com.io7m.jregions.core.unparameterized.areas

## Class AreasI

- java.lang.Object
- - com.io7m.jregions.core.unparameterized.areas.AreasI

-     public final class AreasI
      extends Object

  Functions over areas.

  These functions operate using the concepts of minimum-x, maximum-x, minimum-y, and maximum-y edges. It is up to individual applications to assign meaning to these edges such as "left" for minimum-x and "top" for minimum-y.

- - ### Method Summary

    All Methods Static Methods Concrete Methods
    Modifier and Type | Method and Description
    --- | ---
    `static AreaI` | `alignCenter(AreaI outer, AreaI inner)` Align the area `inner` such that the center of the area is equal to the center of `outer`.
    `static AreaI` | `alignHorizontallyCenter(AreaI outer, AreaI inner)` Align the area `inner` horizontally in the center of `outer`.
    `static AreaI` | `alignHorizontallyMaxX(AreaI outer, AreaI inner)` Equivalent to calling `alignHorizontallyMaxXOffset(AreaI, AreaI, int)` with a zero offset.
    `static AreaI` | `alignHorizontallyMaxXOffset(AreaI outer, AreaI inner, int offset)` Align the area `inner` horizontally against the inside maximum-x edge of `outer`.
    `static AreaI` | `alignHorizontallyMinX(AreaI outer, AreaI inner)` Equivalent to calling `alignHorizontallyMinXOffset(AreaI, AreaI, int)` with a zero offset.
    `static AreaI` | `alignHorizontallyMinXOffset(AreaI outer, AreaI inner, int offset)` Align the area `inner` horizontally against the inside minimum-x edge of `outer`.
    `static AreaI` | `alignMaxYMaxX(AreaI outer, AreaI inner)` Equivalent to calling `alignMaxYMaxXOffset(AreaI, AreaI, int, int)` with zero offsets.
    `static AreaI` | `alignMaxYMaxXOffset(AreaI outer, AreaI inner, int offset_x, int offset_y)` Align the area `inner` such that the maximum-y edge is at least `offset_y` from the inside maximum-y edge of `outer` and the maximum-x edge is at least `offset_x` from the inside maximum-x edge of `outer`.
    `static AreaI` | `alignMaxYMinX(AreaI outer, AreaI inner)` Equivalent to calling `alignMaxYMinXOffset(AreaI, AreaI, int, int)` with zero offsets.
    `static AreaI` | `alignMaxYMinXOffset(AreaI outer, AreaI inner, int offset_x, int offset_y)` Align the area `inner` such that the maximum-y edge is at least `offset_y` from the inside maximum-y edge of `outer` and the minimum-x edge is at least `offset_x` from the inside minimum-x edge of `outer`.
    `static AreaI` | `alignMinYMaxX(AreaI outer, AreaI inner)` Equivalent to calling `alignMinYMaxXOffset(AreaI, AreaI, int, int)` with zero offsets.
    `static AreaI` | `alignMinYMaxXOffset(AreaI outer, AreaI inner, int offset_x, int offset_y)` Align the area `inner` such that the minimum-y edge is at least `offset_y` from the inside minimum-y edge of `outer` and the maximum-x edge is at least `offset_x` from the inside maximum-x edge of `outer`.
    `static AreaI` | `alignMinYMinX(AreaI outer, AreaI inner)` Equivalent to calling `alignMinYMinXOffset(AreaI, AreaI, int, int)` with zero offsets.
    `static AreaI` | `alignMinYMinXOffset(AreaI outer, AreaI inner, int offset_x, int offset_y)` Align the area `inner` such that the minimum-y edge is at least `offset_y` from the inside minimum-y edge of `outer` and the minimum-x edge is at least `offset_x` from the inside minimum-x edge of `outer`.
    `static AreaI` | `alignVerticallyCenter(AreaI outer, AreaI inner)` Align the area `inner` vertically in the center of `outer`.
    `static AreaI` | `alignVerticallyMaxY(AreaI outer, AreaI inner)` Equivalent to calling `alignVerticallyMaxYOffset(AreaI, AreaI, int)` with a zero offset.
    `static AreaI` | `alignVerticallyMaxYOffset(AreaI outer, AreaI inner, int offset)` Align the area `inner` vertically against the inside maximum-y edge of `outer`.
