includes: Tabs -> Spaces

This commit is contained in:
WerWolv
2024-06-22 10:46:30 +02:00
parent e02280f9ee
commit 2a3de1b705
15 changed files with 991 additions and 995 deletions

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@@ -3,61 +3,61 @@
import std.limits;
/*!
This library contains various helper functions for common bit operations.
This library contains various helper functions for common bit operations.
*/
namespace auto std::bit {
/**
Calculates the number of 1 bits in a given number
@param x The number
@return The number of bits set to 1 in `x`
*/
fn popcount(u128 x) {
x = (x & (std::limits::u128_max() / 3)) + ((x >> 1) & (std::limits::u128_max() / 3));
x = (x & (std::limits::u128_max() / 5)) + ((x >> 2) & (std::limits::u128_max() / 5));
x = (x & (std::limits::u128_max() / 17)) + ((x >> 4) & (std::limits::u128_max() / 17));
return x % 0xFF;
};
/**
Calculates the number of 1 bits in a given number
@param x The number
@return The number of bits set to 1 in `x`
*/
fn popcount(u128 x) {
x = (x & (std::limits::u128_max() / 3)) + ((x >> 1) & (std::limits::u128_max() / 3));
x = (x & (std::limits::u128_max() / 5)) + ((x >> 2) & (std::limits::u128_max() / 5));
x = (x & (std::limits::u128_max() / 17)) + ((x >> 4) & (std::limits::u128_max() / 17));
return x % 0xFF;
};
/**
Checks if only a single bit is set to 1 in a given number
@param x The number
@return True if there's a single bit set to 1 in `x`, false otherwise
*/
fn has_single_bit(u128 x) {
return x != 0 && (x & (x - 1)) == 0;
};
/**
Rounds the given number up to the next bigger power of two
@param x The number
@return Next bigger power of two that can fit `x`
*/
fn bit_ceil(u128 x) {
if (x == 0) return 0;
u8 i;
while ((1 << i) < x)
i = i + 1;
return 1 << i;
};
/**
Checks if only a single bit is set to 1 in a given number
@param x The number
@return True if there's a single bit set to 1 in `x`, false otherwise
*/
fn has_single_bit(u128 x) {
return x != 0 && (x & (x - 1)) == 0;
};
/**
Rounds the given number up to the next bigger power of two
@param x The number
@return Next bigger power of two that can fit `x`
*/
fn bit_ceil(u128 x) {
if (x == 0) return 0;
u8 i;
while ((1 << i) < x)
i = i + 1;
return 1 << i;
};
/**
Rounds the given number down to the next bigger power of two
@param x The number
@return Next smaller power of two
*/
fn bit_floor(u128 x) {
if (x == 0) return 0;
u8 i;
while ((x >> i) > 0)
i = i + 1;
return 1 << (i - 1);
};
/**
Rounds the given number down to the next bigger power of two
@param x The number
@return Next smaller power of two
*/
fn bit_floor(u128 x) {
if (x == 0) return 0;
u8 i;
while ((x >> i) > 0)
i = i + 1;
return 1 << (i - 1);
};
}

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@@ -1,120 +1,120 @@
#pragma once
/*!
The File library allows reading and writing from/to external files using
a C-like File IO API.
The File library allows reading and writing from/to external files using
a C-like File IO API.
**These functions are considered dangerous and require the user to manually permit them**
**These functions are considered dangerous and require the user to manually permit them**
*/
namespace auto std::file {
/**
/**
A handle representing a file that has been opened
*/
using Handle = s32;
/**
using Handle = s32;
/**
The mode to open a file in.
Read opens the file in read-only mode
Write opens the file in read and write mode
Create creates a new file if it doesn't exist and overwrites an existing file
Read opens the file in read-only mode
Write opens the file in read and write mode
Create creates a new file if it doesn't exist and overwrites an existing file
*/
enum Mode : u8 {
Read = 1,
Write = 2,
Create = 3
};
enum Mode : u8 {
Read = 1,
Write = 2,
Create = 3
};
/**
/**
Opens a file
@param path The path to the file to open
@param mode File open mode
@return Handle to the newly opened file
@param path The path to the file to open
@param mode File open mode
@return Handle to the newly opened file
*/
fn open(str path, Mode mode) {
return builtin::std::file::open(path, u32(mode));
};
fn open(str path, Mode mode) {
return builtin::std::file::open(path, u32(mode));
};
/**
/**
Closes a file handle that has been opened previously
@param handle The handle to close
@param handle The handle to close
*/
fn close(Handle handle) {
builtin::std::file::close(handle);
};
fn close(Handle handle) {
builtin::std::file::close(handle);
};
/**
/**
Reads the content of a file into a string
@param handle The file handle to read from
@param size Number of bytes to read
@return String containing the read data
@param handle The file handle to read from
@param size Number of bytes to read
@return String containing the read data
*/
fn read(Handle handle, u64 size) {
return builtin::std::file::read(handle, size);
};
fn read(Handle handle, u64 size) {
return builtin::std::file::read(handle, size);
};
/**
/**
Writes the content of a string into a file
@param handle The file handle to write to
@param data String or Pattern to write to the file
@param handle The file handle to write to
@param data String or Pattern to write to the file
*/
fn write(Handle handle, auto data) {
builtin::std::file::write(handle, data);
};
fn write(Handle handle, auto data) {
builtin::std::file::write(handle, data);
};
/**
/**
Sets the current cursor position in the given file handle
@param handle The file handle to set the cursor position in
@param offset The offset to move the cursor to
@param handle The file handle to set the cursor position in
@param offset The offset to move the cursor to
*/
fn seek(Handle handle, u64 offset) {
builtin::std::file::seek(handle, offset);
};
fn seek(Handle handle, u64 offset) {
builtin::std::file::seek(handle, offset);
};
/**
Queries the size of a file
@param handle The handle of the file to get the size of
@return The file's size
*/
fn size(Handle handle) {
return builtin::std::file::size(handle);
};
/**
Queries the size of a file
@param handle The handle of the file to get the size of
@return The file's size
*/
fn size(Handle handle) {
return builtin::std::file::size(handle);
};
/**
Resizes a file
@param handle The handle of the file to resize
*/
fn resize(Handle handle, u64 size) {
builtin::std::file::resize(handle, size);
};
/**
Resizes a file
@param handle The handle of the file to resize
*/
fn resize(Handle handle, u64 size) {
