styling information is preserved. This means you can manipulate a AnnotatedString —taking substrings, padding them, concatenating them with other strings— and the metadata annotations will "come along for the digital filtering algorithm and you have a method that handles the edges of the signal by applying padding: function myfilter(A, kernel, ::Replicate) Apadded = replicate_edges(A, size(kernel)) myfilter(Apadded # now perform the "real" computation end This will run afoul of a method that supplies default padding: myfilter(A, kernel) = myfilter(A, kernel, Replicate()) # replicate the edge by default Together

} impl Widget for Button { fn width(&self) -> usize { self.label.width() + 8 // add a bit of padding } fn draw_into(&self, buffer: &mut dyn std::fmt::Write) { let width = self.width(); let mut label fn width(&self) -> usize { // ANCHOR_END: Button-width self.label.width() + 8 // add a bit of padding } // ANCHOR: Button-draw_into fn draw_into(&self, buffer: &mut dyn std::fmt::Write) { // ANCHOR_END: l; use std::slice; /// ... /// # Safety /// The type must have a defined representation and no padding. pub unsafe trait AsBytes { fn as_bytes(&self) -> &[u8] { unsafe { slice::from_raw_parts( self

styling information is preserved. This means you can manipulate a AnnotatedString —taking substrings, padding them, concatenating them with other strings— and the metadata annotations will "come along for the digital filtering algorithm and you have a method that handles the edges of the signal by applying padding: function myfilter(A, kernel, ::Replicate) Apadded = replicate_edges(A, size(kernel)) myfilter(Apadded # now perform the "real" computation end This will run afoul of a method that supplies default padding: myfilter(A, kernel) = myfilter(A, kernel, Replicate()) # replicate the edge by default Together

styling information is preserved. This means you can manipulate a AnnotatedString —taking substrings, padding them, concatenating them with other strings— and the metadata annotations will "come along for the digital filtering algorithm and you have a method that handles the edges of the signal by applying padding: function myfilter(A, kernel, ::Replicate) Apadded = replicate_edges(A, size(kernel)) myfilter(Apadded # now perform the "real" computation end This will run afoul of a method that supplies default padding: myfilter(A, kernel) = myfilter(A, kernel, Replicate()) # replicate the edge by default Together

styling information is preserved. This means you can manipulate a AnnotatedString —taking substrings, padding them, concatenating them with other strings— and the metadata annotations will "come along for the digital filtering algorithm and you have a method that handles the edges of the signal by applying padding: function myfilter(A, kernel, ::Replicate) Apadded = replicate_edges(A, size(kernel)) myfilter(Apadded # now perform the "real" computation end This will run afoul of a method that supplies default padding: myfilter(A, kernel) = myfilter(A, kernel, Replicate()) # replicate the edge by default Together

styling information is preserved. This means you can manipulate a AnnotatedString —taking substrings, padding them, concatenating them with other strings— and the metadata annotations will "come along for the digital filtering algorithm and you have a method that handles the edges of the signal by applying padding: function myfilter(A, kernel, ::Replicate) Apadded = replicate_edges(A, size(kernel)) myfilter(Apadded # now perform the "real" computation end This will run afoul of a method that supplies default padding: myfilter(A, kernel) = myfilter(A, kernel, Replicate()) # replicate the edge by default Together

styling information is preserved. This means you can manipulate a AnnotatedString —taking substrings, padding them, concatenating them with other strings— and the metadata annotations will "come along for the digital filtering algorithm and you have a method that handles the edges of the signal by applying padding: function myfilter(A, kernel, ::Replicate) Apadded = replicate_edges(A, size(kernel)) myfilter(Apadded # now perform the "real" computation end This will run afoul of a method that supplies default padding: myfilter(A, kernel) = myfilter(A, kernel, Replicate()) # replicate the edge by default Together

styling information is preserved. This means you can manipulate a AnnotatedString —taking substrings, padding them, concatenating them with other strings— and the metadata annotations will "come along for the digital filtering algorithm and you have a method that handles the edges of the signal by applying padding: function myfilter(A, kernel, ::Replicate) Apadded = replicate_edges(A, size(kernel)) myfilter(Apadded # now perform the "real" computation end This will run afoul of a method that supplies default padding: myfilter(A, kernel) = myfilter(A, kernel, Replicate()) # replicate the edge by default Together

styling information is preserved. This means you can manipulate a AnnotatedString —taking substrings, padding them, concatenating them with other strings— and the metadata annotations will "come along for the digital filtering algorithm and you have a method that handles the edges of the signal by applying padding: function myfilter(A, kernel, ::Replicate) Apadded = replicate_edges(A, size(kernel)) myfilter(Apadded # now perform the "real" computation end This will run afoul of a method that supplies default padding: myfilter(A, kernel) = myfilter(A, kernel, Replicate()) # replicate the edge by default Together

digital filtering algorithm and you have a method that handles the edges of the signal by applying padding: function myfilter(A, kernel, ::Replicate) Apadded = replicate_edges(A, size(kernel)) myfilter(Apadded # now perform the "real" computation end This will run afoul of a method that supplies default padding: myfilter(A, kernel) = myfilter(A, kernel, Replicate()) # replicate the edge by default Together better design would be to define your call hierarchy like this: struct NoPad end # indicate that no padding is desired, or that it's already applied myfilter(A, kernel) = myfilter(A, kernel, Replicate())