Bill Hartman 36:54–38:46
If it's a range of motion problem, we do the exact same thing. We're tracking a number of things over time, and then we kind of see what's most important, what we really need to do. Here's the cool thing: with the model that I've constructed, we have representations of certain behaviors which people are biased towards. We know what you're supposed to be good at already, and then we compare that and say how that changes over time and what influences that over time. We actually have archetypes. When we talk about people with wide infrastructural angles or narrow infrastructural angles, there's a whole archetype. We're not just looking at that angle as a singular entity. What we're looking at is how this person produces force compared to somebody who has maybe a more steep helical angle. How does this influence what range of motions they're going to be biased towards? Your narrow ISA people tend to have more external rotation. So the layback and end position tends to be more naturally produced. They're all biased towards certain things. We monitor these things over time, and that's how you do it. You can't just say that here's the quarterback program because this is throwing and then apply it to everybody the same way. We apply the principles the same way, but we have to monitor them for change because we don't know what the outcome is going to be. Somebody might need a lot of strength training; somebody might not need very much at all to make the same effective change because of what they bring to the table. All of this is idiosyncratic. It's very individualized. What we're using is a model to help us determine the best course of interventions. It's the best starting point, and that allows us to make better decisions along the way.
range of motionbiomechanical archetypesindividualized traininginfrastructural anglesforce production