builtin::std::file::resize(handle, size);
};
/**
Flushes changes made to a file to disk
@param handle The handle of the file to flush
*/
fn flush(Handle handle) {
builtin::std::file::flush(handle);
};
/**
Flushes changes made to a file to disk
@param handle The handle of the file to flush
*/
fn flush(Handle handle) {
builtin::std::file::flush(handle);
};
/**
Deletes a file from disk. This will also automatically close this file
@param handle The handle of the file to delete
*/
fn remove(Handle handle) {
builtin::std::file::remove(handle);
};
/**
Deletes a file from disk. This will also automatically close this file
@param handle The handle of the file to delete
*/
fn remove(Handle handle) {
builtin::std::file::remove(handle);
};
/**
Create all directories for the provided path
@param path The path for which all directories should be created
*/
fn create_directories(str path) {
builtin::std::file::create_directories(path);
};
/**
Create all directories for the provided path
@param path The path for which all directories should be created
*/
fn create_directories(str path) {
builtin::std::file::create_directories(path);
};
}

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@@ -1,89 +1,89 @@
#pragma once
/*!
Library for doing arithmetic with fixed point numbers and converting them from/to floating point numbers.
Library for doing arithmetic with fixed point numbers and converting them from/to floating point numbers.
*/
namespace auto std::fxpt {
/**
A fixed point value
*/
using fixed = s128;
/**
A fixed point value
*/
using fixed = s128;
/**
Converts a fixed point value into a floating point value
@param fxt The fixed point value to convert
@param precision The bits of precision the new value should have
@return The floating point representation of fxt
*/
fn to_float(fixed fxt, u32 precision) {
return double(fxt) / double((1 << precision));
};
/**
Converts a floating point value into a fixed point value
@param flt The floating point value to convert
@param precision The bits of precision the new value should have
@return The fixed point representation of flt
*/
fn to_fixed(double flt, u32 precision) {
return s128((flt * (1 << precision)));
};
/**
Converts a fixed point value into a floating point value
@param fxt The fixed point value to convert
@param precision The bits of precision the new value should have
@return The floating point representation of fxt
*/
fn to_float(fixed fxt, u32 precision) {
return double(fxt) / double((1 << precision));
};
/**
Converts a floating point value into a fixed point value
@param flt The floating point value to convert
@param precision The bits of precision the new value should have
@return The fixed point representation of flt
*/
fn to_fixed(double flt, u32 precision) {
return s128((flt * (1 << precision)));
};
/**
Changes the number of bits used to represent the decimal part of the given fixed point number
@param value The fixed point value to convert
@param start_precision The current number of bits used
@param end_precision The new number of bits used
@return `value` as a new fixed point number with `end_precision` bits of precision
*/
fn change_precision(fixed value, u32 start_precision, u32 end_precision) {
return std::fxpt::to_fixed(std::fxpt::to_float(value, start_precision), end_precision);
};
/**
Adds two fixed point numbers with a given precision together
@param a First fixed point number
@param b Second fixed point number
@param precision The precision of `a` and `b`
@return Result of the addition of `a` and `b`
*/
fn add(fixed a, fixed b, u32 precision) {
return a + b;
};
/**
Subtracts two fixed point numbers with a given precision together
@param a First fixed point number
@param b Second fixed point number
@param precision The precision of `a` and `b`
@return Result of the subtraction of `a` and `b`
*/
fn subtract(fixed a, fixed b, u32 precision) {
return a - b;
};
/**
Multiplies two fixed point numbers with a given precision together
@param a First fixed point number
@param b Second fixed point number
@param precision The precision of `a` and `b`
@return Result of the multiplication of `a` and `b`
*/
fn multiply(fixed a, fixed b, u32 precision) {
return (a * b) / (1 << precision);
};
/**
Divides two fixed point numbers with a given precision together
@param a First fixed point number
@param b Second fixed point number
@param precision The precision of `a` and `b`
@return Result of the division of `a` and `b`
*/
fn divide(fixed a, fixed b, u32 precision) {
return (a << precision) / b;
};
/**
Changes the number of bits used to represent the decimal part of the given fixed point number
@param value The fixed point value to convert
@param start_precision The current number of bits used
@param end_precision The new number of bits used
@return `value` as a new fixed point number with `end_precision` bits of precision
*/
fn change_precision(fixed value, u32 start_precision, u32 end_precision) {
return std::fxpt::to_fixed(std::fxpt::to_float(value, start_precision), end_precision);
};
/**
Adds two fixed point numbers with a given precision together
@param a First fixed point number
@param b Second fixed point number
@param precision The precision of `a` and `b`
@return Result of the addition of `a` and `b`
*/
fn add(fixed a, fixed b, u32 precision) {
return a + b;
};
/**
Subtracts two fixed point numbers with a given precision together
@param a First fixed point number
@param b Second fixed point number
@param precision The precision of `a` and `b`
@return Result of the subtraction of `a` and `b`
*/
fn subtract(fixed a, fixed b, u32 precision) {
return a - b;
};
/**
Multiplies two fixed point numbers with a given precision together
@param a First fixed point number
@param b Second fixed point number
@param precision The precision of `a` and `b`
@return Result of the multiplication of `a` and `b`
*/
fn multiply(fixed a, fixed b, u32 precision) {
return (a * b) / (1 << precision);
};
/**
Divides two fixed point numbers with a given precision together
@param a First fixed point number
@param b Second fixed point number
@param precision The precision of `a` and `b`
@return Result of the division of `a` and `b`
*/
fn divide(fixed a, fixed b, u32 precision) {
return (a << precision) / b;
};
}

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@@ -1,169 +1,169 @@
#pragma once
/*!
