Fix broken rustdoc links

nih_plug_vizia/src/widgets/param_slider.rs

@@ -11,7 +11,7 @@ use super::RawParamEvent;
 const GRANULAR_DRAG_MULTIPLIER: f32 = 0.1;
 
 /// A slider that integrates with NIH-plug's [`Param`] types. Use the
-/// [`set_style()`][Self::set_style()] method to change how the value gets displayed.
+/// [`set_style()`][ParamSliderExt::set_style()] method to change how the value gets displayed.
 ///
 /// TODO: Handle scrolling for steps (and shift+scroll for smaller steps?)
 /// TODO: We may want to add a couple dedicated event handlers if it seems like those would be
@@ -34,7 +34,7 @@ pub struct ParamSlider {
 }
 
 /// How the [`ParamSlider`] should display its values. Set this using
-/// [`ParamSliderExt::slider_style()`].
+/// [`ParamSliderExt::set_style()`].
 #[derive(Debug, Clone, Copy, PartialEq, Eq, Data)]
 pub enum ParamSliderStyle {
     /// Visualize the offset from the default value for continuous parameters with a default value

nih_plug_vizia/src/widgets/peak_meter.rs

@@ -39,8 +39,6 @@ where
 impl PeakMeter {
     /// Creates a new [`PeakMeter`] for the given value in decibel, optionally holding the peak
     /// value for a certain amount of time.
-    ///
-    /// See [`PeakMeterExt`] for additonal options.
     pub fn new<L>(
         cx: &mut Context,
         level_dbfs: L,

src/buffer/blocks.rs

@@ -8,8 +8,8 @@ use std::simd::{LaneCount, Simd, SupportedLaneCount};
 use super::SamplesIter;
 
 /// An iterator over all samples in the buffer, slicing over the sample-dimension with a maximum
-/// size of `max_block_size`. See [`Buffer::iter_blocks()`]. Yields both the block and the offset
-/// from the start of the buffer.
+/// size of `max_block_size`. See [`Buffer::iter_blocks()`][super::Buffer::iter_blocks()]. Yields
+/// both the block and the offset from the start of the buffer.
 pub struct BlocksIter<'slice, 'sample: 'slice> {
     /// The raw output buffers.
     pub(super) buffers: *mut [&'sample mut [f32]],
@@ -152,7 +152,8 @@ impl<'slice, 'sample> Block<'slice, 'sample> {
     }
 
     /// Iterate over this block on a per-sample per-channel basis. This is identical to
-    /// [`Buffer::iter_samples()`] but for a smaller block instead of the entire buffer
+    /// [`Buffer::iter_samples()`][super::Buffer::iter_samples()] but for a smaller block instead of
+    /// the entire buffer
     #[inline]
     pub fn iter_samples(&mut self) -> SamplesIter<'slice, 'sample> {
         SamplesIter {
@@ -272,7 +273,8 @@ impl<'slice, 'sample> Block<'slice, 'sample> {
     }
 
     /// Write data from a SIMD vector to this sample's channel data for a specific sample in this
-    /// block. This takes the padding added by [`to_simd()`][Self::to_simd()] into account.
+    /// block. This takes the padding added by [`to_channel_simd()`][Self::to_channel_simd()] into
+    /// account.
     ///
     /// Returns `false` if `sample_index` is out of bounds.
     #[cfg(feature = "simd")]

src/buffer/samples.rs

@@ -19,9 +19,9 @@ pub struct SamplesIter<'slice, 'sample: 'slice> {
 }
 
 /// Can construct iterators over actual iterator over the channel data for a sample, yielded by
-/// [`SamplesIter`]. Can be turned into an iterator, or [`Channels::iter_mut()`] can be used to
-/// iterate over the channel data multiple times, or more efficiently you can use
-/// [`Channels::get_unchecked_mut()`] to do the same thing.
+/// [`SamplesIter`]. Can be turned into an iterator, or [`ChannelSamples::iter_mut()`] can be used
+/// to iterate over the channel data multiple times, or more efficiently you can use
+/// [`ChannelSamples::get_unchecked_mut()`] to do the same thing.
 pub struct ChannelSamples<'slice, 'sample: 'slice> {
     /// The raw output buffers.
     pub(self) buffers: *mut [&'sample mut [f32]],
@@ -29,7 +29,7 @@ pub struct ChannelSamples<'slice, 'sample: 'slice> {
     pub(self) _marker: PhantomData<&'slice mut [&'sample mut [f32]]>,
 }
 
