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by picomancer
4483 days ago
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Basic algebra and geometry: Order of operations; simplifying expressions; solving quadratic equations by factoring; finding area and perimeter of shapes; the classic "garden problem" (maximize area of a rectangle given fixed sum of 3 sides); naming the Platonic solids; adding, subtracting, multiplying, and dividing complex numbers; logarithms; solving exponential equations. I think probability, in particular Bayes' Theorem, and basic number theory should be covered in a high school curriculum for the college-bound as well. Including converting numbers between base 2, base 10, and base 16; solving linear congruences with small moduli by trial and error; finding gcd and lcm; prime factorization; determining whether a pair of numbers is relatively prime. Teaching the extended Euclidean algorithm in high school would be on my "nice-to-have" wishlist, but there's only so much classroom time available. |
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Personally, as an engineering student, I'd rather take most of my math classes here at my university because they tend to all be tied together (both with the math department and engineering department courses) well and I know that where I leave off in Ordinary Diff Eq, I will pick right back up from in Ord. Diff. Eq 2. Coming from having taken calculus and calculus 2 in high school and having entered straight to calculus 3 in university, I didn't have this comfort and in fact ended up missing some content between the classes as a result. There is also the issue of choice, and the limits of it within the context of high school curriculum.
Just my 2 cents against teaching additional stuff in high school (or probably addressing the wrong point within this comment). Also, I'm not sure (obviously) what its like across the nation, but at my high school at least these topics where all covered and taught to (nearly) all students: > Basic algebra and geometry: Order of operations; simplifying expressions; solving quadratic equations by factoring; finding area and perimeter of shapes; the classic "garden problem" (maximize area of a rectangle given fixed sum of 3 sides); naming the Platonic solids; adding, subtracting, multiplying, and dividing complex numbers; logarithms; solving exponential equations. [...] solving linear congruences with small moduli by trial and error; finding gcd and lcm; prime factorization;