The 32-bit unsigned integer type.

`impl u32`

[src]
`pub const `**MIN**: u32

[src]1.43.0
The smallest value that can be represented by this integer type.

Basic usage:

assert_eq!(u32::MIN, 0);

`pub const `**MAX**: u32

[src]1.43.0
The largest value that can be represented by this integer type.

Basic usage:

assert_eq!(u32::MAX, 4294967295);

`pub fn from_str_radix(src: &str, radix: u32) -> Result<u32, ParseIntError>`

[src]
Converts a string slice in a given base to an integer.

The string is expected to be an optional `+`

sign followed by digits. Leading and trailing whitespace represent an error. Digits are a subset of these characters, depending on `radix`

:

`0-9`

`a-z`

`A-Z`

This function panics if `radix`

is not in the range from 2 to 36.

Basic usage:

assert_eq!(u32::from_str_radix("A", 16), Ok(10));

`pub const fn count_ones(self) -> u32`

[src]
Returns the number of ones in the binary representation of `self`

.

Basic usage:

let n = 0b01001100u32; assert_eq!(n.count_ones(), 3);

`pub const fn count_zeros(self) -> u32`

[src]
Returns the number of zeros in the binary representation of `self`

.

Basic usage:

assert_eq!(u32::MAX.count_zeros(), 0);

`pub const fn leading_zeros(self) -> u32`

[src]
Returns the number of leading zeros in the binary representation of `self`

.

Basic usage:

let n = u32::MAX >> 2; assert_eq!(n.leading_zeros(), 2);

`pub const fn trailing_zeros(self) -> u32`

[src]
Returns the number of trailing zeros in the binary representation of `self`

.

Basic usage:

let n = 0b0101000u32; assert_eq!(n.trailing_zeros(), 3);

`pub const fn leading_ones(self) -> u32`

[src]1.46.0
Returns the number of leading ones in the binary representation of `self`

.

Basic usage:

let n = !(u32::MAX >> 2); assert_eq!(n.leading_ones(), 2);

`pub const fn trailing_ones(self) -> u32`

[src]1.46.0
Returns the number of trailing ones in the binary representation of `self`

.

Basic usage:

let n = 0b1010111u32; assert_eq!(n.trailing_ones(), 3);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn rotate_left(self, n: u32) -> u32
```

[src]
Shifts the bits to the left by a specified amount, `n`

, wrapping the truncated bits to the end of the resulting integer.

Please note this isn't the same operation as the `<<`

shifting operator!

Basic usage:

let n = 0x10000b3u32; let m = 0xb301; assert_eq!(n.rotate_left(8), m);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn rotate_right(self, n: u32) -> u32
```

[src]
Shifts the bits to the right by a specified amount, `n`

, wrapping the truncated bits to the beginning of the resulting integer.

Please note this isn't the same operation as the `>>`

shifting operator!

Basic usage:

let n = 0xb301u32; let m = 0x10000b3; assert_eq!(n.rotate_right(8), m);

`pub const fn swap_bytes(self) -> u32`

[src]
Reverses the byte order of the integer.

Basic usage:

let n = 0x12345678u32; let m = n.swap_bytes(); assert_eq!(m, 0x78563412);

`pub const fn reverse_bits(self) -> u32`

[src]1.37.0
Reverses the bit pattern of the integer.

Basic usage:

let n = 0x12345678u32; let m = n.reverse_bits(); assert_eq!(m, 0x1e6a2c48);

`pub const fn from_be(x: u32) -> u32`

[src]
Converts an integer from big endian to the target's endianness.

On big endian this is a no-op. On little endian the bytes are swapped.

Basic usage:

let n = 0x1Au32; if cfg!(target_endian = "big") { assert_eq!(u32::from_be(n), n) } else { assert_eq!(u32::from_be(n), n.swap_bytes()) }

`pub const fn from_le(x: u32) -> u32`

[src]
Converts an integer from little endian to the target's endianness.

On little endian this is a no-op. On big endian the bytes are swapped.

Basic usage:

let n = 0x1Au32; if cfg!(target_endian = "little") { assert_eq!(u32::from_le(n), n) } else { assert_eq!(u32::from_le(n), n.swap_bytes()) }

`pub const fn to_be(self) -> u32`

[src]
Converts `self`

to big endian from the target's endianness.

On big endian this is a no-op. On little endian the bytes are swapped.

Basic usage:

let n = 0x1Au32; if cfg!(target_endian = "big") { assert_eq!(n.to_be(), n) } else { assert_eq!(n.to_be(), n.swap_bytes()) }

`pub const fn to_le(self) -> u32`

[src]
Converts `self`

to little endian from the target's endianness.

On little endian this is a no-op. On big endian the bytes are swapped.

Basic usage:

let n = 0x1Au32; if cfg!(target_endian = "little") { assert_eq!(n.to_le(), n) } else { assert_eq!(n.to_le(), n.swap_bytes()) }

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn checked_add(self, rhs: u32) -> Option<u32>
```

[src]
Checked integer addition. Computes `self + rhs`

, returning `None`

if overflow occurred.

Basic usage:

assert_eq!((u32::MAX - 2).checked_add(1), Some(u32::MAX - 1)); assert_eq!((u32::MAX - 2).checked_add(3), None);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub unsafe fn unchecked_add(self, rhs: u32) -> u32
```

[src]
ðŸ”¬ This is a nightly-only experimental API. (unchecked_math)niche optimization path

Unchecked integer addition. Computes `self + rhs`

, assuming overflow cannot occur. This results in undefined behavior when `self + rhs > u32::MAX`

or `self + rhs < u32::MIN`

.

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn checked_sub(self, rhs: u32) -> Option<u32>
```

[src]
Checked integer subtraction. Computes `self - rhs`

, returning `None`

if overflow occurred.

Basic usage:

assert_eq!(1u32.checked_sub(1), Some(0)); assert_eq!(0u32.checked_sub(1), None);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub unsafe fn unchecked_sub(self, rhs: u32) -> u32
```

[src]
ðŸ”¬ This is a nightly-only experimental API. (unchecked_math)niche optimization path

Unchecked integer subtraction. Computes `self - rhs`

, assuming overflow cannot occur. This results in undefined behavior when `self - rhs > u32::MAX`

or `self - rhs < u32::MIN`

.

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn checked_mul(self, rhs: u32) -> Option<u32>
```

[src]
Checked integer multiplication. Computes `self * rhs`

, returning `None`

if overflow occurred.

Basic usage:

assert_eq!(5u32.checked_mul(1), Some(5)); assert_eq!(u32::MAX.checked_mul(2), None);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub unsafe fn unchecked_mul(self, rhs: u32) -> u32
```

[src]
ðŸ”¬ This is a nightly-only experimental API. (unchecked_math)niche optimization path

Unchecked integer multiplication. Computes `self * rhs`

, assuming overflow cannot occur. This results in undefined behavior when `self * rhs > u32::MAX`

or `self * rhs < u32::MIN`

.

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn checked_div(self, rhs: u32) -> Option<u32>
```

[src]
Checked integer division. Computes `self / rhs`

, returning `None`

if `rhs == 0`

.

Basic usage:

assert_eq!(128u32.checked_div(2), Some(64)); assert_eq!(1u32.checked_div(0), None);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn checked_div_euclid(self, rhs: u32) -> Option<u32>
```

[src]1.38.0
Checked Euclidean division. Computes `self.div_euclid(rhs)`

, returning `None`

if `rhs == 0`

.

Basic usage:

assert_eq!(128u32.checked_div_euclid(2), Some(64)); assert_eq!(1u32.checked_div_euclid(0), None);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn checked_rem(self, rhs: u32) -> Option<u32>
```

[src]1.7.0
Checked integer remainder. Computes `self % rhs`

, returning `None`

if `rhs == 0`

.

Basic usage:

assert_eq!(5u32.checked_rem(2), Some(1)); assert_eq!(5u32.checked_rem(0), None);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn checked_rem_euclid(self, rhs: u32) -> Option<u32>
```

[src]1.38.0
Checked Euclidean modulo. Computes `self.rem_euclid(rhs)`

, returning `None`

if `rhs == 0`

.

Basic usage:

assert_eq!(5u32.checked_rem_euclid(2), Some(1)); assert_eq!(5u32.checked_rem_euclid(0), None);

`pub const fn checked_neg(self) -> Option<u32>`

[src]1.7.0
Checked negation. Computes `-self`

, returning `None`

unless `self == 0`

.

Note that negating any positive integer will overflow.