Library to calculate the minimum and maximum values that fit into a given data type
Library to calculate the minimum and maximum values that fit into a given data type
*/
namespace auto std::limits {
/**
Returns the minimum value that can be stored in a `u8`.
@return Minimum value
*/
fn u8_min() {
return u8(0);
};
/**
Returns the maximum value that can be stored in a `u8`.
@return Maximum value
*/
fn u8_max() {
return u8(-1);
};
/**
Returns the minimum value that can be stored in a `u8`.
@return Minimum value
*/
fn u8_min() {
return u8(0);
};
/**
Returns the maximum value that can be stored in a `u8`.
@return Maximum value
*/
fn u8_max() {
return u8(-1);
};
/**
Returns the minimum value that can be stored in a `s8`.
@return Minimum value
*/
/**
Returns the minimum value that can be stored in a `s8`.
@return Minimum value
*/
fn s8_min() {
return -s8((std::limits::u8_max() / 2)) - 1;
};
/**
Returns the maximum value that can be stored in a `s8`.
@return Maximum value
*/
fn s8_max() {
return s8((std::limits::u8_max() / 2));
};
return -s8((std::limits::u8_max() / 2)) - 1;
};
/**
Returns the maximum value that can be stored in a `s8`.
@return Maximum value
*/
fn s8_max() {
return s8((std::limits::u8_max() / 2));
};
/**
Returns the minimum value that can be stored in a `u16`.
@return Minimum value
*/
fn u16_min() {
return u16(0);
};
/**
Returns the maximum value that can be stored in a `u16`.
@return Maximum value
*/
fn u16_max() {
return u16(-1);
};
/**
Returns the minimum value that can be stored in a `s16`.
@return Minimum value
*/
fn s16_min() {
return -s16((std::limits::u16_max() / 2)) - 1;
};
/**
Returns the maximum value that can be stored in a `s16`.
@return Maximum value
*/
fn s16_max() {
return s16((std::limits::u16_max() / 2));
};
/**
Returns the minimum value that can be stored in a `u32`.
@return Minimum value
*/
fn u32_min() {
return u32(0);
};
/**
Returns the maximum value that can be stored in a `u32`.
@return Maximum value
*/
fn u32_max() {
return u32(-1);
};
/**
Returns the minimum value that can be stored in a `s32`.
@return Minimum value
*/
fn s32_min() {
return -s32((std::limits::u32_max() / 2)) - 1;
};
/**
Returns the maximum value that can be stored in a `s32`.
@return Maximum value
*/
fn s32_max() {
return s32((std::limits::u32_max() / 2));
};
/**
Returns the minimum value that can be stored in a `u64`.
@return Minimum value
*/
fn u64_min() {
return u64(0);
};
/**
Returns the maximum value that can be stored in a `u64`.
@return Maximum value
*/
fn u64_max() {
return u64(-1);
};
/**
Returns the minimum value that can be stored in a `s64`.
@return Minimum value
*/
fn s64_min() {
return -s64((std::limits::u64_max() / 2)) - 1;
};
/**
Returns the maximum value that can be stored in a `s64`.
@return Maximum value
*/
fn s64_max() {
return s64((std::limits::u64_max() / 2));
};
/**
Returns the minimum value that can be stored in a `u128`.
@return Minimum value
*/
fn u128_min() {
return u128(0);
};
/**
Returns the maximum value that can be stored in a `u128`.
@return Maximum value
*/
fn u128_max() {
return u128(-1);
};
/**
Returns the minimum value that can be stored in a `s128`.
@return Minimum value
*/
fn s128_min() {
return -s128((std::limits::u128_max() / 2)) - 1;
};
/**
Returns the maximum value that can be stored in a `s128`.
@return Maximum value
*/
fn s128_max() {
return s128((std::limits::u128_max() / 2));
};
/**
Returns the minimum value that can be stored in a `u16`.
@return Minimum value
*/
fn u16_min() {
return u16(0);
};
/**
Returns the maximum value that can be stored in a `u16`.
@return Maximum value
*/
fn u16_max() {
return u16(-1);
};
/**
Returns the minimum value that can be stored in a `s16`.