-/// The actual iterator over the channel data for a sample, yielded by [`Channels`].
+/// The actual iterator over the channel data for a sample, yielded by [`ChannelSamples`].
 pub struct ChannelSamplesIter<'slice, 'sample: 'slice> {
     /// The raw output buffers.
     pub(self) buffers: *mut [&'sample mut [f32]],
@@ -123,7 +123,8 @@ impl<'slice, 'sample> ChannelSamples<'slice, 'sample> {
     }
 
     /// A resetting iterator. This lets you iterate over the same channels multiple times. Otherwise
-    /// you don't need to use this function as [`Channels`] already implements [Iterator].
+    /// you don't need to use this function as [`ChannelSamples`] already implements
+    /// [`IntoIterator`].
     #[inline]
     pub fn iter_mut(&mut self) -> ChannelSamplesIter<'slice, 'sample> {
         ChannelSamplesIter {

src/formatters.rs

@@ -35,7 +35,7 @@ pub fn f32_gain_to_db(digits: usize) -> Arc<dyn Fn(f32) -> String + Send + Sync>
 }
 
 /// Parse a decibel value to a linear voltage gain ratio. Handles the `dB` or `dBFS` units for you.
-/// Used in conjunction with [`f32_lin_to_db`].
+/// Used in conjunction with [`f32_gain_to_db()`].
 pub fn from_f32_gain_to_db() -> Arc<dyn Fn(&str) -> Option<f32> + Send + Sync> {
     Arc::new(|string| {
         string
@@ -99,14 +99,14 @@ pub fn from_f32_hz_then_khz() -> Arc<dyn Fn(&str) -> Option<f32> + Send + Sync>
     })
 }
 
-/// Format an order/power of two. Useful in conjunction with [`from_power_of_two()`] to limit
+/// Format an order/power of two. Useful in conjunction with [`from_i32_power_of_two()`] to limit
 /// integer parameter ranges to be only powers of two.
 pub fn i32_power_of_two() -> Arc<dyn Fn(i32) -> String + Send + Sync> {
     Arc::new(|value| format!("{}", 1 << value))
 }
 
-/// Parse a parameter input string to a power of two. Useful in conjunction with [`power_of_two()`]
-/// to limit integer parameter ranges to be only powers of two.
+/// Parse a parameter input string to a power of two. Useful in conjunction with
+/// [`i32_power_of_two()`] to limit integer parameter ranges to be only powers of two.
 pub fn from_i32_power_of_two() -> Arc<dyn Fn(&str) -> Option<i32> + Send + Sync> {
     Arc::new(|string| string.parse().ok().map(|n: i32| (n as f32).log2() as i32))
 }

src/util/stft.rs

@@ -237,8 +237,8 @@ impl<const NUM_SIDECHAIN_INPUTS: usize> StftHelper<NUM_SIDECHAIN_INPUTS> {
     /// specified size with the windowing function already applied. The summed reults will then be
     /// written back to `main_buffer` exactly one block later, which means that this function will
     /// introduce one block of latency. This can be compensated by calling
-    /// [`ProcessContext::set_latency()`][`crate::prelude::ProcessContext::set_latency()`] in your
-    /// plugin's initialization function.
+    /// [`ProcessContext::set_latency()`][`crate::prelude::ProcessContext::set_latency_samples()`]
+    /// in your plugin's initialization function.
     ///
     /// This function does not apply any gain compensation for the windowing. You will need to do
     /// that yoruself depending on your window function and the amount of overlap.