A peg (3) is placed on a peg board (2) by a subject. A detection unit (32) detects a contact state between a peg body (31) and a body portion of the subject. A signal transmission unit (33) transmits a signal indicative of a detection result from the detection unit (32).

A method and system utilizing one or more agricultural drones to improve the real-time monitoring, measuring and analysis of the health of livestock, in particular, the core body temperatures thereof.

A microcontroller coupled to sensors integrated into a physical toy for monitoring free play activity of a human subject wherein patterns in play activity sensed by the microcontroller are graphically visualized for identification of behavioral milestones, developmental progress and/or behavioral disorders. Specifically, accelerometers detect movement of toys which determine: (1) if the toy is being played with; and (2) the intensity in which the toy is moved. Pressure sensors detect the level and location in which a child may hold a toy. Synchronized with an audiovisual record of the play therapy session and a computer-generated avatar representation of the physical object, this data is integrated to find peak levels of behavior giving clinicians more efficient analytical tools.

The present disclosure relates to methods, non-transitory computer readable media, and devices, for detecting virtual reality sickness causing content in virtual reality motion simulators. A visual perception measurement of a virtual reality content being displayed on a head-mounted virtual reality device of a virtual reality motion simulator is determined. A vestibular perception measurement of the virtual reality content is then determined. The visual perception measurement and the vestibular perception measurement of the virtual reality content are compared. An indication of a user experience in the virtual reality motion simulator is determined based on the comparison and the indication of the user experience is output.

A heartrate monitor distributed adjusted reality system for producing rendered environments includes an eyewear device and a neckband formed from a first arm, second arm, and computation compartment. Optical, electrical and visual sensors are distributed across the neckband and eyewear device at points of contact with a user's tissue. Machine learning modules combine optical, electrical and visual measurements produced by the optical, electrical and visual sensors to determine a user's heartrate and/or other vitals. The neckband and eyewear device may be capable of adapting an adjusted reality environment in response to a determine user heartrate or other vitals.

An aspect of the invention relates to a robot including an operation determining unit that selects an operation of the robot, a drive mechanism that executes the operation selected by the operation determining unit, a body temperature detecting unit that detects a basic body temperature of a user, and a physical condition determining unit that determines a physical condition of the user based on a basic body temperature cycle of the user. When the basic body temperature of the user reaches a predetermined consideration timing in the basic body temperature cycle, the robot changes an amount of activity thereof.

The present disclosure relates to methods, non-transitory computer readable media, and devices, for detecting virtual reality sickness causing content in virtual reality motion simulators. A visual perception measurement of a virtual reality content being displayed on a head-mounted virtual reality device of a virtual reality motion simulator is determined. A vestibular perception measurement of the virtual reality content is then determined. The visual perception measurement and the vestibular perception measurement of the virtual reality content are compared. An indication of a user experience in the virtual reality motion simulator is determined based on the comparison and the indication of the user experience is output.

According to some embodiments there is provided a method for measuring tongue tissue impedance of an individual, comprising placing at least two electrodes in contact with tongue tissue of the individual; and measuring impedance of the tongue tissue. Some embodiments relate to a device configured for measuring tongue tissue impedance. In some embodiments, a fluid balance and/or electrolyte balance are assessed according to the measured impedance.

According to embodiments, a system for processing a physiological signals is disclosed. The system may comprise a sensor for generating the physiological signal. The system may comprise a processor configured to receive and process the physiological signal in order to improve interpretation and subsequent analysis of the physiological signal. The processor may be configured to generate a wavelet transform based on the physiological signal. The processor may be configured to determine phase values corresponding to the subject's respiration based on the wavelet transform. The processor may be configured to generate a sinusoidal waveform that is representative of the subject's breathing based on the phase values. The system may also comprise a display device configured to display the sinusoidal waveform.

An activity tracking device is defined to detect and record movement of a person to which the activity tracking device is affixed. A secondary electronic device is defined separate from the activity tracking device. The secondary electronic device is defined to receive data from the activity tracking device regarding the detected and recorded movement of the person. A website is defined to communicate with connected devices including the secondary electronic device. The website is defined to provide a user account for the person. The website is defined to convey information regarding the detected and recorded movement of the person through the user account.