@return Minimum value
*/
fn s16_min() {
return -s16((std::limits::u16_max() / 2)) - 1;
};
/**
Returns the maximum value that can be stored in a `s16`.
@return Maximum value
*/
fn s16_max() {
return s16((std::limits::u16_max() / 2));
};
/**
Returns the minimum value that can be stored in a `u32`.
@return Minimum value
*/
fn u32_min() {
return u32(0);
};
/**
Returns the maximum value that can be stored in a `u32`.
@return Maximum value
*/
fn u32_max() {
return u32(-1);
};
/**
Returns the minimum value that can be stored in a `s32`.
@return Minimum value
*/
fn s32_min() {
return -s32((std::limits::u32_max() / 2)) - 1;
};
/**
Returns the maximum value that can be stored in a `s32`.
@return Maximum value
*/
fn s32_max() {
return s32((std::limits::u32_max() / 2));
};
/**
Returns the minimum value that can be stored in a `u64`.
@return Minimum value
*/
fn u64_min() {
return u64(0);
};
/**
Returns the maximum value that can be stored in a `u64`.
@return Maximum value
*/
fn u64_max() {
return u64(-1);
};
/**
Returns the minimum value that can be stored in a `s64`.
@return Minimum value
*/
fn s64_min() {
return -s64((std::limits::u64_max() / 2)) - 1;
};
/**
Returns the maximum value that can be stored in a `s64`.
@return Maximum value
*/
fn s64_max() {
return s64((std::limits::u64_max() / 2));
};
/**
Returns the minimum value that can be stored in a `u128`.
@return Minimum value
*/
fn u128_min() {
return u128(0);
};
/**
Returns the maximum value that can be stored in a `u128`.
@return Maximum value
*/
fn u128_max() {
return u128(-1);
};
/**
Returns the minimum value that can be stored in a `s128`.
@return Minimum value
*/
fn s128_min() {
return -s128((std::limits::u128_max() / 2)) - 1;
};
/**
Returns the maximum value that can be stored in a `s128`.
@return Maximum value
*/
fn s128_max() {
return s128((std::limits::u128_max() / 2));
};
}

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@@ -3,338 +3,338 @@
import std.mem;
/*!
Library containing more advanced mathematical operations.
Library containing more advanced mathematical operations.
*/
namespace auto std::math {
/**
Compares the values `a` and `b` with each other and returns the smaller of the two
@param a First value
@param b Second value
@return `a` if `a` is smaller than `b`, otherwise `b`
*/
fn min(auto a, auto b) {
if (a < b)
return a;
else
return b;
};
/**
Compares the values `a` and `b` with each other and returns the bigger of the two
@param a First value
@param b Second value
@return `a` if `a` is bigger than `b`, otherwise `b`
*/
fn max(auto a, auto b) {
if (a > b)
return a;
else
return b;
};
/**
Clamps the value of `x` between `min` and `max`.
@param x Value
@param min Minimum value
@param max Maximum value
@return `min` if `x` is smaller than `min`, `max` if `x` is bigger than `max`, `x` otherwise
*/
fn clamp(auto x, auto min, auto max) {
if (x < min)
return min;
else if (x > max)
return max;
else
return x;
};
/**
Returns the absolute value of `x`.
@param x Value
@return `x` if `x` is positive, `-x` otherwise
*/
fn abs(auto x) {
if (x < 0)
return -x;
else
return x;
};
/**
Returns the sign of `x`.
@param x Value
@return `1` if `x` is positive, `-1` if `x` is negative, `0` if `x` is zero
*/
fn sign(auto x) {
if (x > 0)
return 1;
else if (x < 0)
return -1;
else
return 0;
};
/**
Copies the sign of `y` to `x`.
@param x Value
@param y Value
@return `x` if `y` is positive, `-x` if `y` is negative
*/
fn copy_sign(auto x, auto y) {
if (y >= 0)
return std::math::abs(x);
else
return -std::math::abs(x);
};
/**
Calculates the factorial of `x`.
@param x Value
@return Factorial of `x`
*/
fn factorial(u128 x) {
u128 result;
result = x;
while (x > 1) {
x = x - 1;
result = result * x;
}
return result;
};
/**
Calculates the binomial coefficient of `n` and `k`.
@param n Value
@param k Value
@return Binomial coefficient of `n` and `k`
*/
fn comb(u128 n, u128 k) {
if (k > n)
return 0;
else
return std::math::factorial(n) / (std::math::factorial(k) * std::math::factorial(n - k));
};
/**
Calculates the permutation of `n` and `k`.
@param n Value
@param k Value
@return Permutation of `n` and `k`
*/
fn perm(u128 n, u128 k) {
if (k > n)
return 0;
else
return std::math::factorial(n) / std::math::factorial(n - k);
};
/**
Floors the value of `value`.
@param value Value
@return `value` floored
*/
fn floor(auto value) { return builtin::std::math::floor(value); };
/**
Ceils the value of `value`.
@param value Value
@return `value` ceiled
*/
fn ceil(auto value) { return builtin::std::math::ceil(value); };
/**
Rounds the value of `value`.
@param value Value
@return `value` rounded
*/
fn round(auto value) { return builtin::std::math::round(value); };
/**
Truncates the value of `value`.
@param value Value
@return `value` truncated
*/
fn trunc(auto value) { return builtin::std::math::trunc(value); };
/**
Calculates the logarithm of `value` with base 10.
@param value Value
@return Logarithm of `value` with base 10
*/
fn log10(auto value) { return builtin::std::math::log10(value); };
/**
Calculates the logarithm of `value` with base 2.
