Abstract: The present disclosure provides system and method for monitoring of at least one physiological parameter of a person engaged in a physical activity, for example, an impact received by a player engaged in a contact sport such as football. The system includes a monitoring unit that actively monitors the physiological parameter of the person, wherein the monitoring unit generates an alert event when the monitored physiological parameter exceeds a threshold of the parameter. The monitoring unit determines whether the parameter exceeds an over-exposure threshold, wherein said threshold is based upon both a single incidence or cumulative incidences.

Abstract: A new apparatus, system and method for fall prevention training is provided that delivers, studies and analyzes the biomechanics of a disturbance event, such as a slip or trip incident, so that an appropriate response can be executed by the person to reduce or eliminate the number of falls experienced. The apparatus includes a platform that delivers a disturbance event in less than about 500 ms and preferably in the range of about 100 ms to about 200 ms. The method includes a unique protocol for fall prevention training using the apparatus. The disturbance event can create instability in the joint of the individual. An individual's walking gait can be monitored with the portions thereof detected. A disturbance event can be triggered when a given portion of the walking gait is detected. Also, the disturbance even can be triggered manually, at preset intervals or according to preset script.

Abstract: A new apparatus, system and method for fall prevention training is provided that delivers, studies and analyzes the biomechanics of a disturbance event, such as a slip or trip incident, so that an appropriate response can be executed by the person to reduce or eliminate the number of falls experienced. The apparatus includes a platform that delivers a disturbance event in less than about 500 ms and preferably in the range of about 100 ms to about 200 ms. The method includes a unique protocol for fall prevention training using the apparatus. The disturbance event can create instability in the joint of the individual. An individual's walking gait can be monitored with the portions thereof detected. A disturbance event can be triggered when a given portion of the walking gait is detected. Also, the disturbance even can be triggered manually, at preset intervals or according to preset script.

Abstract: A new apparatus, system and method for fall prevention training is provided that delivers, studies and analyzes the biomechanics of a disturbance event, such as a slip or trip incident, so that an appropriate response can be executed by the person to reduce or eliminate the number of falls experienced. The apparatus includes a platform that delivers a disturbance event in less than about 500 ms and preferably in the range of about 100 ms to about 200 ms. The method includes a unique protocol for fall prevention training using the apparatus. The disturbance event can create instability in the joint of the individual. An individual's walking gait can be monitored with the portions thereof detected. A disturbance event can be triggered when a given portion of the walking gait is detected. Also, the disturbance even can be triggered manually, at preset intervals or according to preset script.

Abstract: The present invention provides a novel means of joint and body protection using engineered textiles to provide dynamic kinematic control within the device itself and for the underlying body part. The apparatus may be used in apparel or orthosis wherein a textile is organized about the proximal and distal aspects of a joint or body part and uses the mechanical and material characteristics of the engineered textile to dynamically control the kinetics of the body part and more specifically to prevent the body part from reaching extremes in range of motion. The engineered textiles can be designed to provide non-uniform increases in stiffness in any direction. The engineered textile may incorporate strain or strain rate dependant materials in which case stiffness properties would vary non-uniformly with velocity and/or acceleration within the device allowing for protection from blunt trauma, blast, or ballistic events anywhere on the body.

Abstract: The present invention provides an apparatus and method for determining the magnitude of linear and rotational acceleration of an impact to a body part. The apparatus can be used with protective sports equipment, such as a sports helmet, wherein the apparatus includes a battery, a number of accelerometers positioned proximate to the outer surface of the head, and an electronic device with a processor and a transmitter to transmit data received from the accelerometers. To maximize the battery life and minimize power consumption by the electronic device, the apparatus includes a power management system with a sensor assembly. The sensor assembly sends a first signal to the electronic device to initiate operation when the sensor assembly detects the presence of an object with the helmet, and a second signal to the electronic device to cease operation when the sensor assembly detects the absence of the object.

Abstract: The present invention provides a novel means of joint and body protection using engineered textiles to provide dynamic kinematic control within the device itself and for the underlying body part. The apparatus may be used in apparel or orthosis wherein a textile is organized about the proximal and distal aspects of a joint or body part and uses the mechanical and material characteristics of the engineered textile to dynamically control the kinetics of the body part and more specifically to prevent the body part from reaching extremes in range of motion. The engineered textiles can be designed to provide non-uniform increases in stiffness in any direction. The engineered textile may incorporate strain or strain rate dependant materials in which case stiffness properties would vary non-uniformly with velocity and/or acceleration within the device allowing for protection from blunt trauma, blast, or ballistic events anywhere on the body.

Abstract: A system and method for determining the magnitude of linear and rotational acceleration of and direction of impact to a body part, such as a head includes positioning a number of single-axis accelerometers proximate to the outer surface of the body part. A number of accelerometers are oriented to sense respective linear acceleration orthogonal to the outer surface of the body part. The acceleration data sensed is collected and recorded. A hit profile function is determined from the configuration of the body part and the positioning of the plurality of accelerometers thereabout. A number of potential hit results are generated from the hit profile function and then compared to the acceleration data sensed by the accelerometers. One of the potential hit results is best fit matched to the acceleration data to determine a best fit hit result, which yields the magnitude of linear acceleration to and direction of an impact to the body part.

Abstract: An apparatus for mechanically stimulating a human user includes in one embodiment a base frame, a rigid plate connected to the base frame and having an area sufficient to support a standing human, a vibrational device attached to the bottom of the horizontal plate whereby the plate is caused to oscillate in both vertical and horizontal directions at a desired frequency with an amplitude of less than 2.0 mm, and a frequency control device whereby the frequency of the vertical and horizontal oscillations may be selectively and independently adjusted. Vertically extending handrails are preferably connected to the device such that vibrations may be transmitted to the arms and upper spinal region of a user's body when grasped.

Abstract: A system and method for determining the magnitude of linear and rotational acceleration of and direction of impact to a body part, such as a head includes positioning a number of single-axis accelerometers proximate to the outer surface of the body part. A number of accelerometers are oriented to sense respective linear acceleration orthogonal to the outer surface of the body part. The acceleration data sensed is collected and recorded. A hit profile function is determined from the configuration of the body part and the positioning of the plurality of accelerometers thereabout. A number of potential hit results are generated from the hit profile function and then compared to the acceleration data sensed by the accelerometers. One of the potential hit results is best fit matched to the acceleration data to determine a best fit hit result, which yields the magnitude of linear acceleration to and direction of an impact to the body part.

Abstract: An instrument and method for surgical stimulation of connective tissue are disclosed. The instrument has a plurality of protuberances located on a head connected to a shaft and a handle for manipulation by a surgeon to selectively perforate diseased connective tissue to stimulate a variety of desirable biological responses resulting from bleeding from the intrinsic vasculature of the connective tissue, investing tissue, and adjoining bone.