Anonymous wrote:Anonymous wrote:Anonymous wrote:Interest in theoretical math = PhD program in math. Look at the feeder schools into math PhD programs: https://www.collegetransitions.com/dataverse/top-feeders-phd-programs
You really want to look at *per capita* rankings not overall. It means a lot more if you have 5 out of 10 math majors at Swarthmore regularly heading into PhD programs vs 5 out of 500 math majors at Berkeley.
Why would you say that?
That page says.
Berkely has 100 PhD-bound math student to Swarthmore's 22.
Another example, UVA sending 41 students to Math PhDs, and Haverford College sending 12.
Those 100 Berkeley students or 41 UVA students are going to be a more vibrant math community with more opportunities and relationships, even though thousands of non-pure-math majors are also on campus.
Berkeley has 30,000+ students; Swarthmore has 1600. Swarthmore students are almost five times as likely to enter into a PhD program. This is largely due to the fact that a SLACs, students develop really close relationships with their professors. Also, the resources per capita are astonishing. Students are not competing against each other for a few coveted internship or research assistantships. While I don't doubt the benefit of a large cohort of undergraduate colleagues, if you're going for a PhD, it's really your graduate school colleagues that will matter the most professionally.
Anonymous wrote:The Pomona link above seems a little wonky or indirect, but it offers two functional analysis courses: https://catalog.pomona.edu/preview_course_nopop.php?catoid=47&coid=158836 & https://catalog.pomona.edu/preview_course_nopop.php?catoid=47&coid=158837
And you'll find that its students are also interested in the topic: https://www.pomona.edu/academics/departments/mathematics-statistics/students (See Chloe, Class of 2026).
Anonymous wrote:Anonymous wrote:Interest in theoretical math = PhD program in math. Look at the feeder schools into math PhD programs: https://www.collegetransitions.com/dataverse/top-feeders-phd-programs
You really want to look at *per capita* rankings not overall. It means a lot more if you have 5 out of 10 math majors at Swarthmore regularly heading into PhD programs vs 5 out of 500 math majors at Berkeley.
Why would you say that?
That page says.
Berkely has 100 PhD-bound math student to Swarthmore's 22.
Another example, UVA sending 41 students to Math PhDs, and Haverford College sending 12.
Those 100 Berkeley students or 41 UVA students are going to be a more vibrant math community with more opportunities and relationships, even though thousands of non-pure-math majors are also on campus.
Anonymous wrote:Anonymous wrote:My son is on track to finish Linear Alg and MultiCalc when he graduates high school. Would a SLAC have enough advanced math classes to challenge him as an undergrad?
My son took those courses in high school and his LAC made him retake them. It was because he took them at a CC that taught them with just computations, and the LAC taught them as proof based.
Anonymous wrote:Anonymous wrote:Anonymous wrote:Most SLACs do not even offer functional analysisAnonymous wrote:Anonymous wrote:My son is on track to finish Linear Alg and MultiCalc when he graduates high school. Would a SLAC have enough advanced math classes to challenge him as an undergrad?
Your son will have yet to have taken essential (or important) college-level mathematics courses such as real analysis, abstract algebra, complex analysis, topology and functional analysis. Beyond courses in “basic” topics such as these, he might foresee taking an additional 4 to 10 math courses tailored more specifically to his interests during his undergraduate education, at least on his home campus. Therefore, as your son looks through department sites, he’ll want to see whether he can find close to 15 math courses of potential interest to him as an indicator of whether a college’s offerings would be ample for his level. Wherever he attends, he would be unlikely to be advised (or permitted) to take more math classes than this. Courses in computer science and mathematically-oriented courses in physics (e.g., mathematical physics, general relativity) also should be considered as potentially integral to the mathematical component of his education. Additional opportunities for variety and depth can arise through a Budapest semester or an REU.
Well, that was partly the point. The OP's son would benefit from choosing an LAC at which functional analysis appears as a regular offering in the course catalog.
That's oddly specific. There are several options for upper-level advanced math courses. Functional Analysis is only one, and Functional Analysis being present doesn't necessarily mean that other options are available, or vice versa.
Anonymous wrote:Interest in theoretical math = PhD program in math. Look at the feeder schools into math PhD programs: https://www.collegetransitions.com/dataverse/top-feeders-phd-programs
You really want to look at *per capita* rankings not overall. It means a lot more if you have 5 out of 10 math majors at Swarthmore regularly heading into PhD programs vs 5 out of 500 math majors at Berkeley.
Anonymous wrote:Anonymous wrote:Anonymous wrote:My son is on track to finish Linear Alg and MultiCalc when he graduates high school. Would a SLAC have enough advanced math classes to challenge him as an undergrad?
Your son will have yet to have taken essential (or important) college-level mathematics courses such as real analysis, abstract algebra, complex analysis, topology and functional analysis. Beyond courses in “basic” topics such as these, he might foresee taking an additional 4 to 10 math courses tailored more specifically to his interests during his undergraduate education, at least on his home campus. Therefore, as your son looks through department sites, he’ll want to see whether he can find close to 15 math courses of potential interest to him as an indicator of whether a college’s offerings would be ample for his level. Wherever he attends, he would be unlikely to be advised (or permitted) to take more math classes than this. Courses in computer science and mathematically-oriented courses in physics (e.g., mathematical physics, general relativity) also should be considered as potentially integral to the mathematical component of his education. Additional opportunities for variety and depth can arise through a Budapest semester or an REU.
