Struct pixels_graphics_lib::math::Point

pub struct Point {
    pub x: isize,
    pub y: isize,
}

Fields

x: isize

y: isize

Implementations

impl Point

pub const fn new(x: isize, y: isize) -> Self

pub const fn zero() -> Self

impl Point

pub const fn is_positive(&self) -> bool

Trait Implementations

impl Add<(i16, i16)> for Point

fn add(&self, value: (i16, i16)) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<(i32, i32)> for Point

fn add(&self, value: (i32, i32)) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<(i64, i64)> for Point

fn add(&self, value: (i64, i64)) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<(i8, i8)> for Point

fn add(&self, value: (i8, i8)) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<(isize, isize)> for Point

fn add(&self, value: (isize, isize)) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<(u16, u16)> for Point

fn add(&self, value: (u16, u16)) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<(u32, u32)> for Point

fn add(&self, value: (u32, u32)) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<(u64, u64)> for Point

fn add(&self, value: (u64, u64)) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<(u8, u8)> for Point

fn add(&self, value: (u8, u8)) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<(usize, usize)> for Point

fn add(&self, value: (usize, usize)) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<Point> for Point

fn add(&self, value: Point) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<UPoint> for Point

fn add(&self, value: UPoint) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<i16> for Point

fn add(&self, value: i16) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<i32> for Point

fn add(&self, value: i32) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<i64> for Point

fn add(&self, value: i64) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<i8> for Point

fn add(&self, value: i8) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<isize> for Point

fn add(&self, value: isize) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<u16> for Point

fn add(&self, value: u16) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<u32> for Point

fn add(&self, value: u32) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<u64> for Point

fn add(&self, value: u64) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<u8> for Point

fn add(&self, value: u8) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl Add<usize> for Point

fn add(&self, value: usize) -> Self

Return self.x + value and self.y + value If value is primitive then both self.x and self.y will be added using the same value otherwise self.x will only added by min.x and max.x and the same for y

impl ClampXy<(i16, i16)> for Point

fn clamp_xy(&self, min: (i16, i16), max: (i16, i16)) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<(i32, i32)> for Point

fn clamp_xy(&self, min: (i32, i32), max: (i32, i32)) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<(i64, i64)> for Point

fn clamp_xy(&self, min: (i64, i64), max: (i64, i64)) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<(i8, i8)> for Point

fn clamp_xy(&self, min: (i8, i8), max: (i8, i8)) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<(isize, isize)> for Point

fn clamp_xy(&self, min: (isize, isize), max: (isize, isize)) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<(u16, u16)> for Point

fn clamp_xy(&self, min: (u16, u16), max: (u16, u16)) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<(u32, u32)> for Point

fn clamp_xy(&self, min: (u32, u32), max: (u32, u32)) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<(u64, u64)> for Point

fn clamp_xy(&self, min: (u64, u64), max: (u64, u64)) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<(u8, u8)> for Point

fn clamp_xy(&self, min: (u8, u8), max: (u8, u8)) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<(usize, usize)> for Point

fn clamp_xy(&self, min: (usize, usize), max: (usize, usize)) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<Point> for Point

fn clamp_xy(&self, min: Point, max: Point) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<UPoint> for Point

fn clamp_xy(&self, min: UPoint, max: UPoint) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<i16> for Point

fn clamp_xy(&self, min: i16, max: i16) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<i32> for Point

fn clamp_xy(&self, min: i32, max: i32) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<i64> for Point

fn clamp_xy(&self, min: i64, max: i64) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<i8> for Point

fn clamp_xy(&self, min: i8, max: i8) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<isize> for Point

fn clamp_xy(&self, min: isize, max: isize) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<u16> for Point

fn clamp_xy(&self, min: u16, max: u16) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<u32> for Point

fn clamp_xy(&self, min: u32, max: u32) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<u64> for Point

fn clamp_xy(&self, min: u64, max: u64) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<u8> for Point

fn clamp_xy(&self, min: u8, max: u8) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl ClampXy<usize> for Point

fn clamp_xy(&self, min: usize, max: usize) -> Self

Return self.x and self.y clamped between min and max (both inclusive) min and max can be primitives (such as usize) or structs with x and y fields (such as Point) If they are primitive then both self.x and self.y will be clamped using the same value otherwise self.x will only clamped by min.x and max.x and the same for y

impl Clone for Point

fn clone(&self) -> Point

Returns a copy of the value.