    `static AreaI` | `alignVerticallyMinY(AreaI outer, AreaI inner)` Equivalent to calling `alignVerticallyMinYOffset(AreaI, AreaI, int)` with a zero offset.
    `static AreaI` | `alignVerticallyMinYOffset(AreaI outer, AreaI inner, int offset)` Align the area `inner` vertically against the inside minimum-y edge of `outer`.
    `static AreaI` | `containing(AreaI a, AreaI b)` Construct a area that will contain both `a` and `b`.
    `static boolean` | `contains(AreaI a, AreaI b)` Determine whether or not one area contains another.
    `static boolean` | `containsPoint(AreaI a, int x, int y)` Determine whether or not a area contains a given point.
    `static boolean` | `couldFitInside(AreaI a, AreaI b)` Determine whether or not one area could fit inside another.
    `static AreaI` | `create(int x, int y, int width, int height)` Create an area of width `width` and height `height`, placing the minimum corner at `(x, y)`.
    `static AreaI` | `fitBetweenHorizontal(AreaI fit, AreaI a, AreaI b)` Attempt to fit `fit` between `a` and `b`, horizontally.
    `static AreaI` | `fitBetweenVertical(AreaI fit, AreaI a, AreaI b)` Attempt to fit `fit` between `a` and `b`, vertically.
    `static AreaI` | `hollowOut(AreaI outer, int min_x_offset, int max_x_offset, int min_y_offset, int max_y_offset)` Construct a new area that fits inside `outer` based on the given offsets from each edge.
    `static AreaI` | `hollowOutEvenly(AreaI outer, int offset)` Equivalent to calling `hollowOut(AreaI, int, int, int, int)` with `offset` for all offset parameters.
    `static AreaI` | `moveAbsolute(AreaI area, int x, int y)` Move the given area to `(x, y)`.
    `static AreaI` | `moveRelative(AreaI area, int x, int y)` Move the given area by `(x, y)`.
    `static AreaI` | `moveToOrigin(AreaI area)` Move the given area to `(0, 0)`.
    `static boolean` | `overlaps(AreaI a, AreaI b)` Determine whether or not two areas overlap.
    `static AreaI` | `scaleFromCenter(AreaI area, int x_diff, int y_diff)` Scale `area` by adding `x_diff` to the width, and `y_diff` to the height.
    `static AreaI` | `scaleFromMaxYMaxX(AreaI area, int x_diff, int y_diff)` Scale `area` by adding `x_diff` to the width, and `y_diff` to the height.
    `static AreaI` | `scaleFromMaxYMinX(AreaI area, int x_diff, int y_diff)` Scale `area` by adding `x_diff` to the width, and `y_diff` to the height.
    `static AreaI` | `scaleFromMinYMaxX(AreaI area, int x_diff, int y_diff)` Scale `area` by adding `x_diff` to the width, and `y_diff` to the height.
    `static AreaI` | `scaleFromMinYMinX(AreaI area, int x_diff, int y_diff)` Scale `area` by adding `x_diff` to the width, and `y_diff` to the height.
    `static AreaI` | `setSizeFromCenter(AreaI area, int width, int height)` Set the width and height of `area` to `width` and `height`, respectively.
    `static AreaI` | `setSizeFromMaxYMaxX(AreaI area, int width, int height)` Set the width and height of `area` to `width` and `height`, respectively.
    `static AreaI` | `setSizeFromMaxYMinX(AreaI area, int width, int height)` Set the width and height of `area` to `width` and `height`, respectively.
    `static AreaI` | `setSizeFromMinYMaxX(AreaI area, int width, int height)` Set the width and height of `area` to `width` and `height`, respectively.
    `static AreaI` | `setSizeFromMinYMinX(AreaI area, int width, int height)` Set the width and height of `area` to `width` and `height`, respectively.
    `static String` | `show(AreaI area)`
    `static String` | `showToBuilder(AreaI area, StringBuilder sb)`
    `static AreaXSplitI<AreaI>` | `splitAlongParallelToX(AreaI area, int y)` Split `area` along a line parallel to the X axis placed at `y` units from its own minimum-y edge.
    `static AreaYSplitI<AreaI>` | `splitAlongParallelToY(AreaI area, int x)` Split `area` along a line parallel to the Y axis placed at `x` units from its own minimum-x edge.

