Method for expert system to dynamically adapt fitness training plans

1. A method comprising:

receiving a rate of perceived exertion (RPE) through a user interface of a display device;

combining the RPE with a movement, a movement load, and movement repetitions into movement set data;

operating a dynamic exertion algorithm to:

generate a prescribed load and prescribed movement repetitions from a one repetition maximum load value, historical movement set data, a relative exertion model and a calibration and adjustment model, wherein the relative exertion model defines a relationship between the movement load, the movement repetitions, and the RPE, and the relative exertion model determines an expected RPE;

determine a difference in RPE from the expected RPE through operation of a comparator;

recalculate the one repetition maximum load value using the calibration and adjustment model when the difference in RPE is greater than an RPE threshold value; and

generate a display control comprising the prescribed load and the prescribed movement repetitions; and

displaying an adjusted movement information display comprising the prescribed load and the prescribed movement repetitions through the user interface, in response to configuration of a user interface controller with the display control.

2. The method of claim 1 further comprises:

operating the dynamic exertion algorithm further comprises:

generate the prescribed movement repetitions from a maximum repetitions value, the historical movement set data, a repetition-based relative exertion model and the calibration and adjustment model, wherein the repetition-based relative exertion model defines a relationship between the maximum repetitions value, the movement repetitions, and the RPE, and the repetition-based relative exertion model determines the expected RPE;

determine the difference in RPE from the expected RPE through operation of the comparator;

recalculate the maximum repetitions value using the calibration and adjustment model when the difference in RPE is greater than the RPE threshold value; and

generate the display control comprising the prescribed movement repetitions; and

displaying the adjusted movement information display comprising the prescribed movement repetitions through the user interface, in response to the configuration of the user interface controller with the display control.

3. The method of claim 1 , wherein the adjusted movement information display comprises an RPE request in response to the user interface controller receiving an RPE request control with the display control.

4. The method of claim 3 , wherein the RPE request control is generated by the dynamic exertion algorithm from the historical movement set data.

5. The method of claim 1 , wherein the dynamic exertion algorithm generates the prescribed load and the prescribed movement repetitions from a related historical movement set data.

6. The method of claim 1 , wherein receiving the RPE through the user interface of the display device is performed after each movement set.

7. The method of claim 1 , wherein the receiving, combining, determining, operating, and displaying steps are performed after each movement set.

8. The method of claim 1 , wherein a relative intensity adjustment algorithm recalculates the one repetition maximum load value when the difference in movement repetitions is greater than a movement repetition threshold value.

9. The method of claim 1 , wherein the relative exertion model comprises expected RPE values charted against movement repetition values and completed intensity percentage values, wherein a particular expected RPE value corresponds to a particular completed intensity percentage value and a particular movement repetition value.

10. A computing apparatus comprising:

a processor; and

a memory storing instructions that, when executed by the processor, configure the apparatus to:

receive a rate of perceived exertion (RPE) through a user interface of a display device;

combine the RPE with a movement, a movement load, and movement repetitions into movement set data;

operate a dynamic exertion algorithm to:

generate a prescribed load and prescribed movement repetitions from a one repetition maximum load value, historical movement set data, a relative exertion model and a calibration and adjustment model, wherein the relative exertion model defines a relationship between the movement load, the movement repetitions, and the RPE, and the relative exertion model determines an expected RPE;

determine a difference in RPE from the expected RPE through operation of a comparator;

recalculate the one repetition maximum load value using the calibration and adjustment model when the difference in RPE is greater than an RPE threshold value; and

generate a display control comprising the prescribed load and the prescribed movement repetitions; and

display an adjusted movement information display comprising the prescribed load and the prescribed movement repetitions through the user interface, in response to configuration of a user interface controller with the display control.

11. The computing apparatus of claim 10 , wherein the instructions further comprise:

operate the dynamic exertion algorithm to:

generate the prescribed movement repetitions from a maximum repetitions value, the historical movement set data, a repetition-based relative exertion model and the calibration and adjustment model, wherein the repetition-based relative exertion model defines a relationship between the maximum repetitions value, the movement repetitions, and the RPE, and the repetition-based relative exertion model determines the expected RPE;

determine the difference in RPE from the expected RPE through operation of the comparator;

recalculate the maximum repetitions value using the calibration and adjustment model when the difference in RPE is greater than the RPE threshold value; and

generate the display control comprising the prescribed movement repetitions; and

display the adjusted movement information display comprising the prescribed movement repetitions through the user interface, in response to the configuration of the user interface controller with the display control.

12. The computing apparatus of claim 10 , wherein the adjusted movement information display comprises an RPE request in response to the user interface controller receiving an RPE request control with the display control.

13. The computing apparatus of claim 12 , wherein the RPE request control is generated by the dynamic exertion algorithm from the historical movement set data.

14. The computing apparatus of claim 10 , wherein the dynamic exertion algorithm generates the prescribed load and the prescribed movement repetitions from a related historical movement set data.

15. The computing apparatus of claim 10 , wherein receiving the RPE through the user interface of the display device is performed after each movement set.

16. The computing apparatus of claim 10 , wherein the receiving, combine, determining, operating, and displaying steps are performed after each movement set.

17. The computing apparatus of claim 10 , wherein a relative intensity adjustment algorithm recalculates the one repetition maximum load value when the difference in movement repetitions is greater than a movement repetition threshold value.

18. The computing apparatus of claim 10 , wherein the relative exertion model comprises expected RPE values charted against movement repetition values and completed intensity percentage values, wherein a particular expected RPE value corresponds to a particular completed intensity percentage value and a particular movement repetition value.