fn clone_from(&mut self, source: &Self)

Performs copy-assignment from source.

impl Debug for Point

fn fmt(&self, f: &mut Formatter<'_>) -> Result

Formats the value using the given formatter.

impl Default for Point

fn default() -> Point

Returns the “default value” for a type.

impl<'de> Deserialize<'de> for Point

fn deserialize<__D>(__deserializer: __D) -> Result<Self, __D::Error> where
    __D: Deserializer<'de>, 

Deserialize this value from the given Serde deserializer.

impl From<(i16, i16)> for Point

fn from(value: (i16, i16)) -> Self

Performs the conversion.

impl From<(i32, i32)> for Point

fn from(value: (i32, i32)) -> Self

Performs the conversion.

impl From<(i64, i64)> for Point

fn from(value: (i64, i64)) -> Self

Performs the conversion.

impl From<(i8, i8)> for Point

fn from(value: (i8, i8)) -> Self

Performs the conversion.

impl From<(isize, isize)> for Point

fn from(value: (isize, isize)) -> Self

Performs the conversion.

impl From<(u16, u16)> for Point

fn from(value: (u16, u16)) -> Self

Performs the conversion.

impl From<(u32, u32)> for Point

fn from(value: (u32, u32)) -> Self

Performs the conversion.

impl From<(u64, u64)> for Point

fn from(value: (u64, u64)) -> Self

Performs the conversion.

impl From<(u8, u8)> for Point

fn from(value: (u8, u8)) -> Self

Performs the conversion.

impl From<(usize, usize)> for Point

fn from(value: (usize, usize)) -> Self

Performs the conversion.

impl From<Point> for (u8, u8)

fn from(value: Point) -> Self

Performs the conversion.

impl From<Point> for (u16, u16)

fn from(value: Point) -> Self

Performs the conversion.

impl From<Point> for (u32, u32)

fn from(value: Point) -> Self

Performs the conversion.

impl From<Point> for (u64, u64)

fn from(value: Point) -> Self

Performs the conversion.

impl From<Point> for (usize, usize)

fn from(value: Point) -> Self

Performs the conversion.

impl From<Point> for (i8, i8)

fn from(value: Point) -> Self

Performs the conversion.

impl From<Point> for (i16, i16)

fn from(value: Point) -> Self

Performs the conversion.

impl From<Point> for (i32, i32)

fn from(value: Point) -> Self

Performs the conversion.

impl From<Point> for (i64, i64)

fn from(value: Point) -> Self

Performs the conversion.

impl From<Point> for (isize, isize)

fn from(value: Point) -> Self

Performs the conversion.

impl From<UPoint> for Point

fn from(point: UPoint) -> Self

Performs the conversion.

impl Lerp for Point

fn lerp(self, end: Point, percent: f32) -> Point

impl MaxXy<(i16, i16)> for Point

fn max_xy(&self, value: (i16, i16)) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<(i32, i32)> for Point

fn max_xy(&self, value: (i32, i32)) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<(i64, i64)> for Point

fn max_xy(&self, value: (i64, i64)) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<(i8, i8)> for Point

fn max_xy(&self, value: (i8, i8)) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<(isize, isize)> for Point

fn max_xy(&self, value: (isize, isize)) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<(u16, u16)> for Point

fn max_xy(&self, value: (u16, u16)) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<(u32, u32)> for Point

fn max_xy(&self, value: (u32, u32)) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<(u64, u64)> for Point

fn max_xy(&self, value: (u64, u64)) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<(u8, u8)> for Point

fn max_xy(&self, value: (u8, u8)) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<(usize, usize)> for Point

