What are the relevant ratios you mean here? I found this data[0] on engineering degrees by gender. Here is the percentage of female graduates for each of the ones you mentioned:
14% - Computer Science
13% - Electrical Engineering
22% - Civil Engineering
14% - Aeronautical Engineering
13% - Mechanical Engineering
32% - Chemical Engineering
Other than Chemical, they're all in the same ballpark. My wife studied Chemical Engineering; I'll have to ask her if she had any thoughts about why it's a higher percentage female.
Interestingly, that same chart has two engineering disciplines that tower over the other two: Biomedical, and Environmental, which exactly squares with the hypothesis put forth by this blog post author.
[0] https://www.asee.org/papers-and-publications/publications/co...
It's purely anecdotal, but the two women math majors I personally know are high school math teachers, which would be more "people". Are math teachers enough to account for a 20% (engineering) to 45% (math) difference? Probably not, but I think it is more open ended in terms of what math majors end up doing vs engineering or computer science.
I find Scott's arguments persuasive though, and could easily be fitting my memory/interpretation/facts etc to work within other beliefs. Post hoc rationalizations like this are always tricky.
[1]: Anecdotally, foreign students have made up a larger percentage of the female mathematics (and physics) graduate students I've known than of the male math (and physics) graduate students I've known, though I have no idea if my experience normal, sample size is very small and biased, etc.
If math vs. engineering is a mystery that can't be
explained by streotypes,
Scott gives an explanation in the article. Interestingly, it's exactly the suggestion commenter peacetreefrog puts forward: relatively many math graduates become teachers. And teaching is a 'person' thing.As for engineering: the variation within engineering disciplines is much smaller than the variation between engineering and other disciplines and since we already have a hard time explaining the large difference, let's not worry about the small differences. Perhaps chemical engineering is perceived to be about 'people' more often.
> Might girls be worried not by stereotypes about computers themselves, but by stereotypes that girls are bad at math and so can’t succeed in the math-heavy world of computer science? No. About 45% of college math majors are women, compared to (again) only 20% of computer science majors. Undergraduate mathematics itself more-or-less shows gender parity. This can’t be an explanation for the computer results.
Later, he introduces the thing-people interest spectrum and makes a case that it’s inherent. He then breaks down the gender gap in various medical fields in way that’s suggestive that the differences are due to the thing-people idea.
But, how does that apply math vs engineering or math vs. programming? Or for that matter, programming vs. chemical engineering or electrical engineering vs. chemical engineering? During undergrad, my recollection was that there were proportionally fewer women in electrical engineering than in chemical engineering in the classes I saw, and some quick googling seems to bear this out. If math vs. engineering is a mystery that can't be explained by streotypes, it also appears to be a mystery that can't be explained by thing-people. Although I think it's a long stretch, maybe you can argue that computers are more "thing-like" than math, but I don't think you can really push that argument through to explain the relative ratios in CS, math, EE, CivE, AE, MSE, and ChemE? BTW, the reason I think it's a stretch is because you could also argue that computers are more "people-like" than math, so you could flip the arugment around if the ratios were reversed. For EE vs. ChemE, maybe EE rates are depressed because there's a lot of cross-over between EE and BME classwork and BME is arguably more people-like, so the would-be EEs go into BME, but if there's crossover, maybe that makes EE more BME-like and therefore more people-like. I don't think you can give an explanation that's much stronger than a just-so story for some other set of observed ratios.
Sure, you can pick a subset of fields where thing-people appears to explain the variance[1], but you can also pick a set of fields where it doesn’t appear to explain the variance. Scott seems to view a set of counter-examples as a knockdown argument against stereotypes. But then why doesn’t this other set of examples invalidate the thing-people explanation he argues for? Why can’t you apply the exact same line of reasoning he applied to stereotypes to thing-people?
This line of reasoning seems internally inconsistent to me. Am I missing something that would make this line of reasoning consistent?
One line of reasoning is that Scott is merely rebutting someone else's argument and that he therefore doesn't need to explain what's going on and he only needs to explain why the other explanation is wrong. But in that case, there isn't a need to bring up thing-people. It seems like it's been brought up because Scott believes thing-people has more explanatory power than sterotypes and Scott is making a positive argument about thing-people, not just knocking down someone else's argument.
[1] Even within the fields he picks, one example he gives is the rate at which women go pediatrics at a higher rate than any other specialization he lists other than ob/gyn. But why is the rate in pediatrics so different than in psychiatry? He argues that they're both "people" fields, which sounds reasonable. But there's one field is 25% male and the other is 43% male. That's almost the same as the math/engineering difference he cites earlier with the genders flipped. Is dealing with babies somehow more people-like or less thing-like than talking to adults? It's certainly a strong stereotype that women are more interested in babies than men, but this is cited as an example of the explanatory power of thing-people, not of the explanatory power of stereotypes.