Struct rustc_data_structures::snapshot_vec::SnapshotVec [−][src]
pub struct SnapshotVec<D> where
D: SnapshotVecDelegate, { /* fields omitted */ }
Methods
impl<D> SnapshotVec<D> where
D: SnapshotVecDelegate,
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impl<D> SnapshotVec<D> where
D: SnapshotVecDelegate,
pub fn new() -> SnapshotVec<D>
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pub fn new() -> SnapshotVec<D>
pub fn with_capacity(c: usize) -> SnapshotVec<D>
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pub fn with_capacity(c: usize) -> SnapshotVec<D>
pub fn record(&mut self, action: <D as SnapshotVecDelegate>::Undo)
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pub fn record(&mut self, action: <D as SnapshotVecDelegate>::Undo)
pub fn len(&self) -> usize
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pub fn len(&self) -> usize
pub fn push(&mut self, elem: <D as SnapshotVecDelegate>::Value) -> usize
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pub fn push(&mut self, elem: <D as SnapshotVecDelegate>::Value) -> usize
pub fn get(&self, index: usize) -> &<D as SnapshotVecDelegate>::Value
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pub fn get(&self, index: usize) -> &<D as SnapshotVecDelegate>::Value
pub fn reserve(&mut self, additional: usize)
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pub fn reserve(&mut self, additional: usize)
Reserve space for new values, just like an ordinary vec.
pub fn get_mut(
&mut self,
index: usize
) -> &mut <D as SnapshotVecDelegate>::Value
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pub fn get_mut(
&mut self,
index: usize
) -> &mut <D as SnapshotVecDelegate>::Value
Returns a mutable pointer into the vec; whatever changes you make here cannot be undone
automatically, so you should be sure call record()
with some sort of suitable undo
action.
pub fn set(&mut self, index: usize, new_elem: <D as SnapshotVecDelegate>::Value)
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pub fn set(&mut self, index: usize, new_elem: <D as SnapshotVecDelegate>::Value)
Updates the element at the given index. The old value will saved (and perhaps restored) if a snapshot is active.
pub fn set_all<impl FnMut(usize) -> D::Value>(
&mut self,
new_elems: impl FnMut(usize) -> D::Value
) where
impl FnMut(usize) -> D::Value: FnMut(usize) -> <D as SnapshotVecDelegate>::Value,
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pub fn set_all<impl FnMut(usize) -> D::Value>(
&mut self,
new_elems: impl FnMut(usize) -> D::Value
) where
impl FnMut(usize) -> D::Value: FnMut(usize) -> <D as SnapshotVecDelegate>::Value,
Updates all elements. Potentially more efficient -- but
otherwise equivalent to -- invoking set
for each element.
pub fn update<OP>(&mut self, index: usize, op: OP) where
OP: FnOnce(&mut <D as SnapshotVecDelegate>::Value),
<D as SnapshotVecDelegate>::Value: Clone,
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pub fn update<OP>(&mut self, index: usize, op: OP) where
OP: FnOnce(&mut <D as SnapshotVecDelegate>::Value),
<D as SnapshotVecDelegate>::Value: Clone,
pub fn start_snapshot(&mut self) -> Snapshot
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pub fn start_snapshot(&mut self) -> Snapshot
pub fn actions_since_snapshot(&self, snapshot: &Snapshot) -> &[UndoLog<D>]
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pub fn actions_since_snapshot(&self, snapshot: &Snapshot) -> &[UndoLog<D>]
pub fn rollback_to(&mut self, snapshot: Snapshot)
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pub fn rollback_to(&mut self, snapshot: Snapshot)
pub fn commit(&mut self, snapshot: Snapshot)
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pub fn commit(&mut self, snapshot: Snapshot)
Commits all changes since the last snapshot. Of course, they can still be undone if there is a snapshot further out.
Methods from Deref<Target = [<D as SnapshotVecDelegate>::Value]>
pub const fn len(&self) -> usize
1.0.0[src]
pub const fn len(&self) -> usize
pub const fn is_empty(&self) -> bool
1.0.0[src]
pub const fn is_empty(&self) -> bool
pub fn first(&self) -> Option<&T>
1.0.0[src]
pub fn first(&self) -> Option<&T>
Returns the first element of the slice, or None
if it is empty.
Examples
let v = [10, 40, 30]; assert_eq!(Some(&10), v.first()); let w: &[i32] = &[]; assert_eq!(None, w.first());
pub fn first_mut(&mut self) -> Option<&mut T>
1.0.0[src]
pub fn first_mut(&mut self) -> Option<&mut T>
Returns a mutable pointer to the first element of the slice, or None
if it is empty.
Examples
let x = &mut [0, 1, 2]; if let Some(first) = x.first_mut() { *first = 5; } assert_eq!(x, &[5, 1, 2]);
pub fn split_first(&self) -> Option<(&T, &[T])>
1.5.0[src]
pub fn split_first(&self) -> Option<(&T, &[T])>
Returns the first and all the rest of the elements of the slice, or None
if it is empty.
Examples
let x = &[0, 1, 2]; if let Some((first, elements)) = x.split_first() { assert_eq!(first, &0); assert_eq!(elements, &[1, 2]); }
pub fn split_first_mut(&mut self) -> Option<(&mut T, &mut [T])>
1.5.0[src]
pub fn split_first_mut(&mut self) -> Option<(&mut T, &mut [T])>
Returns the first and all the rest of the elements of the slice, or None
if it is empty.
Examples
let x = &mut [0, 1, 2]; if let Some((first, elements)) = x.split_first_mut() { *first = 3; elements[0] = 4; elements[1] = 5; } assert_eq!(x, &[3, 4, 5]);
pub fn split_last(&self) -> Option<(&T, &[T])>
1.5.0[src]
pub fn split_last(&self) -> Option<(&T, &[T])>
Returns the last and all the rest of the elements of the slice, or None
if it is empty.
Examples
let x = &[0, 1, 2]; if let Some((last, elements)) = x.split_last() { assert_eq!(last, &2); assert_eq!(elements, &[0, 1]); }
pub fn split_last_mut(&mut self) -> Option<(&mut T, &mut [T])>
1.5.0[src]
pub fn split_last_mut(&mut self) -> Option<(&mut T, &mut [T])>
Returns the last and all the rest of the elements of the slice, or None
if it is empty.
Examples
let x = &mut [0, 1, 2]; if let Some((last, elements)) = x.split_last_mut() { *last = 3; elements[0] = 4; elements[1] = 5; } assert_eq!(x, &[4, 5, 3]);
pub fn last(&self) -> Option<&T>
1.0.0[src]
pub fn last(&self) -> Option<&T>
Returns the last element of the slice, or None
if it is empty.