Basic usage:

assert_eq!(0u32.checked_neg(), Some(0)); assert_eq!(1u32.checked_neg(), None);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn checked_shl(self, rhs: u32) -> Option<u32>
```

[src]1.7.0
Checked shift left. Computes `self << rhs`

, returning `None`

if `rhs`

is larger than or equal to the number of bits in `self`

.

Basic usage:

assert_eq!(0x1u32.checked_shl(4), Some(0x10)); assert_eq!(0x10u32.checked_shl(129), None);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn checked_shr(self, rhs: u32) -> Option<u32>
```

[src]1.7.0
Checked shift right. Computes `self >> rhs`

, returning `None`

if `rhs`

is larger than or equal to the number of bits in `self`

.

Basic usage:

assert_eq!(0x10u32.checked_shr(4), Some(0x1)); assert_eq!(0x10u32.checked_shr(129), None);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn checked_pow(self, exp: u32) -> Option<u32>
```

[src]1.34.0
Checked exponentiation. Computes `self.pow(exp)`

, returning `None`

if overflow occurred.

Basic usage:

assert_eq!(2u32.checked_pow(5), Some(32)); assert_eq!(u32::MAX.checked_pow(2), None);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn saturating_add(self, rhs: u32) -> u32
```

[src]
Saturating integer addition. Computes `self + rhs`

, saturating at the numeric bounds instead of overflowing.

Basic usage:

assert_eq!(100u32.saturating_add(1), 101); assert_eq!(u32::MAX.saturating_add(127), u32::MAX);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn saturating_sub(self, rhs: u32) -> u32
```

[src]
Saturating integer subtraction. Computes `self - rhs`

, saturating at the numeric bounds instead of overflowing.

Basic usage:

assert_eq!(100u32.saturating_sub(27), 73); assert_eq!(13u32.saturating_sub(127), 0);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn saturating_mul(self, rhs: u32) -> u32
```

[src]1.7.0
Saturating integer multiplication. Computes `self * rhs`

, saturating at the numeric bounds instead of overflowing.

Basic usage:

assert_eq!(2u32.saturating_mul(10), 20); assert_eq!((u32::MAX).saturating_mul(10), u32::MAX);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn saturating_pow(self, exp: u32) -> u32
```

[src]1.34.0
Saturating integer exponentiation. Computes `self.pow(exp)`

, saturating at the numeric bounds instead of overflowing.

Basic usage:

assert_eq!(4u32.saturating_pow(3), 64); assert_eq!(u32::MAX.saturating_pow(2), u32::MAX);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn wrapping_add(self, rhs: u32) -> u32
```

[src]
Wrapping (modular) addition. Computes `self + rhs`

, wrapping around at the boundary of the type.

Basic usage:

assert_eq!(200u32.wrapping_add(55), 255); assert_eq!(200u32.wrapping_add(u32::MAX), 199);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn wrapping_sub(self, rhs: u32) -> u32
```

[src]
Wrapping (modular) subtraction. Computes `self - rhs`

, wrapping around at the boundary of the type.

Basic usage:

assert_eq!(100u32.wrapping_sub(100), 0); assert_eq!(100u32.wrapping_sub(u32::MAX), 101);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn wrapping_mul(self, rhs: u32) -> u32
```

[src]
Wrapping (modular) multiplication. Computes `self * rhs`

, wrapping around at the boundary of the type.

Basic usage:

Please note that this example is shared between integer types. Which explains why `u8`

is used here.

assert_eq!(10u8.wrapping_mul(12), 120); assert_eq!(25u8.wrapping_mul(12), 44);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn wrapping_div(self, rhs: u32) -> u32
```

[src]1.2.0
Wrapping (modular) division. Computes `self / rhs`

. Wrapped division on unsigned types is just normal division. There's no way wrapping could ever happen. This function exists, so that all operations are accounted for in the wrapping operations.

Basic usage:

assert_eq!(100u32.wrapping_div(10), 10);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn wrapping_div_euclid(self, rhs: u32) -> u32
```

[src]1.38.0
Wrapping Euclidean division. Computes `self.div_euclid(rhs)`

. Wrapped division on unsigned types is just normal division. There's no way wrapping could ever happen. This function exists, so that all operations are accounted for in the wrapping operations. Since, for the positive integers, all common definitions of division are equal, this is exactly equal to `self.wrapping_div(rhs)`

.

Basic usage:

assert_eq!(100u32.wrapping_div_euclid(10), 10);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn wrapping_rem(self, rhs: u32) -> u32
```

[src]1.2.0
Wrapping (modular) remainder. Computes `self % rhs`

. Wrapped remainder calculation on unsigned types is just the regular remainder calculation. There's no way wrapping could ever happen. This function exists, so that all operations are accounted for in the wrapping operations.

Basic usage:

assert_eq!(100u32.wrapping_rem(10), 0);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn wrapping_rem_euclid(self, rhs: u32) -> u32
```

[src]1.38.0
Wrapping Euclidean modulo. Computes `self.rem_euclid(rhs)`

. Wrapped modulo calculation on unsigned types is just the regular remainder calculation. There's no way wrapping could ever happen. This function exists, so that all operations are accounted for in the wrapping operations. Since, for the positive integers, all common definitions of division are equal, this is exactly equal to `self.wrapping_rem(rhs)`

.

Basic usage:

assert_eq!(100u32.wrapping_rem_euclid(10), 0);

`pub const fn wrapping_neg(self) -> u32`

[src]1.2.0
Wrapping (modular) negation. Computes `-self`

, wrapping around at the boundary of the type.

Since unsigned types do not have negative equivalents all applications of this function will wrap (except for `-0`

). For values smaller than the corresponding signed type's maximum the result is the same as casting the corresponding signed value. Any larger values are equivalent to `MAX + 1 - (val - MAX - 1)`

where `MAX`

is the corresponding signed type's maximum.

Basic usage:

Please note that this example is shared between integer types. Which explains why `i8`

is used here.

assert_eq!(100i8.wrapping_neg(), -100); assert_eq!((-128i8).wrapping_neg(), -128);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn wrapping_shl(self, rhs: u32) -> u32
```

[src]1.2.0
Panic-free bitwise shift-left; yields `self << mask(rhs)`

, where `mask`

removes any high-order bits of `rhs`

that would cause the shift to exceed the bitwidth of the type.

Note that this is *not* the same as a rotate-left; the RHS of a wrapping shift-left is restricted to the range of the type, rather than the bits shifted out of the LHS being returned to the other end. The primitive integer types all implement a `rotate_left`

function, which may be what you want instead.

Basic usage:

assert_eq!(1u32.wrapping_shl(7), 128); assert_eq!(1u32.wrapping_shl(128), 1);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn wrapping_shr(self, rhs: u32) -> u32
```

[src]1.2.0
Panic-free bitwise shift-right; yields `self >> mask(rhs)`

, where `mask`

removes any high-order bits of `rhs`

that would cause the shift to exceed the bitwidth of the type.

Note that this is *not* the same as a rotate-right; the RHS of a wrapping shift-right is restricted to the range of the type, rather than the bits shifted out of the LHS being returned to the other end. The primitive integer types all implement a `rotate_right`

function, which may be what you want instead.

Basic usage:

assert_eq!(128u32.wrapping_shr(7), 1); assert_eq!(128u32.wrapping_shr(128), 128);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn wrapping_pow(self, exp: u32) -> u32
```

[src]1.34.0
Wrapping (modular) exponentiation. Computes `self.pow(exp)`

, wrapping around at the boundary of the type.

Basic usage:

assert_eq!(3u32.wrapping_pow(5), 243); assert_eq!(3u8.wrapping_pow(6), 217);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn overflowing_add(self, rhs: u32) -> (u32, bool)
```

[src]1.7.0
Calculates `self`

+ `rhs`

Returns a tuple of the addition along with a boolean indicating whether an arithmetic overflow would occur. If an overflow would have occurred then the wrapped value is returned.

Basic usage

assert_eq!(5u32.overflowing_add(2), (7, false)); assert_eq!(u32::MAX.overflowing_add(1), (0, true));

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn overflowing_sub(self, rhs: u32) -> (u32, bool)
```

[src]1.7.0
Calculates `self`

- `rhs`

Returns a tuple of the subtraction along with a boolean indicating whether an arithmetic overflow would occur. If an overflow would have occurred then the wrapped value is returned.

Basic usage

assert_eq!(5u32.overflowing_sub(2), (3, false)); assert_eq!(0u32.overflowing_sub(1), (u32::MAX, true));

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn overflowing_mul(self, rhs: u32) -> (u32, bool)
```

[src]1.7.0
Calculates the multiplication of `self`

and `rhs`

.

Returns a tuple of the multiplication along with a boolean indicating whether an arithmetic overflow would occur. If an overflow would have occurred then the wrapped value is returned.

