Nautilus, Inc.

Johnson Health Tech Retail, Inc.

Joshua S Smith

Pj M Bush

Benjamin A Browning

P J M Bush

A user-specific workout can be generated by adjusting transform parameters of a user-agnostic training profile to conform to a user boundary specifying a user's ability to perform work. The user-agnostic training profile can be defined in a training space, specifying a power curve in a time domain whereas the user boundary can be defined in a boundary space, specifying amounts of user-produced work in a time window size domain. A training boundary can be generated based on the user-agnostic training profile by determining the largest area under the user-agnostic training profile power curve for various time window sizes, where each largest area under the user-agnostic training profile power curve produces a data point for the training boundary for that window size domain value. The training boundary can be transformed based on the user boundary, causing corresponding transformations to the user-agnostics training profile, converting it to a user-specific workout.

Workout generation based on user-agnostic training profiles and user boundaries

An adaptive training system can determine a finite work capacity and critical power and use those determinations to generate an adaptive training programs for workout parameters. To determining a finite work capacity and critical power, the adaptive training system can receive workout data; generate data points by determining, for each workout, a maximum amount of work done for each of multiple time window sizes; fit these workout data points to a function; and determine a critical power and finite work capacity based on the fitted function. Once the adaptive training system has determined a critical power and finite work capacity, the adaptive training system can use them to generate an adaptive training program by keeping a function defined by a set of workout parameters below an ability function that is based on the critical power and finite work capacity.

Critical power adaptive training with varying parameters

An exercise machine having non-matched cable pairing is provided. The exercise machine may include a frame, a resistance element, at least a first plurality of corresponding engagement points and a second plurality of corresponding engagement points operatively associated with the frame, and first and second elongated flexible members routed through a pulley system. The first flexible member may be operably associated with the resistance element and may include opposing cable portions associated with and extending between one of the first plurality of corresponding engagement points and another engagement point not in the first plurality of corresponding engagement points. The second flexible member may be operably associated with the resistance element and may include opposing cable portions associated with and extending between another of the first plurality of corresponding engagement points and another engagement point not in the first plurality of corresponding engagement points.

Exercise machine having non-matched cable pairing

A power measurement apparatus for an exercise machine may include an optical sensing component and a pair of code wheels supported by the frame of the exercise machine. The pair of code wheels may include a first code wheel having a plurality of first windows and a second code wheel having a plurality of second windows that individually at least partially overlap respective ones of the first windows to define respective effective window, the width of which may vary responsive to the application of power via at least one moment-producing assembly. The optical sensing component is operatively associated with the pair of code wheels to detect variations in the width of the effective window and thus measure the power applied via the moment-producing assembly.

Stationary exercise machine with a power measurement apparatus

A lateral elliptical trainer includes foot support platforms and an adjustment system configured to adjust the amount of lateral movement of the foot support platforms. The adjustment system includes a cable operative to adjust the amount of lateral movement of the foot support platforms. The cable is coupled to an actuator that is controllable by a user to enable the user to set the amount of lateral movement of the foot support platforms.

Lateral elliptical trainer

An adjustable pedal assembly for an exercise machine, such as an elliptical trainer, may include a link and a pedal pivotally connected to the link The pedal assembly may further include a damping assembly, which may provide dynamic damping to the pedal during use of the exercise machine. The damping assembly may be adjustable such that a user can select the level of damping. The damping assembly may include at least one resilient member configured to engage the pedal for damping pivotal movement of the pedal, and an actuator operable to selected a level of damping provided to the pedal by the at least one resilient member.

Pedal assembly for exercise machine

A stationary exercise machine in accordance with some examples herein may include a frame, a crankshaft rotatably supported by the frame, an upper moment-producing mechanism and a lower moment-producing mechanism both operatively engaged to the crankshaft to cause the crankshaft to rotate. The lower moment-producing mechanism and the upper moment-producing mechanism may be resiliently coupled to one another, such as via a resilient coupling between a crank arm of the lower moment-producing mechanism and a link or virtual crank arm or the upper moment-producing mechanism. The exercise machine may further include a measurement apparatus which may be configured to measure differential forces between the upper and lower mechanisms.

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Portland, OR, United States of America

Joshua S Smith