The invention relates to an automatic reflection hammer system, which comprises the following components: a reflective hammer chassis, an outer side having a detachable reflection hammer head, and a pulley, a universal joint, a vertical height adjustment mechanism, and a fixing bracket. Wherein, the reflection hammer chassis links with the universal joint, the universal joint links to the vertical height adjustment mechanism, and the vertical height adjustment mechanism links with the fixing bracket.

A system includes a first device having a handle, a head coupled to the handle, a bumper supported by a first end of the head and adapted to be used to strike a patient tendon, a force sensor coupled to the bumper and adapted to generate force data in response to force encountered by the bumper and to generate force data, a first accelerometer coupled to generate head acceleration data in response to movement of the head, and first circuitry to capture the force data and acceleration data. The system may further include second device having a housing adapted to be coupled to the patient limb, a second accelerometer supported by the housing to generate limb acceleration data, and second circuitry to capture the acceleration data.

Systems and methods for digital reflex quantization and signature analysis. Movement of a stimulating device invoking a reflex response in an organism is captured as stimuli data. Electromyographic (EMG) of the reflex response is captured as EMG data. Movement resulting from the reflex response of a limb/appendage of the organism is captured as motion data. One or more of the stimuli data, the EMG data, and the motion data are analyzed to determine one or both of a motion signature and an EMG signature defining quantitative evaluation of the reflex response.

The invention relates to an automatic reflection hammer system, which comprises the following components: a reflective hammer chassis, an outer side having a detachable reflection hammer head, and a pulley, a universal joint, a vertical height adjustment mechanism, and a fixing bracket. Wherein, the reflection hammer chassis links with the universal joint, the universal joint links to the vertical height adjustment mechanism, and the vertical height adjustment mechanism links with the fixing bracket.

A system for elucidating physiological characteristics of laryngeal adductor reflex (LAR) responses in a human or animal subject's larynx's vocal folds (VFs) includes a pressure pulsing component to provide a stable and adjustable pulse of pressure to the larynx, a control system component in functional communication with the pressure pulsing component to control or regulate one or more aspects of the timing, magnitude and number of pulses of pressure delivered by the pressure pulsing component during respiratory cycles, and a respiratory sensor component to detect and/or determine physiological characteristics of the subject's LAR response. The method includes evoking a LAR response in the subject and determining one or more physiological measurements including duration, velocity, and angles of motion of the subject's VFs during the LAR response. The present disclosure provides for enhanced endoscopic field of view of the larynx and delivering stimuli over a wider range of controlled parameters.

Systems and methods for digital reflex quantization and signature analysis. Movement of a stimulating device invoking a reflex response in an organism is captured as stimuli data. Electromyographic (EMG) of the reflex response is captured as EMG data. Movement resulting from the reflex response of a limb/appendage of the organism is captured as motion data. One or more of the stimuli data, the EMG data, and the motion data are analyzed to determine one or both of a motion signature and an EMG signature defining quantitative evaluation of the reflex response.

Disclosed herein are apparatus and methods for delivering bone conduction stimuli for measuring the gravitation receptor functions of the inner ear. In some embodiments, a system may include (i) an impactor operatively linked to a guide disposed within a housing and (ii) an electrically driven actuator enclosed within the housing. The electrically driven actuator may be configured to cause the impactor to (i) travel to a striking point to deliver a mechanical bone conduction stimulus for transmission to a skull bone and (ii) controllably decelerate prior to the instance of stimuli delivery. The system may also include an oculometric response monitoring system including a video camera for capturing video of motion of one or more eyes of the patient.

Systems, methods, and devices include a multi-sensor scanning device for characterizing a health parameter. A scanning portion formed at an end of the multi-sensor scanning device includes a first sensor assembly. The first sensor assembly has a glass section forming a contact surface and/or one or more LEDs operable to provide electromagnetic waves to an interior of the glass section. The first sensor assembly also includes a light sensor directed at a transmission surface of the glass section. Additionally, the system includes a second sensor assembly involving one or more sensors directed at a same target area as the contact surface. Also, the one or more sensors of the second sensor assembly include an electrically conductive coating formed onto the contact surface and/or one or more electrical transducers deposed at least partly around the contact surface. The device can be a platform with a standing portion.

Systems, methods, and devices include a platform with a transparent material which defines a first measurement surface. Light surfaces are positioned to provide light into the transparent material and cause a Frustrated Total Internal Reflection (FTIR) event responsive to contact at the first measurement surface. The system also includes one or more wearable devices having a base material operable to cover a portion of a human body. An inner surface of the base material defines a second measurement surface. Furthermore, one or more sensors disposed on the base material are operable to collect data at the second measurement surface. Additionally, the health parameter monitoring system presents at the display, such as a virtual reality (VR) headset, locomotion regimen information. The system collects first health parameter data from the first measurement surface based on the FTIR event; and/or second health parameter data from the second measurement surface.

Systems, methods, and devices include a health parameter detection device. The device includes a platform with a measurement surface being a first surface. The measurement surface is operable to contact a target area of a user. The device includes one or more light sources disposed adjacent to the transparent material and operable to transmit light into the transparent material. Also, the device includes an interior mirror forming a first angle with the measurement surface; and/or a camera, such that the camera is operable to receive a scattered light caused by a frustrated total internal of reflection (FTIR) event occurring at the measurement surface and reflecting from the mirror. The platform can form part of at least one of a treadmill machine, an elliptical machine, a rowing machine, a stair stepping machine, or a leg press machine.