@param value Value
@return Logarithm of `value` with base 2
*/
fn log2(auto value) { return builtin::std::math::log2(value); };
/**
Calculates the natural logarithm of `value`.
@param value Value
@return Logarithm of `value` with base `e`
*/
fn ln(auto value) { return builtin::std::math::ln(value); };
/**
Calculates the floating point modulus of `value`.
@param value Value
@return Floating point modulus of `value`
*/
fn fmod(auto value) { return builtin::std::math::fmod(value); };
/**
Calculates the value of `base` raised to the power of `exp`.
@param base Base
@param exp Exponent
@return `base` raised to the power of `exp`
*/
fn pow(auto base, auto exp) { return builtin::std::math::pow(base, exp); };
/**
Compares the values `a` and `b` with each other and returns the smaller of the two
@param a First value
@param b Second value
@return `a` if `a` is smaller than `b`, otherwise `b`
*/
fn min(auto a, auto b) {
if (a < b)
return a;
else
return b;
};
/**
Compares the values `a` and `b` with each other and returns the bigger of the two
@param a First value
@param b Second value
@return `a` if `a` is bigger than `b`, otherwise `b`
*/
fn max(auto a, auto b) {
if (a > b)
return a;
else
return b;
};
/**
Calculates the value of the natural number `e` raised to the power of `value`.
@param value Exponent
@return `e` raised to the power of `value`
*/
Clamps the value of `x` between `min` and `max`.
@param x Value
@param min Minimum value
@param max Maximum value
@return `min` if `x` is smaller than `min`, `max` if `x` is bigger than `max`, `x` otherwise
*/
fn clamp(auto x, auto min, auto max) {
if (x < min)
return min;
else if (x > max)
return max;
else
return x;
};
/**
Returns the absolute value of `x`.
@param x Value
@return `x` if `x` is positive, `-x` otherwise
*/
fn abs(auto x) {
if (x < 0)
return -x;
else
return x;
};
/**
Returns the sign of `x`.
@param x Value
@return `1` if `x` is positive, `-1` if `x` is negative, `0` if `x` is zero
*/
fn sign(auto x) {
if (x > 0)
return 1;
else if (x < 0)
return -1;
else
return 0;
};
/**
Copies the sign of `y` to `x`.
@param x Value
@param y Value
@return `x` if `y` is positive, `-x` if `y` is negative
*/
fn copy_sign(auto x, auto y) {
if (y >= 0)
return std::math::abs(x);
else
return -std::math::abs(x);
};
/**
Calculates the factorial of `x`.
@param x Value
@return Factorial of `x`
*/
fn factorial(u128 x) {
u128 result;
result = x;
while (x > 1) {
x = x - 1;
result = result * x;
}
return result;
};
/**
Calculates the binomial coefficient of `n` and `k`.
@param n Value
@param k Value
@return Binomial coefficient of `n` and `k`
*/
fn comb(u128 n, u128 k) {
if (k > n)
return 0;
else
return std::math::factorial(n) / (std::math::factorial(k) * std::math::factorial(n - k));
};
/**
Calculates the permutation of `n` and `k`.
@param n Value
@param k Value
@return Permutation of `n` and `k`
*/
fn perm(u128 n, u128 k) {
if (k > n)
return 0;
else
return std::math::factorial(n) / std::math::factorial(n - k);
};
/**
Floors the value of `value`.
@param value Value
@return `value` floored
*/
fn floor(auto value) { return builtin::std::math::floor(value); };
/**
Ceils the value of `value`.
@param value Value
@return `value` ceiled
*/
fn ceil(auto value) { return builtin::std::math::ceil(value); };
/**
Rounds the value of `value`.
@param value Value
@return `value` rounded
*/
fn round(auto value) { return builtin::std::math::round(value); };
/**
Truncates the value of `value`.
@param value Value
@return `value` truncated
*/
fn trunc(auto value) { return builtin::std::math::trunc(value); };
/**
Calculates the logarithm of `value` with base 10.
@param value Value
@return Logarithm of `value` with base 10
*/
fn log10(auto value) { return builtin::std::math::log10(value); };
/**
Calculates the logarithm of `value` with base 2.
@param value Value
@return Logarithm of `value` with base 2
*/
fn log2(auto value) { return builtin::std::math::log2(value); };
/**
Calculates the natural logarithm of `value`.
@param value Value
@return Logarithm of `value` with base `e`
*/
fn ln(auto value) { return builtin::std::math::ln(value); };
/**
Calculates the floating point modulus of `value`.
@param value Value
@return Floating point modulus of `value`
*/
fn fmod(auto value) { return builtin::std::math::fmod(value); };
/**
Calculates the value of `base` raised to the power of `exp`.
@param base Base
@param exp Exponent
@return `base` raised to the power of `exp`
*/
fn pow(auto base, auto exp) { return builtin::std::math::pow(base, exp); };
/**
Calculates the value of the natural number `e` raised to the power of `value`.
@param value Exponent
@return `e` raised to the power of `value`
*/
fn exp(auto value) { return builtin::std::math::exp(value); };
/**
Calculates the square root of `value`.
@param value Value
@return Square root of `value`
*/
fn sqrt(auto value) { return builtin::std::math::sqrt(value); };
/**
Calculates the square root of `value`.