    - ### Methods inherited from class java.lang.Object

      `clone, equals, finalize, getClass, hashCode, notify, notifyAll, toString, wait, wait, wait`

- - ### Method Detail

    - #### create

          public static AreaI create(int x,
                                     int y,
                                     int width,
                                     int height)

      Create an area of width `width` and height `height`, placing the minimum corner at `(x, y)`.
      Parameters:
        `x` - The X value of the minimum corner
        `y` - The Y value of the minimum corner
        `width` - The width of the area
        `height` - The height of the area
      Returns:
        An area

    - #### contains

          public static boolean contains(AreaI a,
                                         AreaI b)

      Determine whether or not one area contains another.

      Containing is reflexive: `contains(a, a) == true`.

      Containing is transitive: `contains(a, b) → contains(b, c) → contains(a, c)`.

      Containing is not necessarily symmetric.

      Parameters:
        `a` - Area A
        `b` - Area B
      Returns:
        `true` iff `a` contains `b`

    - #### moveRelative

          public static AreaI moveRelative(AreaI area,
                                           int x,
                                           int y)

      Move the given area by `(x, y)`.
      Parameters:
        `area` - The area
        `x` - The amount to move on the X axis
        `y` - The amount to move on the Y axis
      Returns:
        A moved area

    - #### moveAbsolute

          public static AreaI moveAbsolute(AreaI area,
                                           int x,
                                           int y)

      Move the given area to `(x, y)`.
      Parameters:
        `area` - The area
        `x` - The position to which to move on the X axis
        `y` - The position to which to move on the Y axis
      Returns:
        A moved area

    - #### moveToOrigin

          public static AreaI moveToOrigin(AreaI area)

      Move the given area to `(0, 0)`.
      Parameters:
        `area` - The area
      Returns:
        A moved area

    - #### alignHorizontallyCenter

          public static AreaI alignHorizontallyCenter(AreaI outer,
                                                      AreaI inner)

      Align the area `inner` horizontally in the center of `outer`.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
      Returns:
        An aligned area

    - #### alignHorizontallyMinX

          public static AreaI alignHorizontallyMinX(AreaI outer,
                                                    AreaI inner)

      Equivalent to calling `alignHorizontallyMinXOffset(AreaI, AreaI, int)` with a zero offset.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
      Returns:
        An aligned area

    - #### alignHorizontallyMinXOffset

          public static AreaI alignHorizontallyMinXOffset(AreaI outer,
                                                          AreaI inner,
                                                          int offset)

      Align the area `inner` horizontally against the inside minimum-x edge of `outer`. The area will be at least `offset` units from the minimum-x edge.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
        `offset` - The offset from the edge s
      Returns:
        An aligned area

    - #### alignHorizontallyMaxX

          public static AreaI alignHorizontallyMaxX(AreaI outer,
                                                    AreaI inner)

      Equivalent to calling `alignHorizontallyMaxXOffset(AreaI, AreaI, int)` with a zero offset.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
      Returns:
        An aligned area

    - #### alignHorizontallyMaxXOffset

          public static AreaI alignHorizontallyMaxXOffset(AreaI outer,
                                                          AreaI inner,
                                                          int offset)

      Align the area `inner` horizontally against the inside maximum-x edge of `outer`. The area will be at least `offset` units from the maximum-x edge.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
        `offset` - The offset from the edge s
      Returns:
        An aligned area

    - #### alignVerticallyMinY

          public static AreaI alignVerticallyMinY(AreaI outer,
                                                  AreaI inner)

      Equivalent to calling `alignVerticallyMinYOffset(AreaI, AreaI, int)` with a zero offset.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
      Returns:
        An aligned area

    - #### alignVerticallyMinYOffset

          public static AreaI alignVerticallyMinYOffset(AreaI outer,
                                                        AreaI inner,
                                                        int offset)

      Align the area `inner` vertically against the inside minimum-y edge of `outer`. The area will be at least `offset` units from the minimum-y edge.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
        `offset` - The offset from the edge s
      Returns:
        An aligned area

    - #### alignVerticallyMaxY

          public static AreaI alignVerticallyMaxY(AreaI outer,
                                                  AreaI inner)

      Equivalent to calling `alignVerticallyMaxYOffset(AreaI, AreaI, int)` with a zero offset.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
      Returns:
        An aligned area

    - #### alignVerticallyMaxYOffset

          public static AreaI alignVerticallyMaxYOffset(AreaI outer,
                                                        AreaI inner,
                                                        int offset)