Basic usage:

Please note that this example is shared between integer types. Which explains why `u32`

is used here.

assert_eq!(5u32.overflowing_mul(2), (10, false)); assert_eq!(1_000_000_000u32.overflowing_mul(10), (1410065408, true));

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn overflowing_div(self, rhs: u32) -> (u32, bool)
```

[src]1.7.0
Calculates the divisor when `self`

is divided by `rhs`

.

Returns a tuple of the divisor along with a boolean indicating whether an arithmetic overflow would occur. Note that for unsigned integers overflow never occurs, so the second value is always `false`

.

This function will panic if `rhs`

is 0.

Basic usage

assert_eq!(5u32.overflowing_div(2), (2, false));

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn overflowing_div_euclid(self, rhs: u32) -> (u32, bool)
```

[src]1.38.0
Calculates the quotient of Euclidean division `self.div_euclid(rhs)`

.

Returns a tuple of the divisor along with a boolean indicating whether an arithmetic overflow would occur. Note that for unsigned integers overflow never occurs, so the second value is always `false`

. Since, for the positive integers, all common definitions of division are equal, this is exactly equal to `self.overflowing_div(rhs)`

.

This function will panic if `rhs`

is 0.

Basic usage

assert_eq!(5u32.overflowing_div_euclid(2), (2, false));

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn overflowing_rem(self, rhs: u32) -> (u32, bool)
```

[src]1.7.0
Calculates the remainder when `self`

is divided by `rhs`

.

Returns a tuple of the remainder after dividing along with a boolean indicating whether an arithmetic overflow would occur. Note that for unsigned integers overflow never occurs, so the second value is always `false`

.

This function will panic if `rhs`

is 0.

Basic usage

assert_eq!(5u32.overflowing_rem(2), (1, false));

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn overflowing_rem_euclid(self, rhs: u32) -> (u32, bool)
```

[src]1.38.0
Calculates the remainder `self.rem_euclid(rhs)`

as if by Euclidean division.

Returns a tuple of the modulo after dividing along with a boolean indicating whether an arithmetic overflow would occur. Note that for unsigned integers overflow never occurs, so the second value is always `false`

. Since, for the positive integers, all common definitions of division are equal, this operation is exactly equal to `self.overflowing_rem(rhs)`

.

This function will panic if `rhs`

is 0.

Basic usage

assert_eq!(5u32.overflowing_rem_euclid(2), (1, false));

`pub const fn overflowing_neg(self) -> (u32, bool)`

[src]1.7.0
Negates self in an overflowing fashion.

Returns `!self + 1`

using wrapping operations to return the value that represents the negation of this unsigned value. Note that for positive unsigned values overflow always occurs, but negating 0 does not overflow.

Basic usage

assert_eq!(0u32.overflowing_neg(), (0, false)); assert_eq!(2u32.overflowing_neg(), (-2i32 as u32, true));

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn overflowing_shl(self, rhs: u32) -> (u32, bool)
```

[src]1.7.0
Shifts self left by `rhs`

bits.

Returns a tuple of the shifted version of self along with a boolean indicating whether the shift value was larger than or equal to the number of bits. If the shift value is too large, then value is masked (N-1) where N is the number of bits, and this value is then used to perform the shift.

Basic usage

assert_eq!(0x1u32.overflowing_shl(4), (0x10, false)); assert_eq!(0x1u32.overflowing_shl(132), (0x10, true));

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub const fn overflowing_shr(self, rhs: u32) -> (u32, bool)
```

[src]1.7.0
Shifts self right by `rhs`

bits.

Returns a tuple of the shifted version of self along with a boolean indicating whether the shift value was larger than or equal to the number of bits. If the shift value is too large, then value is masked (N-1) where N is the number of bits, and this value is then used to perform the shift.

Basic usage

assert_eq!(0x10u32.overflowing_shr(4), (0x1, false)); assert_eq!(0x10u32.overflowing_shr(132), (0x1, true));

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn overflowing_pow(self, exp: u32) -> (u32, bool)
```

[src]1.34.0
Raises self to the power of `exp`

, using exponentiation by squaring.

Returns a tuple of the exponentiation along with a bool indicating whether an overflow happened.

Basic usage:

assert_eq!(3u32.overflowing_pow(5), (243, false)); assert_eq!(3u8.overflowing_pow(6), (217, true));

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn pow(self, exp: u32) -> u32
```

[src]
Raises self to the power of `exp`

, using exponentiation by squaring.

Basic usage:

assert_eq!(2u32.pow(5), 32);

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn div_euclid(self, rhs: u32) -> u32
```

[src]1.38.0
Performs Euclidean division.

Since, for the positive integers, all common definitions of division are equal, this is exactly equal to `self / rhs`

.

This function will panic if `rhs`

is 0.

Basic usage:

assert_eq!(7u32.div_euclid(4), 1); // or any other integer type