@param value Value
@return Square root of `value`
*/
fn sqrt(auto value) { return builtin::std::math::sqrt(value); };
/**
Calculates the cubic root of `value`.
@param value Value
@return Cubic root of `value`
*/
fn cbrt(auto value) { return builtin::std::math::cbrt(value); };
/**
Calculates the cubic root of `value`.
@param value Value
@return Cubic root of `value`
*/
fn cbrt(auto value) { return builtin::std::math::cbrt(value); };
/**
Calculates the sine of `value`.
@param value Angle value in radians
@return Sine of `value`
*/
fn sin(auto value) { return builtin::std::math::sin(value); };
/**
Calculates the sine of `value`.
@param value Angle value in radians
@return Sine of `value`
*/
fn sin(auto value) { return builtin::std::math::sin(value); };
/**
Calculates the cosine of `value`.
@param value Angle value in radians
@return Cosine of `value`
*/
fn cos(auto value) { return builtin::std::math::cos(value); };
/**
Calculates the cosine of `value`.
@param value Angle value in radians
@return Cosine of `value`
*/
fn cos(auto value) { return builtin::std::math::cos(value); };
/**
Calculates the tangent of `value`.
@param value Angle value in radians
@return Tangent of `value`
*/
fn tan(auto value) { return builtin::std::math::tan(value); };
/**
Calculates the tangent of `value`.
@param value Angle value in radians
@return Tangent of `value`
*/
fn tan(auto value) { return builtin::std::math::tan(value); };
/**
Calculates the arc sine of `value`.
@param value Angle value in radians
@return Arc sine of `value`
*/
fn asin(auto value) { return builtin::std::math::asin(value); };
/**
Calculates the arc sine of `value`.
@param value Angle value in radians
@return Arc sine of `value`
*/
fn asin(auto value) { return builtin::std::math::asin(value); };
/**
Calculates the arc cosine of `value`.
@param value Value
@return Arc cosine of `value` in radians
*/
fn acos(auto value) { return builtin::std::math::acos(value); };
/**
Calculates the arc cosine of `value`.
@param value Value
@return Arc cosine of `value` in radians
*/
fn acos(auto value) { return builtin::std::math::acos(value); };
/**
Calculates the arc tangent of `value`.
@param value Value
@return Arc tangent of `value` in radians between `-pi/2` and `pi/2`
*/
fn atan(auto value) { return builtin::std::math::atan(value); };
/**
Calculates the arc tangent of `value`.
@param value Value
@return Arc tangent of `value` in radians between `-pi/2` and `pi/2`
*/
fn atan(auto value) { return builtin::std::math::atan(value); };
/**
Calculates the arc tangent of `value`.
@param y Value representing the proportion of the y-coordinate
@param x Value representing the proportion of the x-coordinate.
@return Arc tangent of `value` in radians between `-pi` and `pi`
*/
fn atan2(auto y, auto x) { return builtin::std::math::atan2(y, x); };
/**
Calculates the arc tangent of `value`.
@param y Value representing the proportion of the y-coordinate
@param x Value representing the proportion of the x-coordinate.
@return Arc tangent of `value` in radians between `-pi` and `pi`
*/
fn atan2(auto y, auto x) { return builtin::std::math::atan2(y, x); };
/**
Calculates the hyperbolic sine of `value`.
@param value Angle value in radians
@return Hyperbolic sine of `value`
*/
fn sinh(auto value) { return builtin::std::math::sinh(value); };
/**
Calculates the hyperbolic sine of `value`.
@param value Angle value in radians
@return Hyperbolic sine of `value`
*/
fn sinh(auto value) { return builtin::std::math::sinh(value); };
/**
Calculates the hyperbolic cosine of `value`.
@param value Angle value in radians
@return Hyperbolic cosine of `value`
*/
fn cosh(auto value) { return builtin::std::math::cosh(value); };
/**
Calculates the hyperbolic cosine of `value`.
@param value Angle value in radians
@return Hyperbolic cosine of `value`
*/
fn cosh(auto value) { return builtin::std::math::cosh(value); };
/**
Calculates the hyperbolic tangent of `value`.
@param value Angle value in radians
@return Hyperbolic tangent of `value`
*/
fn tanh(auto value) { return builtin::std::math::tanh(value); };
/**
Calculates the hyperbolic tangent of `value`.
@param value Angle value in radians
@return Hyperbolic tangent of `value`
*/
fn tanh(auto value) { return builtin::std::math::tanh(value); };
/**
Calculates the arc hyperbolic sine of `value`.
@param value Value
@return Arc hyperbolic sine of `value`
*/
fn asinh(auto value) { return builtin::std::math::asinh(value); };
/**
Calculates the arc hyperbolic sine of `value`.
@param value Value
@return Arc hyperbolic sine of `value`
*/
fn asinh(auto value) { return builtin::std::math::asinh(value); };
/**
Calculates the arc hyperbolic cosine of `value`.
@param value Value
@return Arc hyperbolic cosine of `value`
*/
fn acosh(auto value) { return builtin::std::math::acosh(value); };
/**
Calculates the arc hyperbolic cosine of `value`.
@param value Value
@return Arc hyperbolic cosine of `value`
*/
fn acosh(auto value) { return builtin::std::math::acosh(value); };
/**
Calculates the arc hyperbolic tangent of `value`.
@param value Value
@return Arc hyperbolic tangent of `value`
*/
fn atanh(auto value) { return builtin::std::math::atanh(value); };
/**
Calculates the arc hyperbolic tangent of `value`.