      Align the area `inner` vertically against the inside maximum-y edge of `outer`. The area will be at least `offset` units from the maximum-y edge.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
        `offset` - The offset from the edge s
      Returns:
        An aligned area

    - #### alignVerticallyCenter

          public static AreaI alignVerticallyCenter(AreaI outer,
                                                    AreaI inner)

      Align the area `inner` vertically in the center of `outer`.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
      Returns:
        An aligned area

    - #### alignMinYMinX

          public static AreaI alignMinYMinX(AreaI outer,
                                            AreaI inner)

      Equivalent to calling `alignMinYMinXOffset(AreaI, AreaI, int, int)` with zero offsets.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
      Returns:
        An aligned area

    - #### alignMinYMinXOffset

          public static AreaI alignMinYMinXOffset(AreaI outer,
                                                  AreaI inner,
                                                  int offset_x,
                                                  int offset_y)

      Align the area `inner` such that the minimum-y edge is at least `offset_y` from the inside minimum-y edge of `outer` and the minimum-x edge is at least `offset_x` from the inside minimum-x edge of `outer`.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
        `offset_x` - The offset from the minimum-x edge
        `offset_y` - The offset from the minimum-y edge
      Returns:
        An aligned area

    - #### alignMinYMaxX

          public static AreaI alignMinYMaxX(AreaI outer,
                                            AreaI inner)

      Equivalent to calling `alignMinYMaxXOffset(AreaI, AreaI, int, int)` with zero offsets.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
      Returns:
        An aligned area

    - #### alignMinYMaxXOffset

          public static AreaI alignMinYMaxXOffset(AreaI outer,
                                                  AreaI inner,
                                                  int offset_x,
                                                  int offset_y)

      Align the area `inner` such that the minimum-y edge is at least `offset_y` from the inside minimum-y edge of `outer` and the maximum-x edge is at least `offset_x` from the inside maximum-x edge of `outer`.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
        `offset_x` - The offset from the maximum-x edge
        `offset_y` - The offset from the minimum-y edge
      Returns:
        An aligned area

    - #### alignMaxYMinX

          public static AreaI alignMaxYMinX(AreaI outer,
                                            AreaI inner)

      Equivalent to calling `alignMaxYMinXOffset(AreaI, AreaI, int, int)` with zero offsets.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
      Returns:
        An aligned area

    - #### alignMaxYMinXOffset

          public static AreaI alignMaxYMinXOffset(AreaI outer,
                                                  AreaI inner,
                                                  int offset_x,
                                                  int offset_y)

      Align the area `inner` such that the maximum-y edge is at least `offset_y` from the inside maximum-y edge of `outer` and the minimum-x edge is at least `offset_x` from the inside minimum-x edge of `outer`.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
        `offset_x` - The offset from the minimum-x edge
        `offset_y` - The offset from the maximum-y edge
      Returns:
        An aligned area

    - #### alignMaxYMaxX

          public static AreaI alignMaxYMaxX(AreaI outer,
                                            AreaI inner)

      Equivalent to calling `alignMaxYMaxXOffset(AreaI, AreaI, int, int)` with zero offsets.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
      Returns:
        An aligned area

    - #### alignMaxYMaxXOffset

          public static AreaI alignMaxYMaxXOffset(AreaI outer,
                                                  AreaI inner,
                                                  int offset_x,
                                                  int offset_y)

      Align the area `inner` such that the maximum-y edge is at least `offset_y` from the inside maximum-y edge of `outer` and the maximum-x edge is at least `offset_x` from the inside maximum-x edge of `outer`.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
        `offset_x` - The offset from the maximum-x edge
        `offset_y` - The offset from the maximum-y edge
      Returns:
        An aligned area

    - #### alignCenter

          public static AreaI alignCenter(AreaI outer,
                                          AreaI inner)

      Align the area `inner` such that the center of the area is equal to the center of `outer`.
      Parameters:
        `outer` - The outer area
        `inner` - The inner area
      Returns:
        An aligned area

    - #### hollowOut

          public static AreaI hollowOut(AreaI outer,
                                        int min_x_offset,
                                        int max_x_offset,
                                        int min_y_offset,
                                        int max_y_offset)

