

Firefox is not chromium based. You can install unlock origin and have no ads.
Firefox is not chromium based. You can install unlock origin and have no ads.
There’s a reason just in time manufacturing took over the world. Storage is expensive.
You have to pay that mortgage, it doesn’t matter if your house can cover it or not.
What are you gonna do? Sell your house to pay off your mortgage? And then where do you live?
If you own a single house, the synchronized raise/fall of house prices only affect the speed at which you can “upgrade” to a more expensive home. So prices going down benefit you.
Everyone needs one house. When you sell your house, you have to buy (or rent) another one. If the value of your house drops by the same amount as everyone else’s, then you lost nothing.
In fact, you probably gained because if you plan to buy a more expensive house, you have to pay less.
The only people for whom the fall of housing prices would be negative are those that plan on having less houses. That is, you have multiple, and want to sell some.
The median citizen is no real state investor.
Or. You could just pay them more. Which would be politically way easier.
There is no chance you can make a consumer-facing product using imgui. The closest to that I’ve seen is imhex, which admittedly is way better looking than I thought was possible with imgui. But it is a tool for mainly developers, not a consumer-facing product.
Just make a file system that maps each file name to 2 files. The 0 file and the 1 file.
Now with just a filename and 1 bit, you can have any file! The file is just 1 bit. It’s the filesystems that needs more than that.
The problem might be the arc mutex. mpsc are already clone, send and sync. When you clone an arc mutex T, you are cloning the arc. But mpsc probably needs to be cloned itself to work properly.
If a crate only takes 35 lines to reproduce. Why is the author worried that it is unmaintained?
That crate is probably done, it does what it needs to do. And at 35 lines there’s not a lot of room for bugs.
Just use the crate instead of rewriting the same 35 lines for each project that needs them.
Or publish your own 35 line crate as an alternative. Then you can use your 35 lines instead of that guy’s 35 lines.
I don’t understand the LoC bit. First he says the project+dependencies is 3.6MLoC. then says that the Linux kernel is 27.8MLoC, then says his project is 7. 7 what? 7%? That’s not right. 7MLoC? I thought it was 3.6MLoC.
Technically, this may sound pedantic. You are not passing neither arrays nor tuples as generic parameter types.
What you are doing is passing an array to a function.
The type of the array is [i32;5]. Every value has a type.
By passing the array to a function, you are allowing the compiler to infer what function you are calling, since that function is generic. Using the type of the parameter you passed to it.
You can only pass values to function parameters. And you can only pass types as generic type parameters.
Well in this case it’s a little different, since it looks like you are passing a value (5) to a generic type parameter (LENGTH), but the const
part of const LENGTH
means that it’s a value generic for a type, not a type generic for a type, which is the usual thing.
EDIT: additionally, the : usize
part tells you what type exactly the const parameter for the type has to be.
Note that you can’t have non-const values as type parameters. Since types are defined at compile time.
EDIT 2: since type inference just fills some boilerplate for you. If we do that boilerplate manually it’s easier to see what parameters go where.
When you do Buffer::from([0,1,2,3,4,5])
what you are really doing is: Buffer<i32, 5>::from([0,1,2,3,4,5)]
. In fact, if you put that, the code will compile exactly the same. Now if you put a 6 instead, it won’t compile since the type of the buffer and the type of the array you are passing are not the same.
You don’t need to know at all what optimizations will happen. I said that as an example of a thing that you know in compile time but not in run time.
To tell or not whether a type will be inferred is determined by you. If you tell the compiler the type, it will never be inferred. If you don’t tell the compiler the type, it will try to infer it. If it tries to infer the type but it fails, it will throw a compiler error and it won’t finish building the binary.
The compiler will only successfully infer a type if it has enough information at compile time to know with certainty what type it is. Of course, the compiler is not perfect, so it is possible in complex situations for it to fail even though it theoretically could.