```
#[must_use =
"this returns the result of the operation, \
without modifying the original"]pub fn rem_euclid(self, rhs: u32) -> u32
```

[src]1.38.0
Calculates the least remainder of `self (mod rhs)`

.

Since, for the positive integers, all common definitions of division are equal, this is exactly equal to `self % rhs`

.

This function will panic if `rhs`

is 0.

Basic usage:

assert_eq!(7u32.rem_euclid(4), 3); // or any other integer type

`pub const fn is_power_of_two(self) -> bool`

[src]
Returns `true`

if and only if `self == 2^k`

for some `k`

.

Basic usage:

assert!(16u32.is_power_of_two()); assert!(!10u32.is_power_of_two());

`pub fn next_power_of_two(self) -> u32`

[src]
Returns the smallest power of two greater than or equal to `self`

.

When return value overflows (i.e., `self > (1 << (N-1))`

for type `uN`

), it panics in debug mode and return value is wrapped to 0 in release mode (the only situation in which method can return 0).

Basic usage:

assert_eq!(2u32.next_power_of_two(), 2); assert_eq!(3u32.next_power_of_two(), 4);

`pub fn checked_next_power_of_two(self) -> Option<u32>`

[src]
Returns the smallest power of two greater than or equal to `n`

. If the next power of two is greater than the type's maximum value, `None`

is returned, otherwise the power of two is wrapped in `Some`

.

Basic usage:

assert_eq!(2u32.checked_next_power_of_two(), Some(2)); assert_eq!(3u32.checked_next_power_of_two(), Some(4)); assert_eq!(u32::MAX.checked_next_power_of_two(), None);

`pub fn wrapping_next_power_of_two(self) -> u32`

[src]
ðŸ”¬ This is a nightly-only experimental API. (wrapping_next_power_of_two #32463)needs decision on wrapping behaviour

Returns the smallest power of two greater than or equal to `n`

. If the next power of two is greater than the type's maximum value, the return value is wrapped to `0`

.

Basic usage:

#![feature(wrapping_next_power_of_two)] assert_eq!(2u32.wrapping_next_power_of_two(), 2); assert_eq!(3u32.wrapping_next_power_of_two(), 4); assert_eq!(u32::MAX.wrapping_next_power_of_two(), 0);

`pub const fn to_be_bytes(self) -> [u8; 4]`

[src]1.32.0
Return the memory representation of this integer as a byte array in big-endian (network) byte order.

let bytes = 0x12345678u32.to_be_bytes(); assert_eq!(bytes, [0x12, 0x34, 0x56, 0x78]);

`pub const fn to_le_bytes(self) -> [u8; 4]`

[src]1.32.0
Return the memory representation of this integer as a byte array in little-endian byte order.

let bytes = 0x12345678u32.to_le_bytes(); assert_eq!(bytes, [0x78, 0x56, 0x34, 0x12]);

`pub const fn to_ne_bytes(self) -> [u8; 4]`

[src]1.32.0
Return the memory representation of this integer as a byte array in native byte order.

As the target platform's native endianness is used, portable code should use `to_be_bytes`

or `to_le_bytes`

, as appropriate, instead.

let bytes = 0x12345678u32.to_ne_bytes(); assert_eq!( bytes, if cfg!(target_endian = "big") { [0x12, 0x34, 0x56, 0x78] } else { [0x78, 0x56, 0x34, 0x12] } );

`pub const fn from_be_bytes(bytes: [u8; 4]) -> u32`

[src]1.32.0
Create a native endian integer value from its representation as a byte array in big endian.

let value = u32::from_be_bytes([0x12, 0x34, 0x56, 0x78]); assert_eq!(value, 0x12345678);

When starting from a slice rather than an array, fallible conversion APIs can be used:

use std::convert::TryInto; fn read_be_u32(input: &mut &[u8]) -> u32 { let (int_bytes, rest) = input.split_at(std::mem::size_of::<u32>()); *input = rest; u32::from_be_bytes(int_bytes.try_into().unwrap()) }

`pub const fn from_le_bytes(bytes: [u8; 4]) -> u32`

[src]1.32.0
Create a native endian integer value from its representation as a byte array in little endian.

let value = u32::from_le_bytes([0x78, 0x56, 0x34, 0x12]); assert_eq!(value, 0x12345678);

When starting from a slice rather than an array, fallible conversion APIs can be used:

use std::convert::TryInto; fn read_le_u32(input: &mut &[u8]) -> u32 { let (int_bytes, rest) = input.split_at(std::mem::size_of::<u32>()); *input = rest; u32::from_le_bytes(int_bytes.try_into().unwrap()) }

`pub const fn from_ne_bytes(bytes: [u8; 4]) -> u32`

[src]1.32.0
Create a native endian integer value from its memory representation as a byte array in native endianness.

As the target platform's native endianness is used, portable code likely wants to use `from_be_bytes`

or `from_le_bytes`

, as appropriate instead.

let value = u32::from_ne_bytes(if cfg!(target_endian = "big") { [0x12, 0x34, 0x56, 0x78] } else { [0x78, 0x56, 0x34, 0x12] }); assert_eq!(value, 0x12345678);

When starting from a slice rather than an array, fallible conversion APIs can be used:

use std::convert::TryInto; fn read_ne_u32(input: &mut &[u8]) -> u32 { let (int_bytes, rest) = input.split_at(std::mem::size_of::<u32>()); *input = rest; u32::from_ne_bytes(int_bytes.try_into().unwrap()) }

`pub const fn min_value() -> u32`

[src]
**This method is soft-deprecated.**

Although using it wonâ€™t cause compilation warning, new code should use `u32::MIN`

instead.

Returns the smallest value that can be represented by this integer type.

`pub const fn max_value() -> u32`

[src]
**This method is soft-deprecated.**

Although using it wonâ€™t cause compilation warning, new code should use `u32::MAX`

instead.

Returns the largest value that can be represented by this integer type.

`impl<'_> Add<&'_ u32> for u32`

[src]
`type Output = <u32 as Add<u32>>::Output`

The resulting type after applying the `+`

operator.

`fn add(self, other: &u32) -> <u32 as Add<u32>>::Output`

[src]
`impl<'_, '_> Add<&'_ u32> for &'_ u32`

[src]
`type Output = <u32 as Add<u32>>::Output`

The resulting type after applying the `+`

operator.

`fn add(self, other: &u32) -> <u32 as Add<u32>>::Output`

[src]
`impl<'a> Add<u32> for &'a u32`

[src]
`type Output = <u32 as Add<u32>>::Output`

The resulting type after applying the `+`

operator.

`fn add(self, other: u32) -> <u32 as Add<u32>>::Output`

[src]
`impl Add<u32> for u32`

[src]
`type Output = u32`

The resulting type after applying the `+`

operator.

`fn add(self, other: u32) -> u32`

[src]
`impl<'_> AddAssign<&'_ u32> for u32`

[src]1.22.0
`fn add_assign(&mut self, other: &u32)`

[src]
`impl AddAssign<u32> for u32`

[src]1.8.0
`fn add_assign(&mut self, other: u32)`

[src]
`impl Binary for u32`

[src]
`impl<'_> BitAnd<&'_ u32> for u32`

[src]
`type Output = <u32 as BitAnd<u32>>::Output`

The resulting type after applying the `&`

operator.

`fn bitand(self, other: &u32) -> <u32 as BitAnd<u32>>::Output`

[src]
`impl<'_, '_> BitAnd<&'_ u32> for &'_ u32`

[src]
`type Output = <u32 as BitAnd<u32>>::Output`

The resulting type after applying the `&`

operator.

`fn bitand(self, other: &u32) -> <u32 as BitAnd<u32>>::Output`

[src]
`impl BitAnd<u32> for u32`

[src]
`type Output = u32`

The resulting type after applying the `&`

operator.

`fn bitand(self, rhs: u32) -> u32`

[src]
`impl<'a> BitAnd<u32> for &'a u32`

[src]
`type Output = <u32 as BitAnd<u32>>::Output`

The resulting type after applying the `&`

operator.

`fn bitand(self, other: u32) -> <u32 as BitAnd<u32>>::Output`

[src]
`impl<'_> BitAndAssign<&'_ u32> for u32`

[src]1.22.0
`fn bitand_assign(&mut self, other: &u32)`

[src]
`impl BitAndAssign<u32> for u32`

[src]1.8.0
`fn bitand_assign(&mut self, other: u32)`

[src]
`impl<'_, '_> BitOr<&'_ u32> for &'_ u32`

[src]
`type Output = <u32 as BitOr<u32>>::Output`

The resulting type after applying the `|`

operator.

`fn bitor(self, other: &u32) -> <u32 as BitOr<u32>>::Output`

[src]
`impl<'_> BitOr<&'_ u32> for u32`

[src]
`type Output = <u32 as BitOr<u32>>::Output`

The resulting type after applying the `|`

operator.

`fn bitor(self, other: &u32) -> <u32 as BitOr<u32>>::Output`

[src]
`impl BitOr<NonZeroU32> for u32`

[src]1.45.0
`type Output = NonZeroU32`

The resulting type after applying the `|`

operator.

`fn bitor(self, rhs: NonZeroU32) -> <u32 as BitOr<NonZeroU32>>::Output`

[src]
`impl BitOr<u32> for u32`

[src]
`type Output = u32`

The resulting type after applying the `|`

