That said, if they've transitioned they (I think) need to stop taking testosterone, which points out that hormone stuff could perhaps be different. There's also the social aspect of a man attending/needing typically women only support.
259 karma · joined November 19, 2021
That said, if they've transitioned they (I think) need to stop taking testosterone, which points out that hormone stuff could perhaps be different. There's also the social aspect of a man attending/needing typically women only support.
I also don't just mean accomodation in terms of words: if trans men have any needs different to cis women, then medical literature on pregancy must include this when in circumstances where it's appropriate.
Your's is the best response in this entire thread.
Most of the comments here never established what's actually being discussed.
Personally I think a big source of contention is that a lot of people don't accept exceptions to words.
However, an algorithm being promising doesn't mean it works. Do you know how well the development of these other techniques is progressing?
The value is in a quantum computer existing at all, not it's availablity to consumers.
I guess my point is that you were able to understand the Schrödinger equation without covering a whole bunch of other stuff first: it's fine to not cover everything. The other conversely is that it's not as simple as checking topics off a checklist: the basics of quantum mechanics can be approached from various perspectives, for example. Personally, I'm keen on gaining a very good intuition of linear algebra — in particular, the idea of writing linear operators as a matrix WRT a given basis and eigenvectors — in order to be confident with the quantum mechanics. I guess you've noticed this though since you've spent time learning something else (the Frobenius method). My overall point is that each topic is very deep and everyone plots their own path through all the different areas.
I don't think we're disagreeing. I think really that this is a good list. I suppose that the main thing every beginner wants is a jumping off point which is probably something I've taken for granted. I find university module listing useful myself for computer science despite not having studies it formally.
My science background didn't follow the exact same route and, after comparing notes with a friend at a different university and looking at modules of other universities, while they both follow the same general pattern, the order is different and the module selection available expresses different focuses of the department.
Personally, I think his list doesn't contain enough core mathematics and is too broad. Major areas that professional theoretical physicists specialise in are not mentioned at all (atomic physics, quantum information, condensed matter physics, density functional theory, mathematical physics, fluid dynamics).
I guess my complaint is that the list fails to highlight the core topics and fundamentals as well as failing to demonstrate how one can specialise. A vital skill needed to be a good theoretical physicist is the ability to think for yourself and learn without a syllabus.
I not keen on telling everyone to learn every topic presented or else they 'fail'. He's telling people they have to reproduce his entire physics education exactly as he did which I don't think is suitable for people learning on their own.
If you're a self taught programmer you probably didn't learn by finding a university's syllabus and trying to replicate it. Trying to reproduce a university's syllabus seems to me an unreasonable goal and I worry that Hooft's list encourages people to gain a shallow understanding with little understanding.
My main take aways from my university education was that most modules truly wished to teach a new way of seeing things or teach skills in manipulating new objects. Analysis is a good example: simply going through theorems and proofs isn't the goal, it's to learn the skills needed to write them, understand the mathematical logic and gain intuition.
Another important thing is that science is both broad and deep, despite having common topics, and this list simply doesn't convey this. A learner is much better off using what they find interesting and needed as a guide. It's fine if you don't learn one particular topic or approach something in one particular way because all studying will teach transferable skills. I'd expect someone who's said taught to have more limited time compared to an undergraduate, so I think focusing is fine and potentially necessary.
The solutions in chemistry are wavefunctions. Wavefunctions give a complex number to each point in space so they may interfere constructively or destructively to give complex numbers of greater and smaller magnitude respectively. The Schrödinger equation can be solved for each atom independently to get one electron wavefunctions named atomic orbitals, and, in molecular orbital theory, these atomic combined to give molecular orbitals which are one electron wavefunctions for the molecule. When the atomic orbitals add up constructively to give a molecular orbital with a higher electron density between the atoms it's a bonding molecular orbital, otherwise it's anti-bonding.
Both quarks and anti-quarks can spin in two ways (even though this spin is not a conventional spin but something special to quantum). When a quark and an antiquark are produced, spin must be conserved, so in pair production each must have opposite spin so the total is zero.