device comprising a sensing module 170 comprising: a heart rate sensor 150 configured to provide output data corresponding to heart rate of the infant wearing the infant monitoring device; a microcontroller 100 configured to receive and transmit output data; a vibration motor 140 configured to vibrate whenever the heart rate of the infant falls below a customized range; a BLE module 110 in operational unity with the microcontroller that transmits heart rate data to a user on an individual computing device application 120; a computer device application configured to receive and process the output data and generate the infant's heart rate. A method of monitoring an infant's heart rate using the wearable heart rate monitoring device comprising the heart rate sensor 150 collecting output data, wherein the output data provides information about the infant's heart rate; the microcontroller 100 receiving and transmitting the output data to the BLE module; the BLE module 110 transmitting the output data directly to a user computing device application, which computing device application processes the output data and generates the infant heart rate.

A convenient self-locking blood pressure cuff facilitating one-handed use by a user taking his own blood pressure includes a cuff belt, a casing assembly, and a self-locking structure. The self-locking structure is received in the casing assembly. The self-locking structure includes a core shaft, a locking assembly, and a pressing assembly. The core shaft is slidably connected to the casing assembly. The locking assembly and the pressing assembly are wrapped around the core shaft. The locking assembly can rotate when a free end of the cuff belt moves with respect to the casing assembly. The locking assembly can further press against the cuff belt when the core shaft slides in the casing assembly. The pressing assembly presses against the locking assembly to prevent the locking assembly from rotating back.

There is provided a system for accurately assessing a person's body condition on the basis of measured values of the person's walk. The present invention is a system for evaluating a measurement target walk and the system includes: a measurement apparatus that continuously measures the measurement target walk; and an arithmetic operation apparatus that executes an arithmetic operation based on an output of the measurement apparatus, wherein the arithmetic operation apparatus: computes a walking cycle of the walk; executes extraction of a walk in a state where the walking cycle is stable; and evaluates the measurement target on the basis of a result of the extraction.

Network analysis of a patient's neuro-cardio-respiratory system can be performed to detect an impending crisis, diagnose an abnormality, and/or provide informative feedback about a treatment regime. A system can receive data recorded by one or more recording devices from a patient. The data is time varying and related to two or more organs of the patient's neuro-cardio-respiratory system that are monitored. The system can estimate directional interactions between the two or more organs within the patient's body over time via a mathematical analysis of the data to identify one or more pathologies in a network of the neuro-cardio-respiratory system. When the one or more pathologies are identified, the system can provide the advance warning of the impending crisis, the diagnosis of the abnormality, or the informative feedback for the treatment regime.