operator.

`fn bitor(self, rhs: u32) -> u32`

[src]
`impl<'a> BitOr<u32> for &'a u32`

[src]
`type Output = <u32 as BitOr<u32>>::Output`

The resulting type after applying the `|`

operator.

`fn bitor(self, other: u32) -> <u32 as BitOr<u32>>::Output`

[src]
`impl<'_> BitOrAssign<&'_ u32> for u32`

[src]1.22.0
`fn bitor_assign(&mut self, other: &u32)`

[src]
`impl BitOrAssign<u32> for u32`

[src]1.8.0
`fn bitor_assign(&mut self, other: u32)`

[src]
`impl<'_> BitXor<&'_ u32> for u32`

[src]
`type Output = <u32 as BitXor<u32>>::Output`

The resulting type after applying the `^`

operator.

`fn bitxor(self, other: &u32) -> <u32 as BitXor<u32>>::Output`

[src]
`impl<'_, '_> BitXor<&'_ u32> for &'_ u32`

[src]
`type Output = <u32 as BitXor<u32>>::Output`

The resulting type after applying the `^`

operator.

`fn bitxor(self, other: &u32) -> <u32 as BitXor<u32>>::Output`

[src]
`impl BitXor<u32> for u32`

[src]
`type Output = u32`

The resulting type after applying the `^`

operator.

`fn bitxor(self, other: u32) -> u32`

[src]
`impl<'a> BitXor<u32> for &'a u32`

[src]
`type Output = <u32 as BitXor<u32>>::Output`

The resulting type after applying the `^`

operator.

`fn bitxor(self, other: u32) -> <u32 as BitXor<u32>>::Output`

[src]
`impl<'_> BitXorAssign<&'_ u32> for u32`

[src]1.22.0
`fn bitxor_assign(&mut self, other: &u32)`

[src]
`impl BitXorAssign<u32> for u32`

[src]1.8.0
`fn bitxor_assign(&mut self, other: u32)`

[src]
`impl Clone for u32`

[src]
`impl Copy for u32`

[src]
`impl Debug for u32`

[src]
`impl Default for u32`

[src]
`impl Display for u32`

[src]
`impl<'_, '_> Div<&'_ u32> for &'_ u32`

[src]
`type Output = <u32 as Div<u32>>::Output`

The resulting type after applying the `/`

operator.

`fn div(self, other: &u32) -> <u32 as Div<u32>>::Output`

[src]
`impl<'_> Div<&'_ u32> for u32`

[src]
`type Output = <u32 as Div<u32>>::Output`

The resulting type after applying the `/`

operator.

`fn div(self, other: &u32) -> <u32 as Div<u32>>::Output`

[src]
`impl<'a> Div<u32> for &'a u32`

[src]
`type Output = <u32 as Div<u32>>::Output`

The resulting type after applying the `/`

operator.

`fn div(self, other: u32) -> <u32 as Div<u32>>::Output`

[src]
`impl Div<u32> for u32`

[src]
This operation rounds towards zero, truncating any fractional part of the exact result.

`type Output = u32`

The resulting type after applying the `/`

operator.

`fn div(self, other: u32) -> u32`

[src]
`impl<'_> DivAssign<&'_ u32> for u32`

[src]1.22.0
`fn div_assign(&mut self, other: &u32)`

[src]
`impl DivAssign<u32> for u32`

[src]1.8.0
`fn div_assign(&mut self, other: u32)`

[src]
`impl Eq for u32`

[src]
`impl From<Ipv4Addr> for u32`

[src]1.1.0
`fn from(ip: Ipv4Addr) -> u32`

[src]
Converts an `Ipv4Addr`

into a host byte order `u32`

.

use std::net::Ipv4Addr; let addr = Ipv4Addr::new(0xca, 0xfe, 0xba, 0xbe); assert_eq!(0xcafebabe, u32::from(addr));

`impl From<NonZeroU32> for u32`

[src]1.31.0
`fn from(nonzero: NonZeroU32) -> u32`

[src]
Converts a `NonZeroU32`

into an `u32`

`impl From<bool> for u32`

[src]1.28.0
Converts a `bool`

to a `u32`

. The resulting value is `0`

for `false`

and `1`

for `true`

values.

assert_eq!(u32::from(true), 1); assert_eq!(u32::from(false), 0);

`impl From<char> for u32`

[src]1.13.0
`impl From<u16> for u32`

[src]1.5.0
Converts `u16`

to `u32`

losslessly.

`impl From<u8> for u32`

[src]1.5.0
Converts `u8`

to `u32`

losslessly.

`impl FromStr for u32`

[src]
`type Err = ParseIntError`

The associated error which can be returned from parsing.

`fn from_str(src: &str) -> Result<u32, ParseIntError>`

[src]
`impl Hash for u32`

[src]
`fn hash<H>(&self, state: &mut H) where`

Â Â Â Â H: Hasher,Â

[src]
`fn hash_slice<H>(data: &[u32], state: &mut H) where`

Â Â Â Â H: Hasher,Â

[src]
`impl LowerExp for u32`

[src]1.42.0
`impl LowerHex for u32`

[src]
`impl<'_, '_> Mul<&'_ u32> for &'_ u32`

[src]
`type Output = <u32 as Mul<u32>>::Output`

The resulting type after applying the `*`

operator.

`fn mul(self, other: &u32) -> <u32 as Mul<u32>>::Output`

[src]
`impl<'_> Mul<&'_ u32> for u32`

[src]
`type Output = <u32 as Mul<u32>>::Output`

The resulting type after applying the `*`

operator.

`fn mul(self, other: &u32) -> <u32 as Mul<u32>>::Output`

[src]
`impl Mul<Duration> for u32`

[src]1.31.0
`type Output = Duration`

The resulting type after applying the `*`

operator.

`fn mul(self, rhs: Duration) -> Duration`

[src]
`impl Mul<u32> for u32`

[src]
`type Output = u32`

The resulting type after applying the `*`

operator.

`fn mul(self, other: u32) -> u32`

[src]
`impl<'a> Mul<u32> for &'a u32`

[src]
`type Output = <u32 as Mul<u32>>::Output`

The resulting type after applying the `*`

operator.

`fn mul(self, other: u32) -> <u32 as Mul<u32>>::Output`

[src]
`impl<'_> MulAssign<&'_ u32> for u32`

[src]1.22.0
`fn mul_assign(&mut self, other: &u32)`

[src]
`impl MulAssign<u32> for u32`

[src]1.8.0
`fn mul_assign(&mut self, other: u32)`

[src]
`impl<'_> Not for &'_ u32`

[src]
`type Output = <u32 as Not>::Output`

The resulting type after applying the `!`

operator.

`fn not(self) -> <u32 as Not>::Output`

[src]
`impl Not for u32`

[src]
`impl Octal for u32`

[src]
`impl Ord for u32`

[src]
`fn cmp(&self, other: &u32) -> Ordering`

[src]
`fn max(self, other: Self) -> Self`

[src]1.21.0
`fn min(self, other: Self) -> Self`

[src]1.21.0
`fn clamp(self, min: Self, max: Self) -> Self`

[src]
`impl PartialEq<u32> for u32`

[src]
`impl PartialOrd<u32> for u32`

[src]
`fn partial_cmp(&self, other: &u32) -> Option<Ordering>`

[src]
`fn lt(&self, other: &u32) -> bool`

[src]
`fn le(&self, other: &u32) -> bool`

[src]
`fn ge(&self, other: &u32) -> bool`

[src]
`fn gt(&self, other: &u32) -> bool`

[src]
`impl<'a> Product<&'a u32> for u32`

[src]1.12.0
`impl Product<u32> for u32`

[src]1.12.0
`impl<'_, '_> Rem<&'_ u32> for &'_ u32`

[src]
`type Output = <u32 as Rem<u32>>::Output`

The resulting type after applying the `%`

operator.

`fn rem(self, other: &u32) -> <u32 as Rem<u32>>::Output`

[src]
`impl<'_> Rem<&'_ u32> for u32`

[src]
`type Output = <u32 as Rem<u32>>::Output`

The resulting type after applying the `%`

operator.

`fn rem(self, other: &u32) -> <u32 as Rem<u32>>::Output`

[src]
`impl Rem<u32> for u32`

[src]
This operation satisfies `n % d == n - (n / d) * d`

. The result has the same sign as the left operand.

`type Output = u32`

The resulting type after applying the `%`

operator.

`fn rem(self, other: u32) -> u32`

[src]
`impl<'a> Rem<u32> for &'a u32`

[src]
`type Output = <u32 as Rem<u32>>::Output`

The resulting type after applying the `%`

operator.

`fn rem(self, other: u32) -> <u32 as Rem<u32>>::Output`

[src]
`impl<'_> RemAssign<&'_ u32> for u32`

[src]1.22.0
`fn rem_assign(&mut self, other: &u32)`

[src]
`impl RemAssign<u32> for u32`

[src]1.8.0
`fn rem_assign(&mut self, other: u32)`

[src]
`impl<'_, '_> Shl<&'_ i128> for &'_ u32`

[src]
`type Output = <u32 as Shl<i128>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &i128) -> <u32 as Shl<i128>>::Output`

[src]
`impl<'_> Shl<&'_ i128> for u32`

[src]
`type Output = <u32 as Shl<i128>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &i128) -> <u32 as Shl<i128>>::Output`

[src]
`impl<'_, '_> Shl<&'_ i16> for &'_ u32`

[src]
`type Output = <u32 as Shl<i16>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &i16) -> <u32 as Shl<i16>>::Output`

[src]
`impl<'_> Shl<&'_ i16> for u32`

[src]
`type Output = <u32 as Shl<i16>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &i16) -> <u32 as Shl<i16>>::Output`

[src]
`impl<'_, '_> Shl<&'_ i32> for &'_ u32`

[src]
`type Output = <u32 as Shl<i32>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &i32) -> <u32 as Shl<i32>>::Output`

[src]
`impl<'_> Shl<&'_ i32> for u32`

[src]
`type Output = <u32 as Shl<i32>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &i32) -> <u32 as Shl<i32>>::Output`

[src]
`impl<'_> Shl<&'_ i64> for u32`

[src]
`type Output = <u32 as Shl<i64>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &i64) -> <u32 as Shl<i64>>::Output`