Examples
let v = [10, 40, 30]; assert_eq!(Some(&30), v.last()); let w: &[i32] = &[]; assert_eq!(None, w.last());
pub fn last_mut(&mut self) -> Option<&mut T>
1.0.0[src]
pub fn last_mut(&mut self) -> Option<&mut T>
Returns a mutable pointer to the last item in the slice.
Examples
let x = &mut [0, 1, 2]; if let Some(last) = x.last_mut() { *last = 10; } assert_eq!(x, &[0, 1, 10]);
pub fn get<I>(&self, index: I) -> Option<&<I as SliceIndex<[T]>>::Output> where
I: SliceIndex<[T]>,
1.0.0[src]
pub fn get<I>(&self, index: I) -> Option<&<I as SliceIndex<[T]>>::Output> where
I: SliceIndex<[T]>,
Returns a reference to an element or subslice depending on the type of index.
- If given a position, returns a reference to the element at that
position or
None
if out of bounds. - If given a range, returns the subslice corresponding to that range,
or
None
if out of bounds.
Examples
let v = [10, 40, 30]; assert_eq!(Some(&40), v.get(1)); assert_eq!(Some(&[10, 40][..]), v.get(0..2)); assert_eq!(None, v.get(3)); assert_eq!(None, v.get(0..4));
pub fn get_mut<I>(
&mut self,
index: I
) -> Option<&mut <I as SliceIndex<[T]>>::Output> where
I: SliceIndex<[T]>,
1.0.0[src]
pub fn get_mut<I>(
&mut self,
index: I
) -> Option<&mut <I as SliceIndex<[T]>>::Output> where
I: SliceIndex<[T]>,
Returns a mutable reference to an element or subslice depending on the
type of index (see get
) or None
if the index is out of bounds.
Examples
let x = &mut [0, 1, 2]; if let Some(elem) = x.get_mut(1) { *elem = 42; } assert_eq!(x, &[0, 42, 2]);
pub unsafe fn get_unchecked<I>(
&self,
index: I
) -> &<I as SliceIndex<[T]>>::Output where
I: SliceIndex<[T]>,
1.0.0[src]
pub unsafe fn get_unchecked<I>(
&self,
index: I
) -> &<I as SliceIndex<[T]>>::Output where
I: SliceIndex<[T]>,
Returns a reference to an element or subslice, without doing bounds checking.
This is generally not recommended, use with caution! For a safe
alternative see get
.
Examples
let x = &[1, 2, 4]; unsafe { assert_eq!(x.get_unchecked(1), &2); }
pub unsafe fn get_unchecked_mut<I>(
&mut self,
index: I
) -> &mut <I as SliceIndex<[T]>>::Output where
I: SliceIndex<[T]>,
1.0.0[src]
pub unsafe fn get_unchecked_mut<I>(
&mut self,
index: I
) -> &mut <I as SliceIndex<[T]>>::Output where
I: SliceIndex<[T]>,
Returns a mutable reference to an element or subslice, without doing bounds checking.
This is generally not recommended, use with caution! For a safe
alternative see get_mut
.
Examples
let x = &mut [1, 2, 4]; unsafe { let elem = x.get_unchecked_mut(1); *elem = 13; } assert_eq!(x, &[1, 13, 4]);
pub const fn as_ptr(&self) -> *const T
1.0.0[src]
pub const fn as_ptr(&self) -> *const T
Returns a raw pointer to the slice's buffer.
The caller must ensure that the slice outlives the pointer this function returns, or else it will end up pointing to garbage.
Modifying the container referenced by this slice may cause its buffer to be reallocated, which would also make any pointers to it invalid.
Examples
let x = &[1, 2, 4]; let x_ptr = x.as_ptr(); unsafe { for i in 0..x.len() { assert_eq!(x.get_unchecked(i), &*x_ptr.offset(i as isize)); } }
pub fn as_mut_ptr(&mut self) -> *mut T
1.0.0[src]
pub fn as_mut_ptr(&mut self) -> *mut T
Returns an unsafe mutable pointer to the slice's buffer.
The caller must ensure that the slice outlives the pointer this function returns, or else it will end up pointing to garbage.
Modifying the container referenced by this slice may cause its buffer to be reallocated, which would also make any pointers to it invalid.
Examples
let x = &mut [1, 2, 4]; let x_ptr = x.as_mut_ptr(); unsafe { for i in 0..x.len() { *x_ptr.offset(i as isize) += 2; } } assert_eq!(x, &[3, 4, 6]);
pub fn swap(&mut self, a: usize, b: usize)
1.0.0[src]
pub fn swap(&mut self, a: usize, b: usize)
Swaps two elements in the slice.
Arguments
- a - The index of the first element
- b - The index of the second element
Panics
Panics if a
or b
are out of bounds.
Examples
let mut v = ["a", "b", "c", "d"]; v.swap(1, 3); assert!(v == ["a", "d", "c", "b"]);
pub fn reverse(&mut self)
1.0.0[src]
pub fn reverse(&mut self)
Reverses the order of elements in the slice, in place.
Examples
let mut v = [1, 2, 3]; v.reverse(); assert!(v == [3, 2, 1]);
ⓘImportant traits for Iter<'a, T>pub fn iter(&self) -> Iter<T>
1.0.0[src]
pub fn iter(&self) -> Iter<T>
Returns an iterator over the slice.
Examples
let x = &[1, 2, 4]; let mut iterator = x.iter(); assert_eq!(iterator.next(), Some(&1)); assert_eq!(iterator.next(), Some(&2)); assert_eq!(iterator.next(), Some(&4)); assert_eq!(iterator.next(), None);
ⓘImportant traits for IterMut<'a, T>pub fn iter_mut(&mut self) -> IterMut<T>
1.0.0[src]
pub fn iter_mut(&mut self) -> IterMut<T>
Returns an iterator that allows modifying each value.
Examples
let x = &mut [1, 2, 4]; for elem in x.iter_mut() { *elem += 2; } assert_eq!(x, &[3, 4, 6]);
ⓘImportant traits for Windows<'a, T>pub fn windows(&self, size: usize) -> Windows<T>
1.0.0[src]
pub fn windows(&self, size: usize) -> Windows<T>
Returns an iterator over all contiguous windows of length
size
. The windows overlap. If the slice is shorter than
size
, the iterator returns no values.
Panics
Panics if size
is 0.
Examples
let slice = ['r', 'u', 's', 't']; let mut iter = slice.windows(2); assert_eq!(iter.next().unwrap(), &['r', 'u']); assert_eq!(iter.next().unwrap(), &['u', 's']); assert_eq!(iter.next().unwrap(), &['s', 't']); assert!(iter.next().is_none());
If the slice is shorter than size
:
let slice = ['f', 'o', 'o']; let mut iter = slice.windows(4); assert!(iter.next().is_none());
ⓘImportant traits for Chunks<'a, T>pub fn chunks(&self, chunk_size: usize) -> Chunks<T>
1.0.0[src]
pub fn chunks(&self, chunk_size: usize) -> Chunks<T>
Returns an iterator over chunk_size
elements of the slice at a
time. The chunks are slices and do not overlap. If chunk_size
does
not divide the length of the slice, then the last chunk will
not have length chunk_size
.