      Construct a new area that fits inside `outer` based on the given offsets from each edge.
      Parameters:
        `outer` - The containing area
        `min_x_offset` - The offset from the minimum-x edge (must be non-negative)
        `max_x_offset` - The offset from the maximum-x edge (must be non-negative)
        `min_y_offset` - The offset from the minimum-y edge (must be non-negative)
        `max_y_offset` - The offset from the maximum-y edge (must be non-negative)
      Returns:
        A new area

    - #### hollowOutEvenly

          public static AreaI hollowOutEvenly(AreaI outer,
                                              int offset)

      Equivalent to calling `hollowOut(AreaI, int, int, int, int)` with `offset` for all offset parameters.
      Parameters:
        `outer` - The containing area
        `offset` - The offset from each edge (must be non-negative)
      Returns:
        A new area

    - #### setSizeFromCenter

          public static AreaI setSizeFromCenter(AreaI area,
                                                int width,
                                                int height)

      Set the width and height of `area` to `width` and `height`, respectively.

      The area is resized from its own center.

      Parameters:
        `area` - The area
        `width` - The new width (must be non-negative)
        `height` - The new height (must be non-negative)
      Returns:
        A resized area

    - #### setSizeFromMinYMinX

          public static AreaI setSizeFromMinYMinX(AreaI area,
                                                  int width,
                                                  int height)

      Set the width and height of `area` to `width` and `height`, respectively.

      The area is resized by moving its minimum-y-minimum-x corner.

      Parameters:
        `area` - The area
        `width` - The new width (must be non-negative)
        `height` - The new height (must be non-negative)
      Returns:
        A resized area

    - #### setSizeFromMinYMaxX

          public static AreaI setSizeFromMinYMaxX(AreaI area,
                                                  int width,
                                                  int height)

      Set the width and height of `area` to `width` and `height`, respectively.

      The area is resized by moving its minimum-y-maximum-x corner.

      Parameters:
        `area` - The area
        `width` - The new width (must be non-negative)
        `height` - The new height (must be non-negative)
      Returns:
        A resized area

    - #### setSizeFromMaxYMaxX

          public static AreaI setSizeFromMaxYMaxX(AreaI area,
                                                  int width,
                                                  int height)

      Set the width and height of `area` to `width` and `height`, respectively.

      The area is resized by moving its maximum-y-maximum-x corner.

      Parameters:
        `area` - The area
        `width` - The new width (must be non-negative)
        `height` - The new height (must be non-negative)
      Returns:
        A resized area

    - #### setSizeFromMaxYMinX

          public static AreaI setSizeFromMaxYMinX(AreaI area,
                                                  int width,
                                                  int height)

      Set the width and height of `area` to `width` and `height`, respectively.

      The area is resized by moving its maximum-y-minimum-x corner.

      Parameters:
        `area` - The area
        `width` - The new width (must be non-negative)
        `height` - The new height (must be non-negative)
      Returns:
        A resized area

    - #### scaleFromMinYMinX

          public static AreaI scaleFromMinYMinX(AreaI area,
                                                int x_diff,
                                                int y_diff)

      Scale `area` by adding `x_diff` to the width, and `y_diff` to the height. The size of the resulting area is clamped so that its width and height are always non-negative.

      The area is resized by moving its minimum-y-minimum-x corner.

      Parameters:
        `area` - The area
        `x_diff` - The X difference
        `y_diff` - The Y difference
      Returns:
        A resized area

    - #### scaleFromMinYMaxX

          public static AreaI scaleFromMinYMaxX(AreaI area,
                                                int x_diff,
                                                int y_diff)

      Scale `area` by adding `x_diff` to the width, and `y_diff` to the height. The size of the resulting area is clamped so that its width and height are always non-negative.

      The area is resized by moving its minimum-y-maximum-x corner.

      Parameters:
        `area` - The area
        `x_diff` - The X difference
        `y_diff` - The Y difference
      Returns:
        A resized area

    - #### scaleFromMaxYMinX

          public static AreaI scaleFromMaxYMinX(AreaI area,
                                                int x_diff,
                                                int y_diff)

      Scale `area` by adding `x_diff` to the width, and `y_diff` to the height. The size of the resulting area is clamped so that its width and height are always non-negative.

      The area is resized by moving its maximum-y-minimum-x corner.

