Maintainer | Michael Sloan <mgsloan at gmail> |
---|---|

Safe Haskell | None |

An algorithm for filling space in a fashion akin to word-wrapping.

- wrapDiagram :: (HasLinearMap v, InnerSpace v, OrderedField (Scalar v)) => ([(v, Diagram b v)], [Diagram b v]) -> Diagram b v
- wrapOutside :: (Enveloped a, v ~ V a, InnerSpace v, OrderedField (Scalar v)) => (Point v -> Bool) -> [v] -> Point v -> [a] -> ([(v, a)], [a])
- wrapInside :: forall a v. (Enveloped a, v ~ V a, InnerSpace v, OrderedField (Scalar v)) => (Point v -> Bool) -> [v] -> Point v -> [a] -> ([(v, a)], [a])

# Documentation

wrapDiagram :: (HasLinearMap v, InnerSpace v, OrderedField (Scalar v)) => ([(v, Diagram b v)], [Diagram b v]) -> Diagram b vSource

`wrapDiagram`

post-processes the results of `wrapOutside`

/
`wrapInside`

into a Diagram of the result. This only works when
applying them to a list of diagrams.

wrapOutside :: (Enveloped a, v ~ V a, InnerSpace v, OrderedField (Scalar v)) => (Point v -> Bool) -> [v] -> Point v -> [a] -> ([(v, a)], [a])Source

`wrapOutside`

is the same as `wrapInside`

, but with an inverted
predicate.

wrapInside :: forall a v. (Enveloped a, v ~ V a, InnerSpace v, OrderedField (Scalar v)) => (Point v -> Bool) -> [v] -> Point v -> [a] -> ([(v, a)], [a])Source

fillInside greedily wraps content to fill a space defined by a predicate. It is passed a list of vectors which express the order of dimensions to be filled. In other words, wrapping RTL text is done by passing in [unitX, unitY], to first exhaust space horizontally, and then vertically.

Note that this function does not guarantee that there are not points inside each positioned item for which the predicate is False. Instead, only the corners of the bounds, along each axii, are used.