[src]
`impl<'_, '_> Shl<&'_ i64> for &'_ u32`

[src]
`type Output = <u32 as Shl<i64>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &i64) -> <u32 as Shl<i64>>::Output`

[src]
`impl<'_, '_> Shl<&'_ i8> for &'_ u32`

[src]
`type Output = <u32 as Shl<i8>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &i8) -> <u32 as Shl<i8>>::Output`

[src]
`impl<'_> Shl<&'_ i8> for u32`

[src]
`type Output = <u32 as Shl<i8>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &i8) -> <u32 as Shl<i8>>::Output`

[src]
`impl<'_> Shl<&'_ isize> for u32`

[src]
`type Output = <u32 as Shl<isize>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &isize) -> <u32 as Shl<isize>>::Output`

[src]
`impl<'_, '_> Shl<&'_ isize> for &'_ u32`

[src]
`type Output = <u32 as Shl<isize>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &isize) -> <u32 as Shl<isize>>::Output`

[src]
`impl<'_> Shl<&'_ u128> for u32`

[src]
`type Output = <u32 as Shl<u128>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &u128) -> <u32 as Shl<u128>>::Output`

[src]
`impl<'_, '_> Shl<&'_ u128> for &'_ u32`

[src]
`type Output = <u32 as Shl<u128>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &u128) -> <u32 as Shl<u128>>::Output`

[src]
`impl<'_, '_> Shl<&'_ u16> for &'_ u32`

[src]
`type Output = <u32 as Shl<u16>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &u16) -> <u32 as Shl<u16>>::Output`

[src]
`impl<'_> Shl<&'_ u16> for u32`

[src]
`type Output = <u32 as Shl<u16>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &u16) -> <u32 as Shl<u16>>::Output`

[src]
`impl<'_> Shl<&'_ u32> for u32`

[src]
`type Output = <u32 as Shl<u32>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &u32) -> <u32 as Shl<u32>>::Output`

[src]
`impl<'_, '_> Shl<&'_ u32> for &'_ u32`

[src]
`type Output = <u32 as Shl<u32>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &u32) -> <u32 as Shl<u32>>::Output`

[src]
`impl<'_> Shl<&'_ u64> for u32`

[src]
`type Output = <u32 as Shl<u64>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &u64) -> <u32 as Shl<u64>>::Output`

[src]
`impl<'_, '_> Shl<&'_ u64> for &'_ u32`

[src]
`type Output = <u32 as Shl<u64>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &u64) -> <u32 as Shl<u64>>::Output`

[src]
`impl<'_, '_> Shl<&'_ u8> for &'_ u32`

[src]
`type Output = <u32 as Shl<u8>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &u8) -> <u32 as Shl<u8>>::Output`

[src]
`impl<'_> Shl<&'_ u8> for u32`

[src]
`type Output = <u32 as Shl<u8>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &u8) -> <u32 as Shl<u8>>::Output`

[src]
`impl<'_> Shl<&'_ usize> for u32`

[src]
`type Output = <u32 as Shl<usize>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &usize) -> <u32 as Shl<usize>>::Output`

[src]
`impl<'_, '_> Shl<&'_ usize> for &'_ u32`

[src]
`type Output = <u32 as Shl<usize>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: &usize) -> <u32 as Shl<usize>>::Output`

[src]
`impl Shl<i128> for u32`

[src]
`type Output = u32`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: i128) -> u32`

[src]
`impl<'a> Shl<i128> for &'a u32`

[src]
`type Output = <u32 as Shl<i128>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: i128) -> <u32 as Shl<i128>>::Output`

[src]
`impl<'a> Shl<i16> for &'a u32`

[src]
`type Output = <u32 as Shl<i16>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: i16) -> <u32 as Shl<i16>>::Output`

[src]
`impl Shl<i16> for u32`

[src]
`type Output = u32`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: i16) -> u32`

[src]
`impl<'a> Shl<i32> for &'a u32`

[src]
`type Output = <u32 as Shl<i32>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: i32) -> <u32 as Shl<i32>>::Output`

[src]
`impl Shl<i32> for u32`

[src]
`type Output = u32`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: i32) -> u32`

[src]
`impl<'a> Shl<i64> for &'a u32`

[src]
`type Output = <u32 as Shl<i64>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: i64) -> <u32 as Shl<i64>>::Output`

[src]
`impl Shl<i64> for u32`

[src]
`type Output = u32`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: i64) -> u32`

[src]
`impl<'a> Shl<i8> for &'a u32`

[src]
`type Output = <u32 as Shl<i8>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: i8) -> <u32 as Shl<i8>>::Output`

[src]
`impl Shl<i8> for u32`

[src]
`type Output = u32`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: i8) -> u32`

[src]
`impl Shl<isize> for u32`

[src]
`type Output = u32`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: isize) -> u32`

[src]
`impl<'a> Shl<isize> for &'a u32`

[src]
`type Output = <u32 as Shl<isize>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: isize) -> <u32 as Shl<isize>>::Output`

[src]
`impl<'a> Shl<u128> for &'a u32`

[src]
`type Output = <u32 as Shl<u128>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: u128) -> <u32 as Shl<u128>>::Output`

[src]
`impl Shl<u128> for u32`

[src]
`type Output = u32`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: u128) -> u32`

[src]
`impl<'a> Shl<u16> for &'a u32`

[src]
`type Output = <u32 as Shl<u16>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: u16) -> <u32 as Shl<u16>>::Output`

[src]
`impl Shl<u16> for u32`

[src]
`type Output = u32`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: u16) -> u32`

[src]
`impl<'a> Shl<u32> for &'a u32`

[src]
`type Output = <u32 as Shl<u32>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: u32) -> <u32 as Shl<u32>>::Output`

[src]
`impl Shl<u32> for u32`

[src]
`type Output = u32`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: u32) -> u32`

[src]
`impl Shl<u64> for u32`

[src]
`type Output = u32`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: u64) -> u32`

[src]
`impl<'a> Shl<u64> for &'a u32`

[src]
`type Output = <u32 as Shl<u64>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: u64) -> <u32 as Shl<u64>>::Output`

[src]
`impl Shl<u8> for u32`

[src]
`type Output = u32`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: u8) -> u32`

[src]
`impl<'a> Shl<u8> for &'a u32`

[src]
`type Output = <u32 as Shl<u8>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: u8) -> <u32 as Shl<u8>>::Output`

[src]
`impl<'a> Shl<usize> for &'a u32`

[src]
`type Output = <u32 as Shl<usize>>::Output`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: usize) -> <u32 as Shl<usize>>::Output`

[src]
`impl Shl<usize> for u32`

[src]
`type Output = u32`

The resulting type after applying the `<<`

operator.

`fn shl(self, other: usize) -> u32`

[src]
`impl<'_> ShlAssign<&'_ i128> for u32`

[src]1.22.0
`fn shl_assign(&mut self, other: &i128)`

[src]
`impl<'_> ShlAssign<&'_ i16> for u32`

[src]1.22.0
`fn shl_assign(&mut self, other: &i16)`

[src]
`impl<'_> ShlAssign<&'_ i32> for u32`

[src]1.22.0
`fn shl_assign(&mut self, other: &i32)`

[src]
`impl<'_> ShlAssign<&'_ i64> for u32`

[src]1.22.0
`fn shl_assign(&mut self, other: &i64)`

[src]
`impl<'_> ShlAssign<&'_ i8> for u32`

[src]1.22.0
`fn shl_assign(&mut self, other: &i8)`

[src]
`impl<'_> ShlAssign<&'_ isize> for u32`

[src]1.22.0
`fn shl_assign(&mut self, other: &isize)`

[src]
`impl<'_> ShlAssign<&'_ u128> for u32`

[src]1.22.0
`fn shl_assign(&mut self, other: &u128)`

[src]
`impl<'_> ShlAssign<&'_ u16> for u32`

[src]1.22.0
`fn shl_assign(&mut self, other: &u16)`

[src]
`impl<'_> ShlAssign<&'_ u32> for u32`

[src]1.22.0
`fn shl_assign(&mut self, other: &u32)`

[src]
`impl<'_> ShlAssign<&'_ u64> for u32`

[src]1.22.0
`fn shl_assign(&mut self, other: &u64)`

[src]
`impl<'_> ShlAssign<&'_ u8> for u32`

[src]1.22.0
`fn shl_assign(&mut self, other: &u8)`

[src]
`impl<'_> ShlAssign<&'_ usize> for u32`

[src]1.22.0
`fn shl_assign(&mut self, other: &usize)`

[src]
`impl ShlAssign<i128> for u32`

[src]1.8.0
`fn shl_assign(&mut self, other: i128)`

[src]
`impl ShlAssign<i16> for u32`

[src]1.8.0
`fn shl_assign(&mut self, other: i16)`

[src]
`impl ShlAssign<i32> for u32`

[src]1.8.0
`fn shl_assign(&mut self, other: i32)`

[src]
`impl ShlAssign<i64> for u32`

[src]1.8.0
`fn shl_assign(&mut self, other: i64)`