See exact_chunks
for a variant of this iterator that returns chunks
of always exactly chunk_size
elements.
Panics
Panics if chunk_size
is 0.
Examples
let slice = ['l', 'o', 'r', 'e', 'm']; let mut iter = slice.chunks(2); assert_eq!(iter.next().unwrap(), &['l', 'o']); assert_eq!(iter.next().unwrap(), &['r', 'e']); assert_eq!(iter.next().unwrap(), &['m']); assert!(iter.next().is_none());
ⓘImportant traits for ExactChunks<'a, T>pub fn exact_chunks(&self, chunk_size: usize) -> ExactChunks<T>
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pub fn exact_chunks(&self, chunk_size: usize) -> ExactChunks<T>
exact_chunks
)Returns an iterator over chunk_size
elements of the slice at a
time. The chunks are slices and do not overlap. If chunk_size
does
not divide the length of the slice, then the last up to chunk_size-1
elements will be omitted.
Due to each chunk having exactly chunk_size
elements, the compiler
can often optimize the resulting code better than in the case of
chunks
.
Panics
Panics if chunk_size
is 0.
Examples
#![feature(exact_chunks)] let slice = ['l', 'o', 'r', 'e', 'm']; let mut iter = slice.exact_chunks(2); assert_eq!(iter.next().unwrap(), &['l', 'o']); assert_eq!(iter.next().unwrap(), &['r', 'e']); assert!(iter.next().is_none());
ⓘImportant traits for ChunksMut<'a, T>pub fn chunks_mut(&mut self, chunk_size: usize) -> ChunksMut<T>
1.0.0[src]
pub fn chunks_mut(&mut self, chunk_size: usize) -> ChunksMut<T>
Returns an iterator over chunk_size
elements of the slice at a time.
The chunks are mutable slices, and do not overlap. If chunk_size
does
not divide the length of the slice, then the last chunk will not
have length chunk_size
.
See exact_chunks_mut
for a variant of this iterator that returns chunks
of always exactly chunk_size
elements.
Panics
Panics if chunk_size
is 0.
Examples
let v = &mut [0, 0, 0, 0, 0]; let mut count = 1; for chunk in v.chunks_mut(2) { for elem in chunk.iter_mut() { *elem += count; } count += 1; } assert_eq!(v, &[1, 1, 2, 2, 3]);
ⓘImportant traits for ExactChunksMut<'a, T>pub fn exact_chunks_mut(&mut self, chunk_size: usize) -> ExactChunksMut<T>
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pub fn exact_chunks_mut(&mut self, chunk_size: usize) -> ExactChunksMut<T>
exact_chunks
)Returns an iterator over chunk_size
elements of the slice at a time.
The chunks are mutable slices, and do not overlap. If chunk_size
does
not divide the length of the slice, then the last up to chunk_size-1
elements will be omitted.
Due to each chunk having exactly chunk_size
elements, the compiler
can often optimize the resulting code better than in the case of
chunks_mut
.
Panics
Panics if chunk_size
is 0.
Examples
#![feature(exact_chunks)] let v = &mut [0, 0, 0, 0, 0]; let mut count = 1; for chunk in v.exact_chunks_mut(2) { for elem in chunk.iter_mut() { *elem += count; } count += 1; } assert_eq!(v, &[1, 1, 2, 2, 0]);
pub fn split_at(&self, mid: usize) -> (&[T], &[T])
1.0.0[src]
pub fn split_at(&self, mid: usize) -> (&[T], &[T])
Divides one slice into two at an index.
The first will contain all indices from [0, mid)
(excluding
the index mid
itself) and the second will contain all
indices from [mid, len)
(excluding the index len
itself).
Panics
Panics if mid > len
.
Examples
let v = [1, 2, 3, 4, 5, 6]; { let (left, right) = v.split_at(0); assert!(left == []); assert!(right == [1, 2, 3, 4, 5, 6]); } { let (left, right) = v.split_at(2); assert!(left == [1, 2]); assert!(right == [3, 4, 5, 6]); } { let (left, right) = v.split_at(6); assert!(left == [1, 2, 3, 4, 5, 6]); assert!(right == []); }
pub fn split_at_mut(&mut self, mid: usize) -> (&mut [T], &mut [T])
1.0.0[src]
pub fn split_at_mut(&mut self, mid: usize) -> (&mut [T], &mut [T])
Divides one mutable slice into two at an index.
The first will contain all indices from [0, mid)
(excluding
the index mid
itself) and the second will contain all
indices from [mid, len)
(excluding the index len
itself).
Panics
Panics if mid > len
.
Examples
let mut v = [1, 0, 3, 0, 5, 6]; // scoped to restrict the lifetime of the borrows { let (left, right) = v.split_at_mut(2); assert!(left == [1, 0]); assert!(right == [3, 0, 5, 6]); left[1] = 2; right[1] = 4; } assert!(v == [1, 2, 3, 4, 5, 6]);
ⓘImportant traits for Split<'a, T, P>pub fn split<F>(&self, pred: F) -> Split<T, F> where
F: FnMut(&T) -> bool,
1.0.0[src]
pub fn split<F>(&self, pred: F) -> Split<T, F> where
F: FnMut(&T) -> bool,
Returns an iterator over subslices separated by elements that match
pred
. The matched element is not contained in the subslices.
Examples
let slice = [10, 40, 33, 20]; let mut iter = slice.split(|num| num % 3 == 0); assert_eq!(iter.next().unwrap(), &[10, 40]); assert_eq!(iter.next().unwrap(), &[20]); assert!(iter.next().is_none());
If the first element is matched, an empty slice will be the first item returned by the iterator. Similarly, if the last element in the slice is matched, an empty slice will be the last item returned by the iterator:
let slice = [10, 40, 33]; let mut iter = slice.split(|num| num % 3 == 0); assert_eq!(iter.next().unwrap(), &[10, 40]); assert_eq!(iter.next().unwrap(), &[]); assert!(iter.next().is_none());
If two matched elements are directly adjacent, an empty slice will be present between them:
let slice = [10, 6, 33, 20]; let mut iter = slice.split(|num| num % 3 == 0); assert_eq!(iter.next().unwrap(), &[10]); assert_eq!(iter.next().unwrap(), &[]); assert_eq!(iter.next().unwrap(), &[20]); assert!(iter.next().is_none());
ⓘImportant traits for SplitMut<'a, T, P>pub fn split_mut<F>(&mut self, pred: F) -> SplitMut<T, F> where
F: FnMut(&T) -> bool,
1.0.0[src]
pub fn split_mut<F>(&mut self, pred: F) -> SplitMut<T, F> where
F: FnMut(&T) -> bool,
Returns an iterator over mutable subslices separated by elements that
match pred
. The matched element is not contained in the subslices.
