Well S1,
I have just read Vaughn's pp 182-190 on GS. Just for the record, I did a very elementary test years ago with my swift, out to 400 yards with targets set up at various ranges with hollow target frames so the bullets passed through the paper and continued to the next target. It was a bear to set up. I found that it was mathematically possoble for my swift, a rem 700 VS-SFP to shoot better at 400 yards than it does at 100. (Not quite 4 times as big at 4 times the range). After discussing it with a reputable shooter, He told me that the "going to sleep" effect of a bullet was vaguely discussed and documented. I took from it what I could and never really tried to find more because it took an entire day to set up the targets and by some act of God, I actually had perfect conditions to test in. I figured, I'd better not ask for that again, I allready owed someone something. Now, at this time, I set my gun on a very solid bench aimed at the farthest target to be slightly right of center. The target was an 8-1/2x11 sheet of paper with 2 crosshairs on it. Why 2 I don't know because I only need one to set up. Then, I took the next target and set it up on a tripod so it was also infront of the crosshairs, and it had another mark on it for the drop compensation at it's range. These were extra sheets taped on the top of the target because of the ~20" of drop at 400 yards. And so on until I had a target at 100 yards with little crosshairs on it for an aiming spot that "should" put holes in all the targets in between. I shot that test in possibly the calmest conditions I have ever seen, save but for in a fog. All the targets are centered perfectly, (hanging on my reloading room wall). The moral of the story is, they didn't move right, left, anywhere but where my very uneducated guess would have put them.
I liken this to back when we were kids playing wiffleball. (or even adults playing with golf wiffleballs). These particular projectiles while spinning, will have all sorts of cause and effect. A golf ball may leave the club and actually CLIMB because of the spin on it. I have done it with the real thing, and wiffleballs. Now, this projectile presents the same profile to the air at any point in it's flight path. How is it then that I never see the corkscrew effect that I should be looking for and why do they not have the same gyroscopic properties that a bullet exibits. Granted, the axis of rotation is perpendicular at least at some time, but, if vaughns theory is correct, the nice round wiffleball should at some point in its travels, change axis. Basically, he is saying that the bullet WANTS to yaw. Why does it stop!
Having played with gyroscopes as a kid (had some real nice ones too!) I cannot see where the bullet in question could exhibit the behaviour you both describe. In my experience, the more you spun a gyroscope, the more stable it became. Well, we're talking about, some new kinda rpm's here. I certainly don't profess to know all the physics goin on here, but, having watched a few baseball games in my time, where they throw round balls, I'd say that air has a lot more to do with this than meets the eye. I will not way that your conclusion is wrong, just that there is a better chance that both conditions/results exist.
Just for the record, I like my theory better
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