[src]
`impl ShlAssign<i8> for u32`

[src]1.8.0
`fn shl_assign(&mut self, other: i8)`

[src]
`impl ShlAssign<isize> for u32`

[src]1.8.0
`fn shl_assign(&mut self, other: isize)`

[src]
`impl ShlAssign<u128> for u32`

[src]1.8.0
`fn shl_assign(&mut self, other: u128)`

[src]
`impl ShlAssign<u16> for u32`

[src]1.8.0
`fn shl_assign(&mut self, other: u16)`

[src]
`impl ShlAssign<u32> for u32`

[src]1.8.0
`fn shl_assign(&mut self, other: u32)`

[src]
`impl ShlAssign<u64> for u32`

[src]1.8.0
`fn shl_assign(&mut self, other: u64)`

[src]
`impl ShlAssign<u8> for u32`

[src]1.8.0
`fn shl_assign(&mut self, other: u8)`

[src]
`impl ShlAssign<usize> for u32`

[src]1.8.0
`fn shl_assign(&mut self, other: usize)`

[src]
`impl<'_, '_> Shr<&'_ i128> for &'_ u32`

[src]
`type Output = <u32 as Shr<i128>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &i128) -> <u32 as Shr<i128>>::Output`

[src]
`impl<'_> Shr<&'_ i128> for u32`

[src]
`type Output = <u32 as Shr<i128>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &i128) -> <u32 as Shr<i128>>::Output`

[src]
`impl<'_, '_> Shr<&'_ i16> for &'_ u32`

[src]
`type Output = <u32 as Shr<i16>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &i16) -> <u32 as Shr<i16>>::Output`

[src]
`impl<'_> Shr<&'_ i16> for u32`

[src]
`type Output = <u32 as Shr<i16>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &i16) -> <u32 as Shr<i16>>::Output`

[src]
`impl<'_, '_> Shr<&'_ i32> for &'_ u32`

[src]
`type Output = <u32 as Shr<i32>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &i32) -> <u32 as Shr<i32>>::Output`

[src]
`impl<'_> Shr<&'_ i32> for u32`

[src]
`type Output = <u32 as Shr<i32>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &i32) -> <u32 as Shr<i32>>::Output`

[src]
`impl<'_, '_> Shr<&'_ i64> for &'_ u32`

[src]
`type Output = <u32 as Shr<i64>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &i64) -> <u32 as Shr<i64>>::Output`

[src]
`impl<'_> Shr<&'_ i64> for u32`

[src]
`type Output = <u32 as Shr<i64>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &i64) -> <u32 as Shr<i64>>::Output`

[src]
`impl<'_, '_> Shr<&'_ i8> for &'_ u32`

[src]
`type Output = <u32 as Shr<i8>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &i8) -> <u32 as Shr<i8>>::Output`

[src]
`impl<'_> Shr<&'_ i8> for u32`

[src]
`type Output = <u32 as Shr<i8>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &i8) -> <u32 as Shr<i8>>::Output`

[src]
`impl<'_, '_> Shr<&'_ isize> for &'_ u32`

[src]
`type Output = <u32 as Shr<isize>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &isize) -> <u32 as Shr<isize>>::Output`

[src]
`impl<'_> Shr<&'_ isize> for u32`

[src]
`type Output = <u32 as Shr<isize>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &isize) -> <u32 as Shr<isize>>::Output`

[src]
`impl<'_, '_> Shr<&'_ u128> for &'_ u32`

[src]
`type Output = <u32 as Shr<u128>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &u128) -> <u32 as Shr<u128>>::Output`

[src]
`impl<'_> Shr<&'_ u128> for u32`

[src]
`type Output = <u32 as Shr<u128>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &u128) -> <u32 as Shr<u128>>::Output`

[src]
`impl<'_, '_> Shr<&'_ u16> for &'_ u32`

[src]
`type Output = <u32 as Shr<u16>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &u16) -> <u32 as Shr<u16>>::Output`

[src]
`impl<'_> Shr<&'_ u16> for u32`

[src]
`type Output = <u32 as Shr<u16>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &u16) -> <u32 as Shr<u16>>::Output`

[src]
`impl<'_> Shr<&'_ u32> for u32`

[src]
`type Output = <u32 as Shr<u32>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &u32) -> <u32 as Shr<u32>>::Output`

[src]
`impl<'_, '_> Shr<&'_ u32> for &'_ u32`

[src]
`type Output = <u32 as Shr<u32>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &u32) -> <u32 as Shr<u32>>::Output`

[src]
`impl<'_> Shr<&'_ u64> for u32`

[src]
`type Output = <u32 as Shr<u64>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &u64) -> <u32 as Shr<u64>>::Output`

[src]
`impl<'_, '_> Shr<&'_ u64> for &'_ u32`

[src]
`type Output = <u32 as Shr<u64>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &u64) -> <u32 as Shr<u64>>::Output`

[src]
`impl<'_> Shr<&'_ u8> for u32`

[src]
`type Output = <u32 as Shr<u8>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &u8) -> <u32 as Shr<u8>>::Output`

[src]
`impl<'_, '_> Shr<&'_ u8> for &'_ u32`

[src]
`type Output = <u32 as Shr<u8>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &u8) -> <u32 as Shr<u8>>::Output`

[src]
`impl<'_> Shr<&'_ usize> for u32`

[src]
`type Output = <u32 as Shr<usize>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &usize) -> <u32 as Shr<usize>>::Output`

[src]
`impl<'_, '_> Shr<&'_ usize> for &'_ u32`

[src]
`type Output = <u32 as Shr<usize>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: &usize) -> <u32 as Shr<usize>>::Output`

[src]
`impl Shr<i128> for u32`

[src]
`type Output = u32`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: i128) -> u32`

[src]
`impl<'a> Shr<i128> for &'a u32`

[src]
`type Output = <u32 as Shr<i128>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: i128) -> <u32 as Shr<i128>>::Output`

[src]
`impl<'a> Shr<i16> for &'a u32`

[src]
`type Output = <u32 as Shr<i16>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: i16) -> <u32 as Shr<i16>>::Output`

[src]
`impl Shr<i16> for u32`

[src]
`type Output = u32`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: i16) -> u32`

[src]
`impl Shr<i32> for u32`

[src]
`type Output = u32`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: i32) -> u32`

[src]
`impl<'a> Shr<i32> for &'a u32`

[src]
`type Output = <u32 as Shr<i32>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: i32) -> <u32 as Shr<i32>>::Output`

[src]
`impl Shr<i64> for u32`

[src]
`type Output = u32`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: i64) -> u32`

[src]
`impl<'a> Shr<i64> for &'a u32`

[src]
`type Output = <u32 as Shr<i64>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: i64) -> <u32 as Shr<i64>>::Output`

[src]
`impl<'a> Shr<i8> for &'a u32`

[src]
`type Output = <u32 as Shr<i8>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: i8) -> <u32 as Shr<i8>>::Output`

[src]
`impl Shr<i8> for u32`

[src]
`type Output = u32`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: i8) -> u32`

[src]
`impl Shr<isize> for u32`

[src]
`type Output = u32`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: isize) -> u32`

[src]
`impl<'a> Shr<isize> for &'a u32`

[src]
`type Output = <u32 as Shr<isize>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: isize) -> <u32 as Shr<isize>>::Output`

[src]
`impl<'a> Shr<u128> for &'a u32`

[src]
`type Output = <u32 as Shr<u128>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: u128) -> <u32 as Shr<u128>>::Output`

[src]
`impl Shr<u128> for u32`

[src]
`type Output = u32`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: u128) -> u32`

[src]
`impl<'a> Shr<u16> for &'a u32`

[src]
`type Output = <u32 as Shr<u16>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: u16) -> <u32 as Shr<u16>>::Output`

[src]
`impl Shr<u16> for u32`

[src]
`type Output = u32`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: u16) -> u32`

[src]
`impl Shr<u32> for u32`

[src]
`type Output = u32`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: u32) -> u32`

[src]
`impl<'a> Shr<u32> for &'a u32`

[src]
`type Output = <u32 as Shr<u32>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: u32) -> <u32 as Shr<u32>>::Output`

[src]
`impl<'a> Shr<u64> for &'a u32`

[src]
`type Output = <u32 as Shr<u64>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: u64) -> <u32 as Shr<u64>>::Output`

[src]
`impl Shr<u64> for u32`

[src]
`type Output = u32`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: u64) -> u32`

[src]
`impl Shr<u8> for u32`

[src]
`type Output = u32`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: u8) -> u32`

[src]
`impl<'a> Shr<u8> for &'a u32`

[src]
`type Output = <u32 as Shr<u8>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: u8) -> <u32 as Shr<u8>>::Output`