fn max_xy(&self, value: (usize, usize)) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<Point> for Point

fn max_xy(&self, value: Point) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<UPoint> for Point

fn max_xy(&self, value: UPoint) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<i16> for Point

fn max_xy(&self, value: i16) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<i32> for Point

fn max_xy(&self, value: i32) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<i64> for Point

fn max_xy(&self, value: i64) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<i8> for Point

fn max_xy(&self, value: i8) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<isize> for Point

fn max_xy(&self, value: isize) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<u16> for Point

fn max_xy(&self, value: u16) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<u32> for Point

fn max_xy(&self, value: u32) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<u64> for Point

fn max_xy(&self, value: u64) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<u8> for Point

fn max_xy(&self, value: u8) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MaxXy<usize> for Point

fn max_xy(&self, value: usize) -> Self

Return self.x.max(value) and self.y.max(value) as opposed to max which returns the highest out of self or value If value is primitive then both self.x and self.y will be max’d using the same value otherwise self.x will only max’d by min.x and max.x and the same for y

impl MinXy<(i16, i16)> for Point

fn min_xy(&self, value: (i16, i16)) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<(i32, i32)> for Point

fn min_xy(&self, value: (i32, i32)) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<(i64, i64)> for Point

fn min_xy(&self, value: (i64, i64)) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<(i8, i8)> for Point

fn min_xy(&self, value: (i8, i8)) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<(isize, isize)> for Point

fn min_xy(&self, value: (isize, isize)) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<(u16, u16)> for Point

fn min_xy(&self, value: (u16, u16)) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<(u32, u32)> for Point

fn min_xy(&self, value: (u32, u32)) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<(u64, u64)> for Point

fn min_xy(&self, value: (u64, u64)) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<(u8, u8)> for Point

fn min_xy(&self, value: (u8, u8)) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<(usize, usize)> for Point

fn min_xy(&self, value: (usize, usize)) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<Point> for Point

fn min_xy(&self, value: Point) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<UPoint> for Point

fn min_xy(&self, value: UPoint) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<i16> for Point

fn min_xy(&self, value: i16) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<i32> for Point

fn min_xy(&self, value: i32) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<i64> for Point

fn min_xy(&self, value: i64) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<i8> for Point

fn min_xy(&self, value: i8) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<isize> for Point

fn min_xy(&self, value: isize) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<u16> for Point

fn min_xy(&self, value: u16) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<u32> for Point

fn min_xy(&self, value: u32) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<u64> for Point

fn min_xy(&self, value: u64) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<u8> for Point

fn min_xy(&self, value: u8) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl MinXy<usize> for Point

fn min_xy(&self, value: usize) -> Self

Return self.x.min(value) and self.y.min(value) as opposed to min which returns the lowest out of self or value If value is primitive then both self.x and self.y will be min’d using the same value otherwise self.x will only min’d by min.x and max.x and the same for y

impl Mul<(i16, i16)> for Point

fn mul(&self, value: (i16, i16)) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<(i32, i32)> for Point

fn mul(&self, value: (i32, i32)) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<(i64, i64)> for Point

fn mul(&self, value: (i64, i64)) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<(i8, i8)> for Point

fn mul(&self, value: (i8, i8)) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<(isize, isize)> for Point

fn mul(&self, value: (isize, isize)) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<(u16, u16)> for Point

fn mul(&self, value: (u16, u16)) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<(u32, u32)> for Point

fn mul(&self, value: (u32, u32)) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<(u64, u64)> for Point

fn mul(&self, value: (u64, u64)) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<(u8, u8)> for Point

fn mul(&self, value: (u8, u8)) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<(usize, usize)> for Point

fn mul(&self, value: (usize, usize)) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<Point> for Point

fn mul(&self, value: Point) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<UPoint> for Point

fn mul(&self, value: UPoint) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<i16> for Point

fn mul(&self, value: i16) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<i32> for Point

fn mul(&self, value: i32) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<i64> for Point

fn mul(&self, value: i64) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<i8> for Point