Examples
let mut v = [10, 40, 30, 20, 60, 50]; for group in v.split_mut(|num| *num % 3 == 0) { group[0] = 1; } assert_eq!(v, [1, 40, 30, 1, 60, 1]);
ⓘImportant traits for RSplit<'a, T, P>pub fn rsplit<F>(&self, pred: F) -> RSplit<T, F> where
F: FnMut(&T) -> bool,
1.27.0[src]
pub fn rsplit<F>(&self, pred: F) -> RSplit<T, F> where
F: FnMut(&T) -> bool,
Returns an iterator over subslices separated by elements that match
pred
, starting at the end of the slice and working backwards.
The matched element is not contained in the subslices.
Examples
let slice = [11, 22, 33, 0, 44, 55]; let mut iter = slice.rsplit(|num| *num == 0); assert_eq!(iter.next().unwrap(), &[44, 55]); assert_eq!(iter.next().unwrap(), &[11, 22, 33]); assert_eq!(iter.next(), None);
As with split()
, if the first or last element is matched, an empty
slice will be the first (or last) item returned by the iterator.
let v = &[0, 1, 1, 2, 3, 5, 8]; let mut it = v.rsplit(|n| *n % 2 == 0); assert_eq!(it.next().unwrap(), &[]); assert_eq!(it.next().unwrap(), &[3, 5]); assert_eq!(it.next().unwrap(), &[1, 1]); assert_eq!(it.next().unwrap(), &[]); assert_eq!(it.next(), None);
ⓘImportant traits for RSplitMut<'a, T, P>pub fn rsplit_mut<F>(&mut self, pred: F) -> RSplitMut<T, F> where
F: FnMut(&T) -> bool,
1.27.0[src]
pub fn rsplit_mut<F>(&mut self, pred: F) -> RSplitMut<T, F> where
F: FnMut(&T) -> bool,
Returns an iterator over mutable subslices separated by elements that
match pred
, starting at the end of the slice and working
backwards. The matched element is not contained in the subslices.
Examples
let mut v = [100, 400, 300, 200, 600, 500]; let mut count = 0; for group in v.rsplit_mut(|num| *num % 3 == 0) { count += 1; group[0] = count; } assert_eq!(v, [3, 400, 300, 2, 600, 1]);
ⓘImportant traits for SplitN<'a, T, P>pub fn splitn<F>(&self, n: usize, pred: F) -> SplitN<T, F> where
F: FnMut(&T) -> bool,
1.0.0[src]
pub fn splitn<F>(&self, n: usize, pred: F) -> SplitN<T, F> where
F: FnMut(&T) -> bool,
Returns an iterator over subslices separated by elements that match
pred
, limited to returning at most n
items. The matched element is
not contained in the subslices.
The last element returned, if any, will contain the remainder of the slice.
Examples
Print the slice split once by numbers divisible by 3 (i.e. [10, 40]
,
[20, 60, 50]
):
let v = [10, 40, 30, 20, 60, 50]; for group in v.splitn(2, |num| *num % 3 == 0) { println!("{:?}", group); }
ⓘImportant traits for SplitNMut<'a, T, P>pub fn splitn_mut<F>(&mut self, n: usize, pred: F) -> SplitNMut<T, F> where
F: FnMut(&T) -> bool,
1.0.0[src]
pub fn splitn_mut<F>(&mut self, n: usize, pred: F) -> SplitNMut<T, F> where
F: FnMut(&T) -> bool,
Returns an iterator over subslices separated by elements that match
pred
, limited to returning at most n
items. The matched element is
not contained in the subslices.
The last element returned, if any, will contain the remainder of the slice.
Examples
let mut v = [10, 40, 30, 20, 60, 50]; for group in v.splitn_mut(2, |num| *num % 3 == 0) { group[0] = 1; } assert_eq!(v, [1, 40, 30, 1, 60, 50]);
ⓘImportant traits for RSplitN<'a, T, P>pub fn rsplitn<F>(&self, n: usize, pred: F) -> RSplitN<T, F> where
F: FnMut(&T) -> bool,
1.0.0[src]
pub fn rsplitn<F>(&self, n: usize, pred: F) -> RSplitN<T, F> where
F: FnMut(&T) -> bool,
Returns an iterator over subslices separated by elements that match
pred
limited to returning at most n
items. This starts at the end of
the slice and works backwards. The matched element is not contained in
the subslices.
The last element returned, if any, will contain the remainder of the slice.
Examples
Print the slice split once, starting from the end, by numbers divisible
by 3 (i.e. [50]
, [10, 40, 30, 20]
):
let v = [10, 40, 30, 20, 60, 50]; for group in v.rsplitn(2, |num| *num % 3 == 0) { println!("{:?}", group); }
ⓘImportant traits for RSplitNMut<'a, T, P>pub fn rsplitn_mut<F>(&mut self, n: usize, pred: F) -> RSplitNMut<T, F> where
F: FnMut(&T) -> bool,
1.0.0[src]
pub fn rsplitn_mut<F>(&mut self, n: usize, pred: F) -> RSplitNMut<T, F> where
F: FnMut(&T) -> bool,
Returns an iterator over subslices separated by elements that match
pred
limited to returning at most n
items. This starts at the end of
the slice and works backwards. The matched element is not contained in
the subslices.
The last element returned, if any, will contain the remainder of the slice.
Examples
let mut s = [10, 40, 30, 20, 60, 50]; for group in s.rsplitn_mut(2, |num| *num % 3 == 0) { group[0] = 1; } assert_eq!(s, [1, 40, 30, 20, 60, 1]);
pub fn contains(&self, x: &T) -> bool where
T: PartialEq<T>,
1.0.0[src]
pub fn contains(&self, x: &T) -> bool where
T: PartialEq<T>,
Returns true
if the slice contains an element with the given value.
Examples
let v = [10, 40, 30]; assert!(v.contains(&30)); assert!(!v.contains(&50));
pub fn starts_with(&self, needle: &[T]) -> bool where
T: PartialEq<T>,
1.0.0[src]
pub fn starts_with(&self, needle: &[T]) -> bool where
T: PartialEq<T>,
Returns true
if needle
is a prefix of the slice.
