Sorry NYS,
Although it clear that you have some understanding of the statistical concepts involved the one thing you do not seem to understand is the fact that your thesis is relying on false assumptions....
You make the statement..."the sample of 100 deer is collected"...This is an incorect and faulty assumption.
Thedata we are discusing is represented by the author as representativeof the ENTIRE POPULATION of whitetail deer. Therefore your discusion of "magnitude of relations between variables" is not applicable to this situation.
The stated 52% buck ratio in no way can be "rounded" to equate a 50/50 buck to doe fawn ratio....
(If you were correct, the author a noted biologist, with an extensive background in statistical analysis would not have represented the data as indicative of supporting a statistical bias toward the production of male whitetail offspring in the overall whitetail population in the first place.

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This should help clarify the concepts and its applications..
How to measure the magnitude (strength) of relations between variables. There are very many measures of the magnitude of relationships between variables which have been developed by statisticians; the choice of a specific measure in given circumstances depends on the number of variables involved, measurement scales used, nature of the relations, etc. Almost all of them, however, follow one general principle: they attempt to somehow evaluate the observed relation by comparing it to the "maximum imaginable relation" between those specific variables. Technically speaking, a common way to perform such evaluations is to look at how differentiated are the values of the variables, and then calculate what part of this "overall available differentiation" is accounted for by instances when that differentiation is "common" in the two (or more) variables in question. Speaking less technically, we compare "what is common in those variables" to "what potentially could have been common if the variables were perfectly related." Let us consider a simple illustration. Let us say that in our sample, the average index of WCC is 100 in males and 102 in females. Thus, we could say that on average, the deviation of each individual score from the grand mean (101) contains a component due to the gender of the subject; the size of this component is 1. That value, in a sense, represents some measure of relation between Gender and WCC. However, this value is a very poor measure, because it does not tell us how relatively large this component is, given the "overall differentiation" of WCC scores. Consider two extreme possibilities:[*]If all WCC scores of males were equal exactly to 100, and those of females equal to 102, then all deviations from the grand mean in our sample would be entirely accounted for by gender. We would say that in our sample, gender is perfectly correlated with WCC, that is, 100% of the observed differences between subjects regarding their WCC is accounted for by their gender.[*]If WCC scores were in the range of 0-1000, the same difference (of 2) between the average WCC of males and females found in the study would account for such a small part of the overall differentiation of scores that most likely it would be considered negligible. For example, one more subject taken into account could change, or even reverse the direction of the difference. Therefore, every good measure of relations between variables must take into account the overall differentiation of individual scores in the sample and evaluate the relation in terms of (relatively) how much of this differentiation is accounted for by the relation in question.
[ol][/ol]