@param value Value
@return Arc hyperbolic tangent of `value`
*/
fn atanh(auto value) { return builtin::std::math::atanh(value); };
/**
Options to use with the `std::math::accumulate` function.
*/
enum AccumulateOperation : u8 {
Add = 0,
Multiply = 1,
Modulo = 2,
Min = 3,
Max = 4
};
/**
Options to use with the `std::math::accumulate` function.
*/
enum AccumulateOperation : u8 {
Add = 0,
Multiply = 1,
Modulo = 2,
Min = 3,
Max = 4
};
/**
Calculates the sum of all values in the specified memory range.
@param start Start address
@param end End address
@param valueSize Size of each value in bytes
@param [section] Section to use
@param [operation] Operation to use. Defaults to addition
@param [endian] Endianness to use. Defaults to native
@return Sum of all values in the specified memory range
*/
fn accumulate(u128 start, u128 end, u128 valueSize, std::mem::Section section = 0, AccumulateOperation operation = AccumulateOperation::Add, std::mem::Endian endian = std::mem::Endian::Native) {
return builtin::std::math::accumulate(start, end, valueSize, section, u128(operation), u128(endian));
};
/**
Calculates the sum of all values in the specified memory range.
@param start Start address
@param end End address
@param valueSize Size of each value in bytes
@param [section] Section to use
@param [operation] Operation to use. Defaults to addition
@param [endian] Endianness to use. Defaults to native
@return Sum of all values in the specified memory range
*/
fn accumulate(u128 start, u128 end, u128 valueSize, std::mem::Section section = 0, AccumulateOperation operation = AccumulateOperation::Add, std::mem::Endian endian = std::mem::Endian::Native) {
return builtin::std::math::accumulate(start, end, valueSize, section, u128(operation), u128(endian));
};
}

View File

@@ -16,7 +16,7 @@ namespace auto std::string {
struct SizedStringBase<SizeType, DataType> {
SizeType size;
DataType data[size];
} [[sealed, format("std::string::impl::format_sized_string"), transform("std::string::impl::format_sized_string")]];
} [[sealed, format("std::string::impl::format_string"), transform("std::string::impl::format_string")]];
/**
A ASCII string with a prefixed size.
@@ -36,7 +36,7 @@ namespace auto std::string {
*/
struct NullStringBase<DataType> {
DataType string[while($[$] != 0x00)];
} [[format("std::string::impl::format_null_string")]];
} [[sealed, format("std::string::impl::format_string"), transform("std::string::impl::format_string")]];
/**
A null-terminated ASCII string.
@@ -50,14 +50,10 @@ namespace auto std::string {
namespace impl {
fn format_sized_string(ref auto string) {
fn format_string(ref auto string) {
return string.data;
};
fn format_null_string(ref auto null_string) {
return null_string.string;
};
}
/**

View File

@@ -3,198 +3,198 @@
import std.io;
/*!
Library to handle time and date related operations.
Library to handle time and date related operations.
*/
namespace auto std::time {
/**
A structured representation of a time and date.
*/
struct Time {
u8 sec;
u8 min;
u8 hour;
u8 mday;
u8 mon;
u16 year;
u8 wday;
u16 yday;
bool isdst;
} [[sealed]];
/**
A structured representation of a time and date.
*/
struct Time {
u8 sec;
u8 min;
u8 hour;
u8 mday;
u8 mon;
u16 year;
u8 wday;
u16 yday;
bool isdst;
} [[sealed]];
/**
A helper type to convert between Time and u128.
*/
union TimeConverter {
Time time;
u128 value;
};
/**
A helper type to convert between Time and u128.
*/
union TimeConverter {
Time time;
u128 value;
};
/**
A type to represent a time in seconds since the epoch.
*/
using EpochTime = u32;
/**
A type to represent a time in seconds since the epoch.
*/
using EpochTime = u32;
/**
A type to represent a time zone.
*/
enum TimeZone : u8 {
Local,
UTC
};
/**
A type to represent a time zone.
*/
enum TimeZone : u8 {
Local,
UTC
};
/**
A type to represent a DOS date.
*/
bitfield DOSDate {
day: 5;
month: 4;
year: 7;
} [[sealed]];
/**
A type to represent a DOS date.
*/
bitfield DOSDate {
day: 5;
month: 4;
year: 7;
} [[sealed]];
/**
A type to represent a DOS time.
*/
bitfield DOSTime {
seconds: 5;
minutes: 6;
hours: 5;
} [[sealed]];
/**
A type to represent a DOS time.
*/
bitfield DOSTime {
seconds: 5;
minutes: 6;
hours: 5;
} [[sealed]];
namespace impl {
namespace impl {
union DOSDateConverter {
DOSDate date;
u16 value;
};
union DOSDateConverter {
DOSDate date;
u16 value;
};
union DOSTimeConverter {
DOSTime time;
u16 value;
};
union DOSTimeConverter {
DOSTime time;
u16 value;
};
}
}
/**
Returns the current time in seconds since the epoch.
@return The current time in seconds since the epoch.
*/
fn epoch() {
return builtin::std::time::epoch();
};
/**
Returns the current time in seconds since the epoch.
@return The current time in seconds since the epoch.
*/
fn epoch() {
return builtin::std::time::epoch();
};
/**
Converts a time in seconds since the epoch to a local time.
@param epoch_time The time in seconds since the epoch.
@return The local time.