[src]
`impl Shr<usize> for u32`

[src]
`type Output = u32`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: usize) -> u32`

[src]
`impl<'a> Shr<usize> for &'a u32`

[src]
`type Output = <u32 as Shr<usize>>::Output`

The resulting type after applying the `>>`

operator.

`fn shr(self, other: usize) -> <u32 as Shr<usize>>::Output`

[src]
`impl<'_> ShrAssign<&'_ i128> for u32`

[src]1.22.0
`fn shr_assign(&mut self, other: &i128)`

[src]
`impl<'_> ShrAssign<&'_ i16> for u32`

[src]1.22.0
`fn shr_assign(&mut self, other: &i16)`

[src]
`impl<'_> ShrAssign<&'_ i32> for u32`

[src]1.22.0
`fn shr_assign(&mut self, other: &i32)`

[src]
`impl<'_> ShrAssign<&'_ i64> for u32`

[src]1.22.0
`fn shr_assign(&mut self, other: &i64)`

[src]
`impl<'_> ShrAssign<&'_ i8> for u32`

[src]1.22.0
`fn shr_assign(&mut self, other: &i8)`

[src]
`impl<'_> ShrAssign<&'_ isize> for u32`

[src]1.22.0
`fn shr_assign(&mut self, other: &isize)`

[src]
`impl<'_> ShrAssign<&'_ u128> for u32`

[src]1.22.0
`fn shr_assign(&mut self, other: &u128)`

[src]
`impl<'_> ShrAssign<&'_ u16> for u32`

[src]1.22.0
`fn shr_assign(&mut self, other: &u16)`

[src]
`impl<'_> ShrAssign<&'_ u32> for u32`

[src]1.22.0
`fn shr_assign(&mut self, other: &u32)`

[src]
`impl<'_> ShrAssign<&'_ u64> for u32`

[src]1.22.0
`fn shr_assign(&mut self, other: &u64)`

[src]
`impl<'_> ShrAssign<&'_ u8> for u32`

[src]1.22.0
`fn shr_assign(&mut self, other: &u8)`

[src]
`impl<'_> ShrAssign<&'_ usize> for u32`

[src]1.22.0
`fn shr_assign(&mut self, other: &usize)`

[src]
`impl ShrAssign<i128> for u32`

[src]1.8.0
`fn shr_assign(&mut self, other: i128)`

[src]
`impl ShrAssign<i16> for u32`

[src]1.8.0
`fn shr_assign(&mut self, other: i16)`

[src]
`impl ShrAssign<i32> for u32`

[src]1.8.0
`fn shr_assign(&mut self, other: i32)`

[src]
`impl ShrAssign<i64> for u32`

[src]1.8.0
`fn shr_assign(&mut self, other: i64)`

[src]
`impl ShrAssign<i8> for u32`

[src]1.8.0
`fn shr_assign(&mut self, other: i8)`

[src]
`impl ShrAssign<isize> for u32`

[src]1.8.0
`fn shr_assign(&mut self, other: isize)`

[src]
`impl ShrAssign<u128> for u32`

[src]1.8.0
`fn shr_assign(&mut self, other: u128)`

[src]
`impl ShrAssign<u16> for u32`

[src]1.8.0
`fn shr_assign(&mut self, other: u16)`

[src]
`impl ShrAssign<u32> for u32`

[src]1.8.0
`fn shr_assign(&mut self, other: u32)`

[src]
`impl ShrAssign<u64> for u32`

[src]1.8.0
`fn shr_assign(&mut self, other: u64)`

[src]
`impl ShrAssign<u8> for u32`

[src]1.8.0
`fn shr_assign(&mut self, other: u8)`

[src]
`impl ShrAssign<usize> for u32`

[src]1.8.0
`fn shr_assign(&mut self, other: usize)`

[src]
`impl Step for u32`

[src]
`unsafe fn forward_unchecked(start: u32, n: usize) -> u32`

[src]
`unsafe fn backward_unchecked(start: u32, n: usize) -> u32`

[src]
`fn forward(start: u32, n: usize) -> u32`

[src]
`fn backward(start: u32, n: usize) -> u32`

[src]
`fn steps_between(start: &u32, end: &u32) -> Option<usize>`

[src]
`fn forward_checked(start: u32, n: usize) -> Option<u32>`

[src]
`fn backward_checked(start: u32, n: usize) -> Option<u32>`

[src]
`impl<'_> Sub<&'_ u32> for u32`

[src]
`type Output = <u32 as Sub<u32>>::Output`

The resulting type after applying the `-`

operator.

`fn sub(self, other: &u32) -> <u32 as Sub<u32>>::Output`

[src]
`impl<'_, '_> Sub<&'_ u32> for &'_ u32`

[src]
`type Output = <u32 as Sub<u32>>::Output`

The resulting type after applying the `-`

operator.

`fn sub(self, other: &u32) -> <u32 as Sub<u32>>::Output`

[src]
`impl<'a> Sub<u32> for &'a u32`

[src]
`type Output = <u32 as Sub<u32>>::Output`

The resulting type after applying the `-`

operator.

`fn sub(self, other: u32) -> <u32 as Sub<u32>>::Output`

[src]
`impl Sub<u32> for u32`

[src]
`type Output = u32`

The resulting type after applying the `-`

operator.

`fn sub(self, other: u32) -> u32`

[src]
`impl<'_> SubAssign<&'_ u32> for u32`

[src]1.22.0
`fn sub_assign(&mut self, other: &u32)`

[src]
`impl SubAssign<u32> for u32`

[src]1.8.0
`fn sub_assign(&mut self, other: u32)`

[src]
`impl<'a> Sum<&'a u32> for u32`

[src]1.12.0
`impl Sum<u32> for u32`

[src]1.12.0
`impl TryFrom<i128> for u32`

[src]1.34.0
`type Error = TryFromIntError`

The type returned in the event of a conversion error.

`fn try_from(u: i128) -> Result<u32, <u32 as TryFrom<i128>>::Error>`

[src]
Try to create the target number type from a source number type. This returns an error if the source value is outside of the range of the target type.

`impl TryFrom<i16> for u32`

[src]1.34.0
`type Error = TryFromIntError`

The type returned in the event of a conversion error.

`fn try_from(u: i16) -> Result<u32, <u32 as TryFrom<i16>>::Error>`

[src]
`impl TryFrom<i32> for u32`

[src]1.34.0
`type Error = TryFromIntError`

The type returned in the event of a conversion error.

`fn try_from(u: i32) -> Result<u32, <u32 as TryFrom<i32>>::Error>`

[src]
`impl TryFrom<i64> for u32`

[src]1.34.0
`type Error = TryFromIntError`

The type returned in the event of a conversion error.

`fn try_from(u: i64) -> Result<u32, <u32 as TryFrom<i64>>::Error>`

[src]
`impl TryFrom<i8> for u32`

[src]1.34.0
`type Error = TryFromIntError`

The type returned in the event of a conversion error.

`fn try_from(u: i8) -> Result<u32, <u32 as TryFrom<i8>>::Error>`

[src]
`impl TryFrom<isize> for u32`

[src]1.34.0
`type Error = TryFromIntError`

The type returned in the event of a conversion error.

`fn try_from(u: isize) -> Result<u32, <u32 as TryFrom<isize>>::Error>`

[src]
`impl TryFrom<u128> for u32`

[src]1.34.0
`type Error = TryFromIntError`

The type returned in the event of a conversion error.

`fn try_from(u: u128) -> Result<u32, <u32 as TryFrom<u128>>::Error>`

[src]
`impl TryFrom<u64> for u32`

[src]1.34.0
`type Error = TryFromIntError`

The type returned in the event of a conversion error.

`fn try_from(u: u64) -> Result<u32, <u32 as TryFrom<u64>>::Error>`

[src]
`impl TryFrom<usize> for u32`

[src]1.34.0
`type Error = TryFromIntError`

The type returned in the event of a conversion error.

`fn try_from(u: usize) -> Result<u32, <u32 as TryFrom<usize>>::Error>`

[src]
`impl UpperExp for u32`

[src]1.42.0
`impl UpperHex for u32`

[src]
`impl RefUnwindSafe for u32`

`impl Send for u32`

`impl Sync for u32`

`impl Unpin for u32`

`impl UnwindSafe for u32`

`impl<T> Any for T where`

Â Â Â Â T: 'static + ?Sized,Â

[src]
`impl<T> Borrow<T> for T where`

Â Â Â Â T: ?Sized,Â

[src]
`fn borrow(&self) -> &Tâ“˜`### Notable traits for &'_ mut F

impl<'_, F> Future for &'_ mut F where
Â Â Â Â F: Unpin + Future + ?Sized,Â
type Output = <F as Future>::Output;
impl<'_, I> Iterator for &'_ mut I where
Â Â Â Â I: Iterator + ?Sized,Â
type Item = <I as Iterator>::Item;
impl<R:Â Read + ?Sized, '_> Read for &'_ mut R
impl<W:Â Write + ?Sized, '_> Write for &'_ mut W

[src]
`impl<T> BorrowMut<T> for T where`

Â Â Â Â T: ?Sized,Â

[src]
`fn borrow_mut(&mut self) -> &mut Tâ“˜`### Notable traits for &'_ mut F

impl<'_, F> Future for &'_ mut F where
Â Â Â Â F: Unpin + Future + ?Sized,Â
type Output = <F as Future>::Output;
impl<'_, I> Iterator for &'_ mut I where
Â Â Â Â I: Iterator + ?Sized,Â
type Item = <I as Iterator>::Item;
impl<R:Â Read + ?Sized, '_> Read for &'_ mut R
impl<W:Â Write + ?Sized, '_> Write for &'_ mut W

[src]
`impl<T> From<T> for T`

[src]
`impl<T, U> Into<U> for T where`

Â Â Â Â U: From<T>,Â

[src]
`impl<T> ToOwned for T where`

Â Â Â Â T: Clone,Â

[src]
`type Owned = T`

The resulting type after obtaining ownership.

`fn to_owned(&self) -> T`

[src]
`fn clone_into(&self, target: &mut T)`

[src]
`impl<T> ToString for T where`

Â Â Â Â T: Display + ?Sized,Â

[src]
`impl<T, U> TryFrom<U> for T where`

Â Â Â Â U: Into<T>,Â

[src]
`type Error = Infallible`

The type returned in the event of a conversion error.

`fn try_from(value: U) -> Result<T, <T as TryFrom<U>>::Error>`

[src]
`impl<T, U> TryInto<U> for T where`

Â Â Â Â U: TryFrom<T>,Â

[src]
Â© 2010 The Rust Project Developers

Licensed under the Apache License, Version 2.0 or the MIT license, at your option.

https://doc.rust-lang.org/std/primitive.u32.html