Examples
let v = [10, 40, 30]; assert!(v.starts_with(&[10])); assert!(v.starts_with(&[10, 40])); assert!(!v.starts_with(&[50])); assert!(!v.starts_with(&[10, 50]));
Always returns true
if needle
is an empty slice:
let v = &[10, 40, 30]; assert!(v.starts_with(&[])); let v: &[u8] = &[]; assert!(v.starts_with(&[]));
pub fn ends_with(&self, needle: &[T]) -> bool where
T: PartialEq<T>,
1.0.0[src]
pub fn ends_with(&self, needle: &[T]) -> bool where
T: PartialEq<T>,
Returns true
if needle
is a suffix of the slice.
Examples
let v = [10, 40, 30]; assert!(v.ends_with(&[30])); assert!(v.ends_with(&[40, 30])); assert!(!v.ends_with(&[50])); assert!(!v.ends_with(&[50, 30]));
Always returns true
if needle
is an empty slice:
let v = &[10, 40, 30]; assert!(v.ends_with(&[])); let v: &[u8] = &[]; assert!(v.ends_with(&[]));
pub fn binary_search(&self, x: &T) -> Result<usize, usize> where
T: Ord,
1.0.0[src]
pub fn binary_search(&self, x: &T) -> Result<usize, usize> where
T: Ord,
Binary searches this sorted slice for a given element.
If the value is found then Ok
is returned, containing the
index of the matching element; if the value is not found then
Err
is returned, containing the index where a matching
element could be inserted while maintaining sorted order.
Examples
Looks up a series of four elements. The first is found, with a
uniquely determined position; the second and third are not
found; the fourth could match any position in [1, 4]
.
let s = [0, 1, 1, 1, 1, 2, 3, 5, 8, 13, 21, 34, 55]; assert_eq!(s.binary_search(&13), Ok(9)); assert_eq!(s.binary_search(&4), Err(7)); assert_eq!(s.binary_search(&100), Err(13)); let r = s.binary_search(&1); assert!(match r { Ok(1...4) => true, _ => false, });
pub fn binary_search_by<'a, F>(&'a self, f: F) -> Result<usize, usize> where
F: FnMut(&'a T) -> Ordering,
1.0.0[src]
pub fn binary_search_by<'a, F>(&'a self, f: F) -> Result<usize, usize> where
F: FnMut(&'a T) -> Ordering,
Binary searches this sorted slice with a comparator function.
The comparator function should implement an order consistent
with the sort order of the underlying slice, returning an
order code that indicates whether its argument is Less
,
Equal
or Greater
the desired target.
If a matching value is found then returns Ok
, containing
the index for the matched element; if no match is found then
Err
is returned, containing the index where a matching
element could be inserted while maintaining sorted order.
Examples
Looks up a series of four elements. The first is found, with a
uniquely determined position; the second and third are not
found; the fourth could match any position in [1, 4]
.
let s = [0, 1, 1, 1, 1, 2, 3, 5, 8, 13, 21, 34, 55]; let seek = 13; assert_eq!(s.binary_search_by(|probe| probe.cmp(&seek)), Ok(9)); let seek = 4; assert_eq!(s.binary_search_by(|probe| probe.cmp(&seek)), Err(7)); let seek = 100; assert_eq!(s.binary_search_by(|probe| probe.cmp(&seek)), Err(13)); let seek = 1; let r = s.binary_search_by(|probe| probe.cmp(&seek)); assert!(match r { Ok(1...4) => true, _ => false, });
pub fn binary_search_by_key<'a, B, F>(
&'a self,
b: &B,
f: F
) -> Result<usize, usize> where
B: Ord,
F: FnMut(&'a T) -> B,
1.10.0[src]
pub fn binary_search_by_key<'a, B, F>(
&'a self,
b: &B,
f: F
) -> Result<usize, usize> where
B: Ord,
F: FnMut(&'a T) -> B,
Binary searches this sorted slice with a key extraction function.
Assumes that the slice is sorted by the key, for instance with
sort_by_key
using the same key extraction function.
If a matching value is found then returns Ok
, containing the
index for the matched element; if no match is found then Err
is returned, containing the index where a matching element could
be inserted while maintaining sorted order.
Examples
Looks up a series of four elements in a slice of pairs sorted by
their second elements. The first is found, with a uniquely
determined position; the second and third are not found; the
fourth could match any position in [1, 4]
.
let s = [(0, 0), (2, 1), (4, 1), (5, 1), (3, 1), (1, 2), (2, 3), (4, 5), (5, 8), (3, 13), (1, 21), (2, 34), (4, 55)]; assert_eq!(s.binary_search_by_key(&13, |&(a,b)| b), Ok(9)); assert_eq!(s.binary_search_by_key(&4, |&(a,b)| b), Err(7)); assert_eq!(s.binary_search_by_key(&100, |&(a,b)| b), Err(13)); let r = s.binary_search_by_key(&1, |&(a,b)| b); assert!(match r { Ok(1...4) => true, _ => false, });
pub fn sort_unstable(&mut self) where
T: Ord,
1.20.0[src]
pub fn sort_unstable(&mut self) where
T: Ord,
Sorts the slice, but may not preserve the order of equal elements.
This sort is unstable (i.e. may reorder equal elements), in-place (i.e. does not allocate),
and O(n log n)
worst-case.
Current implementation
The current algorithm is based on pattern-defeating quicksort by Orson Peters, which combines the fast average case of randomized quicksort with the fast worst case of heapsort, while achieving linear time on slices with certain patterns. It uses some randomization to avoid degenerate cases, but with a fixed seed to always provide deterministic behavior.
It is typically faster than stable sorting, except in a few special cases, e.g. when the slice consists of several concatenated sorted sequences.
Examples
let mut v = [-5, 4, 1, -3, 2]; v.sort_unstable(); assert!(v == [-5, -3, 1, 2, 4]);
pub fn sort_unstable_by<F>(&mut self, compare: F) where
F: FnMut(&T, &T) -> Ordering,
1.20.0[src]
pub fn sort_unstable_by<F>(&mut self, compare: F) where
F: FnMut(&T, &T) -> Ordering,
Sorts the slice with a comparator function, but may not preserve the order of equal elements.
This sort is unstable (i.e. may reorder equal elements), in-place (i.e. does not allocate),
and O(n log n)
worst-case.
Current implementation
The current algorithm is based on pattern-defeating quicksort by Orson Peters, which combines the fast average case of randomized quicksort with the fast worst case of heapsort, while achieving linear time on slices with certain patterns. It uses some randomization to avoid degenerate cases, but with a fixed seed to always provide deterministic behavior.
It is typically faster than stable sorting, except in a few special cases, e.g. when the slice consists of several concatenated sorted sequences.
