From my understanding of it, your results are well-supported by the compensation theory. However, the question over which this thread arose quite some time ago had to do with the idea of bullets going to sleep at some point after exit from the muzzle and how that might explain the notion that smaller angular dispersion could be obtained at a longer distance than at a shorter distance (i.e. smaller groups at longer distance). There have been several other threads over the years in which the same topic was discussed, and they probably are still around. If memory serves me, it was in one of those that Bryan made an offer of some kind of prize to anyone that could provide solid evidence of angular dispersion getting smaller as distance increased. To be honest, it's been a while and I don't remember the exact details of it.
The compensation work I am familiar with has strictly focused on grouping at a specific distance and how muzzle angle at bullet exit from the bore can effectively compensate for minor velocity variance to produce smaller vertical dispersion than might be expected otherwise. It is in agreement with what you showed above. However, IMO - the evidence that has been lacking and probably why this thread is even still going on after two years is that no one seems to monitor to what the bullets are doing at distances intermediate to the target. It's one thing to show cartoons of parabolas to illustrate that the intermediate distance vertical dispersion is much larger when compensation is maximized at some longer distance (i.e. the slower bullet has the higher arc). However, providing direct [measured] evidence with the exact same bullets that the intermediate distance angular dispersion of those bullets while on their way to the longer distance target is actually larger than when they arrive at the final target is probably not such a simple thing to accomplish in a definitive manner.
For example, shooting separate groups with the same setup/load at different differences will always leave room for doubt. The experiment really needs to be carried out so as to generate two groups at different distances with the exact same bullets. I've seen a number of posts in which people were shooting through paper to generate two groups at different distances with the same bullets. This also is unsatisfactory because it is impossible to ever state with certainty that passing through a solid object, even one as thin as Bible paper, didn't have sat least some effect on the trajectory of the bullet. However, I would allow that it is most likely that contact with the paper would increase dispersion rather than somehow decrease it after the bullets passed through. Even so, the use of paper in between the intermediate and final distances is problematic. One approach might be to use high speed cameras located above and to the side of the bullets' paths at some intermediate distance, with some type of calibrated measurement device visible in the field of view such that dispersion could be directly measured in individual frames. Not many have access to that type of equipment, which likely explains why it hasn't been done, at least AFAIK.
I think at least some proportion of the claims posted on the internet about shooting two inch groups at 200 yd and one inch groups at 300 yd have to be attributed to a variety of factors that don't constitute any kind of reproducible mechanism. For others, it may well be that compensation provides the explanation for decreasing angular dispersion over distance. Trajectory calculations certainly suggest that it should. However, there are certainly examples of calculations that had been accepted for some time that were later proven to be in error for reasons that weren't apparent at the time they were considered accepted. In my estimation, providing direct measurable evidence of decreasing angular dispersion over distance is not such an easy thing to accomplish. Then again, it might simply be that all it requires is someone much smarter or more clever than myself. In that case, maybe it won't be too hard to provide the direct evidence. If so, I'll be among the first to offer my congratulations as I said. Just out of curiosity, with the loads you showed above, have you ever shot groups at some intermediate distance? It would be expected that under conditions of compensation the grouping would show substantially more angular dispersion in the vertical at the shorter distance.