*/
fn to_local(EpochTime epoch_time) {
le TimeConverter converter;
/**
Converts a time in seconds since the epoch to a local time.
@param epoch_time The time in seconds since the epoch.
@return The local time.
*/
fn to_local(EpochTime epoch_time) {
le TimeConverter converter;
converter.value = builtin::std::time::to_local(epoch_time);
converter.value = builtin::std::time::to_local(epoch_time);
return converter.time;
};
return converter.time;
};
/**
Converts a time in seconds since the epoch to a UTC time.
@param epoch_time The time in seconds since the epoch.
@return The UTC time.
*/
fn to_utc(EpochTime epoch_time) {
le TimeConverter converter;
/**
Converts a time in seconds since the epoch to a UTC time.
@param epoch_time The time in seconds since the epoch.
@return The UTC time.
*/
fn to_utc(EpochTime epoch_time) {
le TimeConverter converter;
converter.value = builtin::std::time::to_utc(epoch_time);
converter.value = builtin::std::time::to_utc(epoch_time);
return converter.time;
};
return converter.time;
};
/**
Queries the current time in the specified time zone.
@param [time_zone] The time zone to query. Defaults to local.
@return The current time in the specified time zone.
*/
fn now(TimeZone time_zone = TimeZone::Local) {
le TimeConverter converter;
/**
Queries the current time in the specified time zone.
@param [time_zone] The time zone to query. Defaults to local.
@return The current time in the specified time zone.
*/
fn now(TimeZone time_zone = TimeZone::Local) {
le TimeConverter converter;
if (time_zone == TimeZone::Local)
converter.value = builtin::std::time::to_local(std::time::epoch());
else if (time_zone == TimeZone::UTC)
converter.value = builtin::std::time::to_utc(std::time::epoch());
else
converter.value = 0x00;
if (time_zone == TimeZone::Local)
converter.value = builtin::std::time::to_local(std::time::epoch());
else if (time_zone == TimeZone::UTC)
converter.value = builtin::std::time::to_utc(std::time::epoch());
else
converter.value = 0x00;
return converter.time;
};
return converter.time;
};
/**
Converts a value to a DOS date.
@param value The value to convert.
@return The DOS date.
*/
fn to_dos_date(u16 value) {
le impl::DOSDateConverter converter;
/**
Converts a value to a DOS date.
@param value The value to convert.
@return The DOS date.
*/
fn to_dos_date(u16 value) {
le impl::DOSDateConverter converter;
converter.value = value;
converter.value = value;
return converter.date;
};
return converter.date;
};
/**
Converts a value to a DOS time.
@param value The value to convert.
@return The DOS time.
*/
fn to_dos_time(u16 value) {
le impl::DOSTimeConverter converter;
/**
Converts a value to a DOS time.
@param value The value to convert.
@return The DOS time.
*/
fn to_dos_time(u16 value) {
le impl::DOSTimeConverter converter;
converter.value = value;
converter.value = value;
return converter.time;
};
return converter.time;
};
/**
Converts a FILETIME to unix time.
@param value The value to convert.
@return Timestamp formatted as unix time.
*/
fn filetime_to_unix(u64 value) {
return value / 10000000 - 11644473600;
};
/**
Converts a FILETIME to unix time.
@param value The value to convert.
@return Timestamp formatted as unix time.
*/
fn filetime_to_unix(u64 value) {
return value / 10000000 - 11644473600;
};
/**
Formats a time according to the specified format string.
@param time The time to format.
@param [format_string] The format string to use. Defaults to "%c".
@return The formatted time.
*/
fn format(Time time, str format_string = "%c") {
le TimeConverter converter;
converter.time = time;
/**
Formats a time according to the specified format string.
@param time The time to format.
@param [format_string] The format string to use. Defaults to "%c".
@return The formatted time.
*/
fn format(Time time, str format_string = "%c") {
le TimeConverter converter;
converter.time = time;
return builtin::std::time::format(format_string, converter.value);
};
return builtin::std::time::format(format_string, converter.value);
};
/**
Formats a DOS date according to the specified format string.
@param date The DOS date to format.
@param [format_string] The format string to use. Defaults to "{}/{}/{}".
@return The formatted DOS date.
*/
fn format_dos_date(DOSDate date, str format_string = "{}/{}/{}") {
return std::format(format_string, date.day, date.month, date.year + 1980);
};
/**
Formats a DOS date according to the specified format string.
@param date The DOS date to format.
@param [format_string] The format string to use. Defaults to "{}/{}/{}".
@return The formatted DOS date.
*/
fn format_dos_date(DOSDate date, str format_string = "{}/{}/{}") {
return std::format(format_string, date.day, date.month, date.year + 1980);
};
/**
Formats a DOS time according to the specified format string.
@param time The DOS time to format.
@param [format_string] The format string to use. Defaults to "{:02}:{:02}:{:02}".
@return The formatted DOS time.
*/
fn format_dos_time(DOSTime time, str format_string = "{:02}:{:02}:{:02}") {
return std::format(format_string, time.hours, time.minutes, time.seconds * 2);
};
/**
Formats a DOS time according to the specified format string.
@param time The DOS time to format.
@param [format_string] The format string to use. Defaults to "{:02}:{:02}:{:02}".
@return The formatted DOS time.
*/
fn format_dos_time(DOSTime time, str format_string = "{:02}:{:02}:{:02}") {
return std::format(format_string, time.hours, time.minutes, time.seconds * 2);
};
}