What is a "Budapest semester"? Thank you for the helpful course layout
Anonymous wrote:Anonymous wrote:Most SLACs do not even offer functional analysisAnonymous wrote:Anonymous wrote:My son is on track to finish Linear Alg and MultiCalc when he graduates high school. Would a SLAC have enough advanced math classes to challenge him as an undergrad?
Your son will have yet to have taken essential (or important) college-level mathematics courses such as real analysis, abstract algebra, complex analysis, topology and functional analysis. Beyond courses in “basic” topics such as these, he might foresee taking an additional 4 to 10 math courses tailored more specifically to his interests during his undergraduate education, at least on his home campus. Therefore, as your son looks through department sites, he’ll want to see whether he can find close to 15 math courses of potential interest to him as an indicator of whether a college’s offerings would be ample for his level. Wherever he attends, he would be unlikely to be advised (or permitted) to take more math classes than this. Courses in computer science and mathematically-oriented courses in physics (e.g., mathematical physics, general relativity) also should be considered as potentially integral to the mathematical component of his education. Additional opportunities for variety and depth can arise through a Budapest semester or an REU.
Well, that was partly the point. The OP's son would benefit from choosing an LAC at which functional analysis appears as a regular offering in the course catalog.
Anonymous wrote:Most SLACs do not even offer functional analysisAnonymous wrote:Anonymous wrote:My son is on track to finish Linear Alg and MultiCalc when he graduates high school. Would a SLAC have enough advanced math classes to challenge him as an undergrad?
Your son will have yet to have taken essential (or important) college-level mathematics courses such as real analysis, abstract algebra, complex analysis, topology and functional analysis. Beyond courses in “basic” topics such as these, he might foresee taking an additional 4 to 10 math courses tailored more specifically to his interests during his undergraduate education, at least on his home campus. Therefore, as your son looks through department sites, he’ll want to see whether he can find close to 15 math courses of potential interest to him as an indicator of whether a college’s offerings would be ample for his level. Wherever he attends, he would be unlikely to be advised (or permitted) to take more math classes than this. Courses in computer science and mathematically-oriented courses in physics (e.g., mathematical physics, general relativity) also should be considered as potentially integral to the mathematical component of his education. Additional opportunities for variety and depth can arise through a Budapest semester or an REU.
Anonymous wrote:Most SLACs do not even offer functional analysisAnonymous wrote:Anonymous wrote:My son is on track to finish Linear Alg and MultiCalc when he graduates high school. Would a SLAC have enough advanced math classes to challenge him as an undergrad?
Your son will have yet to have taken essential (or important) college-level mathematics courses such as real analysis, abstract algebra, complex analysis, topology and functional analysis. Beyond courses in “basic” topics such as these, he might foresee taking an additional 4 to 10 math courses tailored more specifically to his interests during his undergraduate education, at least on his home campus. Therefore, as your son looks through department sites, he’ll want to see whether he can find close to 15 math courses of potential interest to him as an indicator of whether a college’s offerings would be ample for his level. Wherever he attends, he would be unlikely to be advised (or permitted) to take more math classes than this. Courses in computer science and mathematically-oriented courses in physics (e.g., mathematical physics, general relativity) also should be considered as potentially integral to the mathematical component of his education. Additional opportunities for variety and depth can arise through a Budapest semester or an REU.
Anonymous wrote:Anonymous wrote:My son is on track to finish Linear Alg and MultiCalc when he graduates high school. Would a SLAC have enough advanced math classes to challenge him as an undergrad?
Your son will have yet to have taken essential (or important) college-level mathematics courses such as real analysis, abstract algebra, complex analysis, topology and functional analysis. Beyond courses in “basic” topics such as these, he might foresee taking an additional 4 to 10 math courses tailored more specifically to his interests during his undergraduate education, at least on his home campus. Therefore, as your son looks through department sites, he’ll want to see whether he can find close to 15 math courses of potential interest to him as an indicator of whether a college’s offerings would be ample for his level. Wherever he attends, he would be unlikely to be advised (or permitted) to take more math classes than this. Courses in computer science and mathematically-oriented courses in physics (e.g., mathematical physics, general relativity) also should be considered as potentially integral to the mathematical component of his education. Additional opportunities for variety and depth can arise through a Budapest semester or an REU.
Most SLACs do not even offer functional analysisAnonymous wrote:Anonymous wrote:My son is on track to finish Linear Alg and MultiCalc when he graduates high school. Would a SLAC have enough advanced math classes to challenge him as an undergrad?
Your son will have yet to have taken essential (or important) college-level mathematics courses such as real analysis, abstract algebra, complex analysis, topology and functional analysis. Beyond courses in “basic” topics such as these, he might foresee taking an additional 4 to 10 math courses tailored more specifically to his interests during his undergraduate education, at least on his home campus. Therefore, as your son looks through department sites, he’ll want to see whether he can find close to 15 math courses of potential interest to him as an indicator of whether a college’s offerings would be ample for his level. Wherever he attends, he would be unlikely to be advised (or permitted) to take more math classes than this. Courses in computer science and mathematically-oriented courses in physics (e.g., mathematical physics, general relativity) also should be considered as potentially integral to the mathematical component of his education. Additional opportunities for variety and depth can arise through a Budapest semester or an REU.