Examples where inferring will succeed:
fn copy<T>(in: T) -> T {
return in;
}
fn main() {
let a = 47; //here a is of type i32, this was not inferred, it's just the default type of integer literals
let b = copy(a); // here the compiler knows that a is i32, therefore it should call copy<i32>. Due to the type signature of copy<i32>, the type of b is inferred to be i32
let c: u16 = 25; // here instead of the default, we manually specify that the type of c is u16
let d = copy(c); // this is the same as b, but instead of calling copy<i32>, copy<u16> is called. Therefore d is inferred to be u16
let e = 60; // at first, this looks like a, and it should be the default of i32
let f: i64 = copy(e); // here, since f is specified to be i64, copy<i64> is called. Therefore e instead of being the default of i32, it is overridden since inference has preference over the default. e is inferred to be i64.
}
Examples where inference will fail
trait Default {
fn default() -> Self
}
impl Default for i32 {
fn default() -> i32 { return 0 }
}
impl Default for i8 {
fn default() -> i8 { return 0}
}
fn main() {
let a: i32 = 8;
let b = copy(a);
let c: u8 = copy(b);
// What type should be inferred to? If it calls copy<i32> because a is i32, then it can't call copy<u8> later to initialize c. And if it calls copy<u8> instead, it can't receive a as an argument since a is i32. Results in compiler error
let d = Default::default();
// What type is d? both i32 and i8 implement the Default trait, each with its own return type.
// let d: i32 = Default::default(); would compile correctly.
}
These situations might be obvious, but inference works as a chain, sometimes hundreds of types are inferred in a single function call. So you should know the basics to diagnose these kinds of problems.
Who turned off starlink in Ukraine?
Nah, that would be programming with AI.
In vibe “coding”, you ask the AI for the code and just run it. If it doesn’t do what you want it to do, you just ask the AI again, or another AI. Ad infinitum.
Check the code yourself? That’s like 5th century pleb work, vibe “coders” would be wasting their precious time when they can just ask another AI to do it.
Since deadcream already told you the reason. I’m gonna explain a more generic way.
There are 2 important times: compilation time and run time.
At compilation time, everything that is constant, is known to the compiler, or can be calculated by it.
At run time, everything* is known.
Types have to be generated at compilation time**. This means that generics have to be also known at compilation time.
In this case. Both the “T” type of the buffer and its size “LENGTH” are generic, so they must be known at compile time. Compile time usually doesn’t know about vales of variables, except if those variables are “const”. Then it is known. A value literal is the same as a const variable.
So here, you provide a value literal ([0,1,2,3,4]) which is a fixed array, that is, both its “T” type (i32 by default) and length (5) are known at compile time. Buffer has all the information it needs to become a real type instead of a generic one. In this case, the type will be Buffer<i32, 5>
* Things that are optimized out at compile time are not known at runtime, but yes at compile time. For example:
const A: i32 = 5;
const B: i32 = 5+1;
fn main() {
dbg!(B)
}
Since A is never used (except to calculate B, which is const), A is probably optimized out. However, since B is used, there probably is a 6 somewhere in memory. Notice how I say probably since optimizations are optional. Or more optimizations may even remove the 6, and convert it to an ASCII “6” to be printed out.
**While this is always true trait objects (like Box<dyn ToString>) can act like some kind of runtime type, if you need that functionality.
Because then you can’t change your password. Since you would have to decrypt all the hard drives that use windows with that account, and then encrypt them again with the new one.
This also means that if you forget your password you are fucked.
That’s whataboutism.
There are many factors for the housing crisis.
That doesn’t mean that you can only solve one of the factors.
RCV favours moderate candidates. If you are in a political extreme, you might argue that that’s not fair. But I don’t see how it not being perfect can result in a ban. Specially when the current system is more unfair.
There are many reasons you would be against china.
Low prices doesn’t justify any of that.
And that (non-exclusive) list (except the 1st point) is only what affects people outside of china. There’s many other reasons to dislike the CCP that only affects the Chinese. Like mass surveillance and censorship.
You got lucky. Last time for me I waited 1hour+. Why? Because I ordered inside the restaurant instead of the drive-through. Apparently they have incentives to keep the drive-through queue small and fast.
And I’m not even in car land (America). It was in Spain. I cannot even imagine what ordering in car land from inside the restaurant will take.
EDIT:
Fast food still exists though, it just doesn’t come in the form of the usual American corporations. My local kebab fulfills the order in 5-10 minutes.
Or doctors. Or almost any other profession. If anything, artists usually have better handwriting because they actually care that their handwriting is pretty.