Examples
let mut v = [5, 4, 1, 3, 2]; v.sort_unstable_by(|a, b| a.cmp(b)); assert!(v == [1, 2, 3, 4, 5]); // reverse sorting v.sort_unstable_by(|a, b| b.cmp(a)); assert!(v == [5, 4, 3, 2, 1]);
pub fn sort_unstable_by_key<K, F>(&mut self, f: F) where
F: FnMut(&T) -> K,
K: Ord,
1.20.0[src]
pub fn sort_unstable_by_key<K, F>(&mut self, f: F) where
F: FnMut(&T) -> K,
K: Ord,
Sorts the slice with a key extraction function, but may not preserve the order of equal elements.
This sort is unstable (i.e. may reorder equal elements), in-place (i.e. does not allocate),
and O(m n log(m n))
worst-case, where the key function is O(m)
.
Current implementation
The current algorithm is based on pattern-defeating quicksort by Orson Peters, which combines the fast average case of randomized quicksort with the fast worst case of heapsort, while achieving linear time on slices with certain patterns. It uses some randomization to avoid degenerate cases, but with a fixed seed to always provide deterministic behavior.
Examples
let mut v = [-5i32, 4, 1, -3, 2]; v.sort_unstable_by_key(|k| k.abs()); assert!(v == [1, 2, -3, 4, -5]);
pub fn rotate_left(&mut self, mid: usize)
1.26.0[src]
pub fn rotate_left(&mut self, mid: usize)
Rotates the slice in-place such that the first mid
elements of the
slice move to the end while the last self.len() - mid
elements move to
the front. After calling rotate_left
, the element previously at index
mid
will become the first element in the slice.
Panics
This function will panic if mid
is greater than the length of the
slice. Note that mid == self.len()
does not panic and is a no-op
rotation.
Complexity
Takes linear (in self.len()
) time.
Examples
let mut a = ['a', 'b', 'c', 'd', 'e', 'f']; a.rotate_left(2); assert_eq!(a, ['c', 'd', 'e', 'f', 'a', 'b']);
Rotating a subslice:
let mut a = ['a', 'b', 'c', 'd', 'e', 'f']; a[1..5].rotate_left(1); assert_eq!(a, ['a', 'c', 'd', 'e', 'b', 'f']);
pub fn rotate_right(&mut self, k: usize)
1.26.0[src]
pub fn rotate_right(&mut self, k: usize)
Rotates the slice in-place such that the first self.len() - k
elements of the slice move to the end while the last k
elements move
to the front. After calling rotate_right
, the element previously at
index self.len() - k
will become the first element in the slice.
Panics
This function will panic if k
is greater than the length of the
slice. Note that k == self.len()
does not panic and is a no-op
rotation.
Complexity
Takes linear (in self.len()
) time.
Examples
let mut a = ['a', 'b', 'c', 'd', 'e', 'f']; a.rotate_right(2); assert_eq!(a, ['e', 'f', 'a', 'b', 'c', 'd']);
Rotate a subslice:
let mut a = ['a', 'b', 'c', 'd', 'e', 'f']; a[1..5].rotate_right(1); assert_eq!(a, ['a', 'e', 'b', 'c', 'd', 'f']);
pub fn clone_from_slice(&mut self, src: &[T]) where
T: Clone,
1.7.0[src]
pub fn clone_from_slice(&mut self, src: &[T]) where
T: Clone,
Copies the elements from src
into self
.
The length of src
must be the same as self
.
If src
implements Copy
, it can be more performant to use
copy_from_slice
.
Panics
This function will panic if the two slices have different lengths.
Examples
Cloning two elements from a slice into another:
let src = [1, 2, 3, 4]; let mut dst = [0, 0]; dst.clone_from_slice(&src[2..]); assert_eq!(src, [1, 2, 3, 4]); assert_eq!(dst, [3, 4]);
Rust enforces that there can only be one mutable reference with no
immutable references to a particular piece of data in a particular
scope. Because of this, attempting to use clone_from_slice
on a
single slice will result in a compile failure:
let mut slice = [1, 2, 3, 4, 5]; slice[..2].clone_from_slice(&slice[3..]); // compile fail!
To work around this, we can use split_at_mut
to create two distinct
sub-slices from a slice:
let mut slice = [1, 2, 3, 4, 5]; { let (left, right) = slice.split_at_mut(2); left.clone_from_slice(&right[1..]); } assert_eq!(slice, [4, 5, 3, 4, 5]);
pub fn copy_from_slice(&mut self, src: &[T]) where
T: Copy,
1.9.0[src]
pub fn copy_from_slice(&mut self, src: &[T]) where
T: Copy,
Copies all elements from src
into self
, using a memcpy.
The length of src
must be the same as self
.
If src
does not implement Copy
, use clone_from_slice
.
Panics
This function will panic if the two slices have different lengths.
Examples
Copying two elements from a slice into another:
let src = [1, 2, 3, 4]; let mut dst = [0, 0]; dst.copy_from_slice(&src[2..]); assert_eq!(src, [1, 2, 3, 4]); assert_eq!(dst, [3, 4]);
Rust enforces that there can only be one mutable reference with no
immutable references to a particular piece of data in a particular
scope. Because of this, attempting to use copy_from_slice
on a
single slice will result in a compile failure:
let mut slice = [1, 2, 3, 4, 5]; slice[..2].copy_from_slice(&slice[3..]); // compile fail!
To work around this, we can use split_at_mut
to create two distinct
sub-slices from a slice:
let mut slice = [1, 2, 3, 4, 5]; { let (left, right) = slice.split_at_mut(2); left.copy_from_slice(&right[1..]); } assert_eq!(slice, [4, 5, 3, 4, 5]);
pub fn swap_with_slice(&mut self, other: &mut [T])
1.27.0[src]
pub fn swap_with_slice(&mut self, other: &mut [T])
Swaps all elements in self
with those in other
.
The length of other
must be the same as self
.
Panics
This function will panic if the two slices have different lengths.
Example
Swapping two elements across slices:
let mut slice1 = [0, 0]; let mut slice2 = [1, 2, 3, 4]; slice1.swap_with_slice(&mut slice2[2..]); assert_eq!(slice1, [3, 4]); assert_eq!(slice2, [1, 2, 0, 0]);
Rust enforces that there can only be one mutable reference to a
particular piece of data in a particular scope. Because of this,
attempting to use swap_with_slice
on a single slice will result in
a compile failure:
let mut slice = [1, 2, 3, 4, 5]; slice[..2].swap_with_slice(&mut slice[3..]); // compile fail!
To work around this, we can use split_at_mut
to create two distinct
mutable sub-slices from a slice:
let mut slice = [1, 2, 3, 4, 5]; { let (left, right) = slice.split_at_mut(2); left.swap_with_slice(&mut right[1..]); } assert_eq!(slice, [4, 5, 3, 1, 2]);
pub unsafe fn align_to<U>(&self) -> (&[T], &[U], &[T])
[src]
pub unsafe fn align_to<U>(&self) -> (&[T], &[U], &[T])
slice_align_to
)Transmute the slice to a slice of another type, ensuring aligment of the types is maintained.
