Other

Scott B Radow

David Arthur Blau

Frank D Sundermeyer

An exercise system includes a movable input member and a brake. The system further includes a controller that may be configured to control a resistance force of the brake acting on the movable input member to synchronize movement of the movable input member with a music beat. The controller may utilize a difference between a target speed and a measured speed, and a difference between a target phase and a measured phase to control the resistance force. One or both of the target speed and the target phase may be determined, based at least in part, on a music beat or other repetitive input.

Exercise equipment with music synchronization

A control system and method for exercise equipment and the like provides a way to simulate a physical activity in a manner that takes into account the physics of the physical activity being simulated to provide an accurate simulation. According to one aspect of the present invention, the control system and method takes into account the physics of the corresponding physical activity to generate a virtual or predicted value of a variable such as velocity, acceleration, force, or the like. The difference between the virtual or expected physical variable and a measured variable is used as a control input to control resistance forces of the exercise equipment in a way that causes the user to experience forces that are the same or similar to the forces that would be encountered if the user were actually performing the physical activity being simulated rather than using the exercise equipment.

Exercise device

An exercise and performance evaluation apparatus includes a revolving belt on which a subject can perform bipedal locomotion, a harness for securing the subject at a fixed position relative to the apparatus, a means for measuring the force applied by the subject to the belt, and a means for monitoring and controlling the velocity of the belt. The harnessing of the subject allows monitoring of the velocity as a function of time. An overhead harness may be used to alter the effective mass of the subject. The velocity of the belt may be controlled by a motor and brake system, where the motor may be uni-directional or bi-directional. A digital processor may be used to control the motor and/or brake as a function of the applied forces to simulate real-world or virtual world environments, allowing the operation of the device in modes such as constant-force modes, constant-load modes, constant velocity modes, sprint simulation mode, bob sled simulation mode, terminal velocity determination mode, isokinetic overspeed mode, and isotonic overspeed mode. Processing of the velocity and force as a function of time allows for the recording and analysis of data such as the maximal exertion force-velocity curve, left leg/right leg performance, force as a function of stride, etc.

Exercise device and method for simulating physical activity

Stationary exercise equipment

Bipedal locomotion training and performance evaluation device and method

An exercise and performance evaluation apparatus including a revolving belt or other engagement surface on which a subject can perform forward, backward, or sideways bipedal locomotion or other exercise movement, a means for securing the position of the subject relative to the frame of the apparatus, a means for measuring the force applied by the subject to the engagement surface, and a means for monitoring and/or controlling the velocity of the engagement surface. Securing the subject relative to the frame of the apparatus facilitates monitoring velocity as a function of time. Processing of velocity and force as a function of time allows for recording and analysis of data such as the maximal exertion force-velocity curve. Force-velocity-duration data for exertions is analyzed in terms of an intensity function. The apparatus allows exertions to be performed throughout, and outside, the first quadrant of a force-velocity-duration space.

A bipedal locomotion exercise and performance evaluation apparatus including a revolving belt, a harness for securing the position of a subject on the belt, a harness-force measuring means, and a belt volocity monitoring and controlling means. The harness may be secured on various points of a subject and includes push/pull engagement means. An overhead harness may be used to reduce effective body mass. The velocity of the belt may be controlled by a unidirectional or bidirectional motor/brake system. Velocity of the belt may also be controlled by a brake only. A digital processor may be used to control the motor and/or brake as a function of the forces applied allowing multiple operating modes. Recording of velocity and force as functions of time facilitates analysis of exercise performance. The apparatus allows exertions throughout the first quadrant of a force-velocity-duration space, and outside that first quadrant.

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Miami Beach, FL, United States of America

Scott B Radow