That’s what major versions are for - breaking changes. Regardless, you should probably be able to fix this with some regex hackery. Something along the lines of

new_file_content = re.sub(r'(?<=\bprint)(\s+)(?!\()', '(', old_file_content)
new_file_content = re.sub(r'(print\(.*?)(\n|$)', r'\1)', new_file_content)

should do the trick.

For someone starting out, I would say that a major advantage of Python over any compiled language is that you can just create a file and start writing/running code. With C++ (which I’m also a heavy user of) you need to get over the hurdle of setting up a build system, which is simple enough when you know it, but can quickly be a high bar for an absolute beginner. That’s before you start looking at things like including/linking other libraries, which in Python is done with a simple import, but where you have to set up your build system properly to get things working in C++.

Honestly, I’m still kind of confused that the beginner course at my old university still insists on giving out a pre-written makefile and vscode config files for everyone instead of spending the first week just showing people how to actually write and compile hello world using cmake. I remember my major hurdle when leaving that course was that I knew how to write basic C++, I just had no idea how to compile and link it when I could no longer use the makefile that we were explicitly told to never touch…

I’m not quite sure what assumptions you’re talking about, but I do want to hear what you have to say.

What you’re answering to is about opposing external hostile forces, that wasn’t what I was talking about. I’m talking about internal criminal environments that are dispersed in the population and make a living off anything from fabricating documents or scamming people to trafficking or smuggling. Just like modern organised criminal environments, these are not groups you can “wage war” against.

My question is related to how these will be dealt with if not by involuntary imprisonment/re-education/some other involuntary and enforced way of preventing them from exploiting society?

Ok, I’m only really having issue with the “which shouldn’t be hard” part. What makes you think that violent response from an anarchist society would be more effective than the police/justice system in a modern state?

These groups exist today, and it turns out that making them crumble by arresting (or, in some countries, executing) their members is a significantly non-trivial task. That’s when you have an organised force opposing them, which doesn’t need to deal with internal disputes the way an anarchistic force would need to.

I’m asking: In a hypothetical anarchist society, how do you deal with organised criminal environments that live off exploiting other members of society, and who refuse to follow rules or rulings created by the consensus of those that don’t want to be exploited?

I’m pointing out that these groups exist and have existed in more or less every society of decent size, so they must be factored in somehow. I’m also pointing out the “voluntary prison, or else you’ll be excluded from society” likely doesn’t work, as these are people that have already accepted living a life on the side of the rest of society, within their own environment.

So what do you do to deal with the situation we see in modern states with an actual centralised “monopoly” on violence: Organised criminal environments that live off exploiting the rest of society?

We’re talking about people that don’t care if you shun them, because they have their own environment, with their own hierarchy and set of rules, and they’re willing to use violence to exploit the rest of society to make a living.

I just came back to Europe after a couple weeks in the US. The US was beautiful (travelled in the Rockies). I was surprised by the fact that I unironically would not be able to live there just because of the food. Everything was so drowned in cheese / sugar / unspecified ultraprocessed something that I had legitimate digestion issues the first week.

• “I would like an omelette please”
• “Yes sir, do you want eggs in that or just the cheese?”

I had no idea I could miss just plain real bread as much as I did by the time I got back.

What does that have to do with non-Euclidean geometry?

Yes, it’s a field. Specifically, a field containing human-readable information about what is going on in adjacent fields, much like a comment. I see no issue with putting such information in a json file.

As for “you don’t comment by putting information in variables”: In Python, your objects have the __doc__ attribute, which is specifically used for this purpose.

My test suite takes quite a bit of time, not because the code base is huge, but because it consists of a variety of mathematical models that should work under a range of conditions.

This makes it very quick to write a test that’s basically “check that every pair of models gives the same output for the same conditions” or “check that re-ordering the inputs in a certain way does not change the output”.

If you have 10 models, with three inputs that can be ordered 6 ways, you now suddenly have 60 tests that take maybe 2-3 sec each.

Scaling up: It becomes very easy to write automated testing for a lot of stuff, so even if each individual test is relatively quick, they suddenly take 10-15 min to run total.

The test suite now is ≈2000 unit/integration tests, and I have experienced uncovering an obscure bug because a single one of them failed.

This is a very “yes but still no” thing in my experience. Typically, I find that if I write “naive” C++ code, where I make no effort to optimise anything, I’ll outperform python code that I’ve spent time optimising by a factor of 10-30 (given that the code is reasonably complex, this obviously isn’t true for a simple matrix-multiplication where you can use numpy). If I spend some time on optimisation, I’ll typically be outperforming python by a factor of 50+.

In the end, I’ve found it’s mostly about what kind of data structures you’re working with, and how you’re passing them around. If you’re primarily working with arrays of some sort and doing simple math with them, using some numpy and scipy magic can get you speeds that will beat naive C++ code. On the other hand, when you have custom data structures that you want to avoid unnecessarily copying, just rewriting the exact same code in C++ and passing things by reference can give you massive speedups.

When I choose C++ over python, it’s not only because of speed. It’s also because I want a more explicitly typed language (which is easier to maintain), overloaded functions, and to actually know the memory layout of what I’m working with to some degree.

Vertical video platform

I’m stealing this term

I’m all for age of consent, but considering that you can have graduates as old as 19-20, and teachers as young as 23-24, I have to admit it seems a bit strange to put restrictions on what they can do outside of (1) what is legal, and (2) what effects their job (like having a relationship with a current student, especially one that you teach).

Like, I know several people in my graduating high-school class that were with someone older than our youngest teacher, a couple of which are still together with the person 10 years later.

Just remember to keep track of which BTU you’re using

How in the world is (month/day/year) more sorted than (day/month/year)? I see two use-cases: Sorting things chronologically, in which case you want YYYY/MM/DD, or referring to nearby dates, where the year or even month can be assumed known implicitly, in which case you use DD/MM/YYYY. In no sane world does MM/DD/YYYY make sense.

We need to spend more research funds observing these immigrants to collapse them into a single state!

A protein is like a really long chain of simple monomers (amino acids), that you can think of as a long string of differently coloured beads. The ordering of the beads somewhat determines how the protein functions, but the major factor that determines it is how this long string is bundled up, i.e. “folded” (think of a ball of yarn).

A DNA sequence tells us the sequence of the amino acids in a protein, but tells us nothing about how it is folded. It is of great interest to compute how a protein will fold, given its sequence, because then we can determine how and why it works like it does, and use gene-editing techniques to design proteins to do the stuff we want. This requires huge amounts of computational power, so you get the fold@home project :)

Thanks for contributing!

You could look up some videos on “mutation design” which is a stochastic design method, which is basically used to design structures (like drone bodies) by using random mutations. It really shows how evolution works in real time.

Huh, TIL