fn mul(&self, value: i8) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<isize> for Point

fn mul(&self, value: isize) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<u16> for Point

fn mul(&self, value: u16) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<u32> for Point

fn mul(&self, value: u32) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<u64> for Point

fn mul(&self, value: u64) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<u8> for Point

fn mul(&self, value: u8) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Mul<usize> for Point

fn mul(&self, value: usize) -> Self

Return self.x * value and self.y * value If value is primitive then both self.x and self.y will be multiplied using the same value otherwise self.x will only multiplied by min.x and max.x and the same for y

impl Ord for Point

fn cmp(&self, other: &Point) -> Ordering

This method returns an Ordering between self and other.

fn max(self, other: Self) -> Self

Compares and returns the maximum of two values.

fn min(self, other: Self) -> Self

Compares and returns the minimum of two values.

fn clamp(self, min: Self, max: Self) -> Self

Restrict a value to a certain interval.

impl PartialEq<Point> for Point

fn eq(&self, other: &Point) -> bool

This method tests for self and other values to be equal, and is used by ==.

fn ne(&self, other: &Point) -> bool

This method tests for !=.

impl PartialOrd<Point> for Point

fn partial_cmp(&self, other: &Point) -> Option<Ordering>

This method returns an ordering between self and other values if one exists.

fn lt(&self, other: &Rhs) -> bool

This method tests less than (for self and other) and is used by the < operator.

fn le(&self, other: &Rhs) -> bool

This method tests less than or equal to (for self and other) and is used by the <= operator.

fn gt(&self, other: &Rhs) -> bool

This method tests greater than (for self and other) and is used by the > operator.

fn ge(&self, other: &Rhs) -> bool

This method tests greater than or equal to (for self and other) and is used by the >= operator.

impl Serialize for Point

fn serialize<__S>(&self, __serializer: __S) -> Result<__S::Ok, __S::Error> where
    __S: Serializer, 

Serialize this value into the given Serde serializer.

impl Sub<(i16, i16)> for Point

fn sub(&self, value: (i16, i16)) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<(i32, i32)> for Point

fn sub(&self, value: (i32, i32)) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<(i64, i64)> for Point

fn sub(&self, value: (i64, i64)) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<(i8, i8)> for Point

fn sub(&self, value: (i8, i8)) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<(isize, isize)> for Point

fn sub(&self, value: (isize, isize)) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<(u16, u16)> for Point

fn sub(&self, value: (u16, u16)) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<(u32, u32)> for Point

fn sub(&self, value: (u32, u32)) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<(u64, u64)> for Point

fn sub(&self, value: (u64, u64)) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<(u8, u8)> for Point

fn sub(&self, value: (u8, u8)) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<(usize, usize)> for Point

fn sub(&self, value: (usize, usize)) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<Point> for Point

fn sub(&self, value: Point) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<UPoint> for Point

fn sub(&self, value: UPoint) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<i16> for Point

fn sub(&self, value: i16) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<i32> for Point

fn sub(&self, value: i32) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<i64> for Point

fn sub(&self, value: i64) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<i8> for Point

fn sub(&self, value: i8) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<isize> for Point

fn sub(&self, value: isize) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<u16> for Point

fn sub(&self, value: u16) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<u32> for Point

fn sub(&self, value: u32) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<u64> for Point

fn sub(&self, value: u64) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<u8> for Point

fn sub(&self, value: u8) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Sub<usize> for Point

fn sub(&self, value: usize) -> Self

Return self.x - value and self.y - value If value is primitive then both self.x and self.y will be subtracted using the same value otherwise self.x will only subtracted by min.x and max.x and the same for y

impl Swap for Point

fn swap(&self) -> Self

Swap x and y

impl TryFrom<Point> for UPoint

type Error = String

The type returned in the event of a conversion error.

fn try_from(value: Point) -> Result<Self, Self::Error>

Performs the conversion.

impl Copy for Point

impl Eq for Point

impl StructuralEq for Point

impl StructuralPartialEq for Point