Bill Hartman 17:49–19:24
And again, it's not hiding. It's in the literature. You can see all this. You just have to put the pieces together and actually see it for what it is. I should just blast that all over the internet because that's—you know—okay, but see, and then people will say, 'But look at all the range of motion that I gave!' It's okay. You think you're performing a stretch for a muscle. Guess who created the concept of muscles? Humans did. That's like saying we're made of stuff, but we're the ones that gave it a name. So you say, 'I'm stretching a quadriceps. I'm stretching a calf. I'm stretching a hamstring. I'm stretching a pec.' The reality is that you're promoting a shape change that may actually be favorable in the end, but the actual muscle that you're yanking on is not where you're going to make the change. You're going to make the change in some other way, shape, or form—I'm making a pun there, 'shape or form.' You're going to make a shape change that's going to allow you to access ranges of motion. What you should notice, though, is that as you achieve that range of motion, there will be no sensation of stretching. That would be an eccentrically oriented muscle, and then you actually made the appropriate shape change. You actually expanded the muscle. You reduced the internal pressure in that muscle itself, allowed it to expand, and allowed you to access that range of motion with no tension at all. Which is why, when you do make a favorable shape change, that's why the motion feels easy and effortless. If you're yanking and pulling on things and you're expecting that muscle to change, good luck—it's not going to happen.
static stretchingmuscle orientationshape changeconnective tissue behaviorflexibility reserve