This method splits the slice into three distinct slices: prefix, correctly aligned middle slice of a new type, and the suffix slice. The middle slice will have the greatest length possible for a given type and input slice.
This method has no purpose when either input element T
or output element U
are
zero-sized and will return the original slice without splitting anything.
Unsafety
This method is essentially a transmute
with respect to the elements in the returned
middle slice, so all the usual caveats pertaining to transmute::<T, U>
also apply here.
Examples
Basic usage:
unsafe { let bytes: [u8; 7] = [1, 2, 3, 4, 5, 6, 7]; let (prefix, shorts, suffix) = bytes.align_to::<u16>(); // less_efficient_algorithm_for_bytes(prefix); // more_efficient_algorithm_for_aligned_shorts(shorts); // less_efficient_algorithm_for_bytes(suffix); }
pub unsafe fn align_to_mut<U>(&mut self) -> (&mut [T], &mut [U], &mut [T])
[src]
pub unsafe fn align_to_mut<U>(&mut self) -> (&mut [T], &mut [U], &mut [T])
slice_align_to
)Transmute the slice to a slice of another type, ensuring aligment of the types is maintained.
This method splits the slice into three distinct slices: prefix, correctly aligned middle slice of a new type, and the suffix slice. The middle slice will have the greatest length possible for a given type and input slice.
This method has no purpose when either input element T
or output element U
are
zero-sized and will return the original slice without splitting anything.
Unsafety
This method is essentially a transmute
with respect to the elements in the returned
middle slice, so all the usual caveats pertaining to transmute::<T, U>
also apply here.
Examples
Basic usage:
unsafe { let mut bytes: [u8; 7] = [1, 2, 3, 4, 5, 6, 7]; let (prefix, shorts, suffix) = bytes.align_to_mut::<u16>(); // less_efficient_algorithm_for_bytes(prefix); // more_efficient_algorithm_for_aligned_shorts(shorts); // less_efficient_algorithm_for_bytes(suffix); }
pub fn is_ascii(&self) -> bool
1.23.0[src]
pub fn is_ascii(&self) -> bool
Checks if all bytes in this slice are within the ASCII range.
pub fn eq_ignore_ascii_case(&self, other: &[u8]) -> bool
1.23.0[src]
pub fn eq_ignore_ascii_case(&self, other: &[u8]) -> bool
Checks that two slices are an ASCII case-insensitive match.
Same as to_ascii_lowercase(a) == to_ascii_lowercase(b)
,
but without allocating and copying temporaries.
pub fn make_ascii_uppercase(&mut self)
1.23.0[src]
pub fn make_ascii_uppercase(&mut self)
Converts this slice to its ASCII upper case equivalent in-place.
ASCII letters 'a' to 'z' are mapped to 'A' to 'Z', but non-ASCII letters are unchanged.
To return a new uppercased value without modifying the existing one, use
to_ascii_uppercase
.
pub fn make_ascii_lowercase(&mut self)
1.23.0[src]
pub fn make_ascii_lowercase(&mut self)
Converts this slice to its ASCII lower case equivalent in-place.
ASCII letters 'A' to 'Z' are mapped to 'a' to 'z', but non-ASCII letters are unchanged.
To return a new lowercased value without modifying the existing one, use
to_ascii_lowercase
.
pub fn sort(&mut self) where
T: Ord,
1.0.0[src]
pub fn sort(&mut self) where
T: Ord,
Sorts the slice.
This sort is stable (i.e. does not reorder equal elements) and O(n log n)
worst-case.
When applicable, unstable sorting is preferred because it is generally faster than stable
sorting and it doesn't allocate auxiliary memory.
See sort_unstable
.
Current implementation
The current algorithm is an adaptive, iterative merge sort inspired by timsort. It is designed to be very fast in cases where the slice is nearly sorted, or consists of two or more sorted sequences concatenated one after another.
Also, it allocates temporary storage half the size of self
, but for short slices a
non-allocating insertion sort is used instead.
Examples
let mut v = [-5, 4, 1, -3, 2]; v.sort(); assert!(v == [-5, -3, 1, 2, 4]);
pub fn sort_by<F>(&mut self, compare: F) where
F: FnMut(&T, &T) -> Ordering,
1.0.0[src]
pub fn sort_by<F>(&mut self, compare: F) where
F: FnMut(&T, &T) -> Ordering,
Sorts the slice with a comparator function.
This sort is stable (i.e. does not reorder equal elements) and O(n log n)
worst-case.
When applicable, unstable sorting is preferred because it is generally faster than stable
sorting and it doesn't allocate auxiliary memory.
See sort_unstable_by
.
Current implementation
The current algorithm is an adaptive, iterative merge sort inspired by timsort. It is designed to be very fast in cases where the slice is nearly sorted, or consists of two or more sorted sequences concatenated one after another.
Also, it allocates temporary storage half the size of self
, but for short slices a
non-allocating insertion sort is used instead.
Examples
let mut v = [5, 4, 1, 3, 2]; v.sort_by(|a, b| a.cmp(b)); assert!(v == [1, 2, 3, 4, 5]); // reverse sorting v.sort_by(|a, b| b.cmp(a)); assert!(v == [5, 4, 3, 2, 1]);
pub fn sort_by_key<K, F>(&mut self, f: F) where
F: FnMut(&T) -> K,
K: Ord,
1.7.0[src]
pub fn sort_by_key<K, F>(&mut self, f: F) where
F: FnMut(&T) -> K,
K: Ord,
Sorts the slice with a key extraction function.
This sort is stable (i.e. does not reorder equal elements) and O(m n log(m n))
worst-case, where the key function is O(m)
.
When applicable, unstable sorting is preferred because it is generally faster than stable
sorting and it doesn't allocate auxiliary memory.
See sort_unstable_by_key
.
Current implementation
The current algorithm is an adaptive, iterative merge sort inspired by timsort. It is designed to be very fast in cases where the slice is nearly sorted, or consists of two or more sorted sequences concatenated one after another.
Also, it allocates temporary storage half the size of self
, but for short slices a
non-allocating insertion sort is used instead.
Examples
let mut v = [-5i32, 4, 1, -3, 2]; v.sort_by_key(|k| k.abs()); assert!(v == [1, 2, -3, 4, -5]);
pub fn sort_by_cached_key<K, F>(&mut self, f: F) where
F: FnMut(&T) -> K,
K: Ord,
[src]
pub fn sort_by_cached_key<K, F>(&mut self, f: F) where
F: FnMut(&T) -> K,
K: Ord,
slice_sort_by_cached_key
)Sorts the slice with a key extraction function.
During sorting, the key function is called only once per element.
This sort is stable (i.e. does not reorder equal elements) and O(m n + n log n)
worst-case, where the key function is O(m)
.