      Parameters:
        `area` - The area
        `x_diff` - The X difference
        `y_diff` - The Y difference
      Returns:
        A resized area

    - #### scaleFromMaxYMaxX

          public static AreaI scaleFromMaxYMaxX(AreaI area,
                                                int x_diff,
                                                int y_diff)

      Scale `area` by adding `x_diff` to the width, and `y_diff` to the height. The size of the resulting area is clamped so that its width and height are always non-negative.

      The area is resized by moving its maximum-y-maximum-x corner.

      Parameters:
        `area` - The area
        `x_diff` - The X difference
        `y_diff` - The Y difference
      Returns:
        A resized area

    - #### scaleFromCenter

          public static AreaI scaleFromCenter(AreaI area,
                                              int x_diff,
                                              int y_diff)

      Scale `area` by adding `x_diff` to the width, and `y_diff` to the height. The size of the resulting area is clamped so that its width and height are always non-negative.

      The area is resized from its own center.

      Parameters:
        `area` - The area
        `x_diff` - The X difference
        `y_diff` - The Y difference
      Returns:
        A resized area

    - #### overlaps

          public static boolean overlaps(AreaI a,
                                         AreaI b)

      Determine whether or not two areas overlap.

      Overlapping is reflexive: `overlaps(a, a) == true`.

      Overlapping is symmetric: `overlaps(a, b) == contains(b, a)`.

      Overlapping is not necessarily transitive.

      Parameters:
        `a` - An area
        `b` - An area
      Returns:
        `true` iff `a` overlaps `b`

    - #### couldFitInside

          public static boolean couldFitInside(AreaI a,
                                               AreaI b)

      Determine whether or not one area could fit inside another.

      Fitting is reflexive: `couldFitInside(a, a) == true`.

      Fitting is transitive: `couldFitInside(a, b) → couldFitInside(b, c) → couldFitInside(a, c)`.

      Fitting is not necessarily symmetric.

      Parameters:
        `a` - An area
        `b` - An area
      Returns:
        `true` iff `a` could fit inside `b`

    - #### containing

          public static AreaI containing(AreaI a,
                                         AreaI b)

      Construct a area that will contain both `a` and `b`.
      Parameters:
        `a` - An area
        `b` - An area
      Returns:
        An area containing `a` and `b`

    - #### containsPoint

          public static boolean containsPoint(AreaI a,
                                              int x,
                                              int y)

      Determine whether or not a area contains a given point.

      Parameters:
        `a` - An area
        `x` - The X coordinate of the point
        `y` - The Y coordinate of the point
      Returns:
        `true` iff `a` contains `(x, y)`

    - #### fitBetweenHorizontal

          public static AreaI fitBetweenHorizontal(AreaI fit,
                                                   AreaI a,
                                                   AreaI b)

      Attempt to fit `fit` between `a` and `b`, horizontally.
      Parameters:
        `fit` - The area to be fitted
        `a` - An area
        `b` - An area
      Returns:
        A fitted area

    - #### fitBetweenVertical

          public static AreaI fitBetweenVertical(AreaI fit,
                                                 AreaI a,
                                                 AreaI b)

      Attempt to fit `fit` between `a` and `b`, vertically.
      Parameters:
        `fit` - The area to be fitted
        `a` - An area
        `b` - An area
      Returns:
        A fitted area

    - #### splitAlongParallelToX

          public static AreaXSplitI<AreaI> splitAlongParallelToX(AreaI area,
                                                                 int y)

      Split `area` along a line parallel to the X axis placed at `y` units from its own minimum-y edge.
      Parameters:
        `area` - The area to be split
        `y` - The relative Y coordinate of the splitting edge
      Returns:
        A pair of areas

    - #### splitAlongParallelToY

          public static AreaYSplitI<AreaI> splitAlongParallelToY(AreaI area,
                                                                 int x)

      Split `area` along a line parallel to the Y axis placed at `x` units from its own minimum-x edge.
      Parameters:
        `area` - The area to be split
        `x` - The relative X coordinate of the splitting edge
      Returns:
        A pair of areas

    - #### show

          public static String show(AreaI area)

      Parameters:
        `area` - The area
      Returns:
        A terse string describing the position and size of the area

    - #### showToBuilder

          public static String showToBuilder(AreaI area,
                                             StringBuilder sb)

      Parameters:
        `area` - The area
        `sb` - A string builder
      Returns:
        A terse string describing the position and size of the area

Copyright © 2017 <code@io7m.com> http://io7m.com