/// b: u32,
/// }
///
-/// // Create a ref-counted instance of `Example`.
+/// // Create a refcounted instance of `Example`.
/// let obj = Arc::try_new(Example { a: 10, b: 20 })?;
///
/// // Get a new pointer to `obj` and increment the refcount.
/// # test().unwrap();
/// ```
///
-/// In the following example we first allocate memory for a ref-counted `Example` but we don't
+/// In the following example we first allocate memory for a refcounted `Example` but we don't
/// initialise it on allocation. We do initialise it later with a call to [`UniqueArc::write`],
/// followed by a conversion to `Arc<Example>`. This is particularly useful when allocation happens
/// in one context (e.g., sleepable) and initialisation in another (e.g., atomic):
/// Tries to allocate a new [`UniqueArc`] instance.
pub fn try_new(value: T) -> Result<Self, AllocError> {
Ok(Self {
- // INVARIANT: The newly-created object has a ref-count of 1.
+ // INVARIANT: The newly-created object has a refcount of 1.
inner: Arc::try_new(value)?,
})
}
data <- init::uninit::<T, AllocError>(),
}? AllocError))?;
Ok(UniqueArc {
- // INVARIANT: The newly-created object has a ref-count of 1.
+ // INVARIANT: The newly-created object has a refcount of 1.
// SAFETY: The pointer from the `Box` is valid.
inner: unsafe { Arc::from_inner(Box::leak(inner).into()) },
})
///
/// All instances are valid tasks created by the C portion of the kernel.
///
-/// Instances of this type are always ref-counted, that is, a call to `get_task_struct` ensures
+/// Instances of this type are always refcounted, that is, a call to `get_task_struct` ensures
/// that the allocation remains valid at least until the matching call to `put_task_struct`.
///
/// # Examples
}
}
-// SAFETY: The type invariants guarantee that `Task` is always ref-counted.
+// SAFETY: The type invariants guarantee that `Task` is always refcounted.
unsafe impl crate::types::AlwaysRefCounted for Task {
fn inc_ref(&self) {
// SAFETY: The existence of a shared reference means that the refcount is nonzero.