For simple key functions (e.g. functions that are property accesses or
basic operations), sort_by_key
is likely to be
faster.
Current implementation
The current algorithm is based on pattern-defeating quicksort by Orson Peters, which combines the fast average case of randomized quicksort with the fast worst case of heapsort, while achieving linear time on slices with certain patterns. It uses some randomization to avoid degenerate cases, but with a fixed seed to always provide deterministic behavior.
In the worst case, the algorithm allocates temporary storage in a Vec<(K, usize)>
the
length of the slice.
Examples
#![feature(slice_sort_by_cached_key)] let mut v = [-5i32, 4, 32, -3, 2]; v.sort_by_cached_key(|k| k.to_string()); assert!(v == [-3, -5, 2, 32, 4]);
pub fn to_vec(&self) -> Vec<T> where
T: Clone,
1.0.0[src]
pub fn to_vec(&self) -> Vec<T> where
T: Clone,
Copies self
into a new Vec
.
Examples
let s = [10, 40, 30]; let x = s.to_vec(); // Here, `s` and `x` can be modified independently.
pub fn repeat(&self, n: usize) -> Vec<T> where
T: Copy,
[src]
pub fn repeat(&self, n: usize) -> Vec<T> where
T: Copy,
🔬 This is a nightly-only experimental API. (repeat_generic_slice
)
it's on str, why not on slice?
Creates a vector by repeating a slice n
times.
Examples
Basic usage:
#![feature(repeat_generic_slice)] fn main() { assert_eq!([1, 2].repeat(3), vec![1, 2, 1, 2, 1, 2]); }
pub fn to_ascii_uppercase(&self) -> Vec<u8>
1.23.0[src]
pub fn to_ascii_uppercase(&self) -> Vec<u8>
Returns a vector containing a copy of this slice where each byte is mapped to its ASCII upper case equivalent.
ASCII letters 'a' to 'z' are mapped to 'A' to 'Z', but non-ASCII letters are unchanged.
To uppercase the value in-place, use make_ascii_uppercase
.
pub fn to_ascii_lowercase(&self) -> Vec<u8>
1.23.0[src]
pub fn to_ascii_lowercase(&self) -> Vec<u8>
Returns a vector containing a copy of this slice where each byte is mapped to its ASCII lower case equivalent.
ASCII letters 'A' to 'Z' are mapped to 'a' to 'z', but non-ASCII letters are unchanged.
To lowercase the value in-place, use make_ascii_lowercase
.
Trait Implementations
impl<D> IndexMut<usize> for SnapshotVec<D> where
D: SnapshotVecDelegate,
[src]
impl<D> IndexMut<usize> for SnapshotVec<D> where
D: SnapshotVecDelegate,
fn index_mut(&mut self, index: usize) -> &mut <D as SnapshotVecDelegate>::Value
[src]
fn index_mut(&mut self, index: usize) -> &mut <D as SnapshotVecDelegate>::Value
Performs the mutable indexing (container[index]
) operation.
impl<D> Index<usize> for SnapshotVec<D> where
D: SnapshotVecDelegate,
[src]
impl<D> Index<usize> for SnapshotVec<D> where
D: SnapshotVecDelegate,
type Output = <D as SnapshotVecDelegate>::Value
The returned type after indexing.
fn index(&self, index: usize) -> &<D as SnapshotVecDelegate>::Value
[src]
fn index(&self, index: usize) -> &<D as SnapshotVecDelegate>::Value
Performs the indexing (container[index]
) operation.
impl<D> Extend<<D as SnapshotVecDelegate>::Value> for SnapshotVec<D> where
D: SnapshotVecDelegate,
[src]
impl<D> Extend<<D as SnapshotVecDelegate>::Value> for SnapshotVec<D> where
D: SnapshotVecDelegate,
fn extend<T>(&mut self, iterable: T) where
T: IntoIterator<Item = <D as SnapshotVecDelegate>::Value>,
[src]
fn extend<T>(&mut self, iterable: T) where
T: IntoIterator<Item = <D as SnapshotVecDelegate>::Value>,
Extends a collection with the contents of an iterator. Read more
impl<D> DerefMut for SnapshotVec<D> where
D: SnapshotVecDelegate,
[src]
impl<D> DerefMut for SnapshotVec<D> where
D: SnapshotVecDelegate,
fn deref_mut(&mut self) -> &mut [<D as SnapshotVecDelegate>::Value]
[src]
fn deref_mut(&mut self) -> &mut [<D as SnapshotVecDelegate>::Value]
Mutably dereferences the value.
impl<D> Clone for SnapshotVec<D> where
D: SnapshotVecDelegate,
<D as SnapshotVecDelegate>::Value: Clone,
<D as SnapshotVecDelegate>::Undo: Clone,
[src]
impl<D> Clone for SnapshotVec<D> where
D: SnapshotVecDelegate,
<D as SnapshotVecDelegate>::Value: Clone,
<D as SnapshotVecDelegate>::Undo: Clone,
fn clone(&self) -> SnapshotVec<D>
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fn clone(&self) -> SnapshotVec<D>
Returns a copy of the value. Read more
fn clone_from(&mut self, source: &Self)
1.0.0[src]
fn clone_from(&mut self, source: &Self)
Performs copy-assignment from source
. Read more
impl<D> Debug for SnapshotVec<D> where
D: SnapshotVecDelegate + Debug,
<D as SnapshotVecDelegate>::Undo: Debug,
<D as SnapshotVecDelegate>::Value: Debug,
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impl<D> Debug for SnapshotVec<D> where
D: SnapshotVecDelegate + Debug,
<D as SnapshotVecDelegate>::Undo: Debug,
<D as SnapshotVecDelegate>::Value: Debug,
fn fmt(&self, fmt: &mut Formatter) -> Result<(), Error>
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fn fmt(&self, fmt: &mut Formatter) -> Result<(), Error>
Formats the value using the given formatter. Read more
impl<D> Deref for SnapshotVec<D> where
D: SnapshotVecDelegate,
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impl<D> Deref for SnapshotVec<D> where
D: SnapshotVecDelegate,
Auto Trait Implementations
impl<D> Send for SnapshotVec<D> where
<D as SnapshotVecDelegate>::Undo: Send,
<D as SnapshotVecDelegate>::Value: Send,
impl<D> Send for SnapshotVec<D> where
<D as SnapshotVecDelegate>::Undo: Send,
<D as SnapshotVecDelegate>::Value: Send,
impl<D> Sync for SnapshotVec<D> where
<D as SnapshotVecDelegate>::Undo: Sync,
<D as SnapshotVecDelegate>::Value: Sync,
impl<D> Sync for SnapshotVec<D> where
<D as SnapshotVecDelegate>::Undo: Sync,
<D as SnapshotVecDelegate>::Value: Sync,