//! [`GenDiskBuilder`]: gen_disk::GenDiskBuilder
//! [`GenDiskBuilder::build`]: gen_disk::GenDiskBuilder::build
//!
-//! # Example
+//! # Examples
//!
//! ```rust
//! use kernel::{
///
/// Represents a frequency in hertz, wrapping a [`c_ulong`] value.
///
-/// ## Examples
+/// # Examples
///
/// ```
/// use kernel::clk::Hertz;
/// Instances of this type are reference-counted. Calling [`Clk::get`] ensures that the
/// allocation remains valid for the lifetime of the [`Clk`].
///
- /// ## Examples
+ /// # Examples
///
/// The following example demonstrates how to obtain and configure a clock for a device.
///
/// Instances of this type are reference-counted. Calling [`OptionalClk::get`] ensures that the
/// allocation remains valid for the lifetime of the [`OptionalClk`].
///
- /// ## Examples
+ /// # Examples
///
/// The following example demonstrates how to obtain and configure an optional clock for a
/// device. The code functions correctly whether or not the clock is available.
//!
//! C header: [`include/linux/configfs.h`](srctree/include/linux/configfs.h)
//!
-//! # Example
+//! # Examples
//!
//! ```ignore
//! use kernel::alloc::flags;
/// The callers must ensure that the `struct cpufreq_frequency_table` is valid for access and
/// remains valid for the lifetime of the returned reference.
///
-/// ## Examples
+/// # Examples
///
/// The following example demonstrates how to read a frequency value from [`Table`].
///
///
/// This is used by the CPU frequency drivers to build a frequency table dynamically.
///
-/// ## Examples
+/// # Examples
///
/// The following example demonstrates how to create a CPU frequency table.
///
/// The callers must ensure that the `struct cpufreq_policy` is valid for access and remains valid
/// for the lifetime of the returned reference.
///
-/// ## Examples
+/// # Examples
///
/// The following example demonstrates how to create a CPU frequency table.
///
/// CPU frequency driver Registration.
///
-/// ## Examples
+/// # Examples
///
/// The following example demonstrates how to register a cpufreq driver.
///
/// The callers must ensure that the `struct cpumask` is valid for access and
/// remains valid for the lifetime of the returned reference.
///
-/// ## Examples
+/// # Examples
///
/// The following example demonstrates how to update a [`Cpumask`].
///
/// The callers must ensure that the `struct cpumask_var_t` is valid for access and remains valid
/// for the lifetime of [`CpumaskVar`].
///
-/// ## Examples
+/// # Examples
///
/// The following example demonstrates how to create and update a [`CpumaskVar`].
///
/// [`Devres`] users should make sure to simply free the corresponding backing resource in `T`'s
/// [`Drop`] implementation.
///
-/// # Example
+/// # Examples
///
/// ```no_run
/// # use kernel::{bindings, c_str, device::{Bound, Device}, devres::Devres, io::{Io, IoRaw}};
/// An error is returned if `dev` does not match the same [`Device`] this [`Devres`] instance
/// has been created with.
///
- /// # Example
+ /// # Examples
///
/// ```no_run
/// # #![cfg(CONFIG_PCI)]
/// Typically, such contracts would be enforced by a trait, however traits do not (yet) support
/// const functions.
///
-/// # Example
+/// # Examples
///
/// ```
/// # mod module_firmware_test {
/// Append path components to the [`ModInfoBuilder`] instance. Paths need to be separated
/// with [`ModInfoBuilder::new_entry`].
///
- /// # Example
+ /// # Examples
///
/// ```
/// use kernel::firmware::ModInfoBuilder;
///
/// Represents voltage in microvolts, wrapping a [`c_ulong`] value.
///
-/// ## Examples
+/// # Examples
///
/// ```
/// use kernel::opp::MicroVolt;
///
/// Represents power in microwatts, wrapping a [`c_ulong`] value.
///
-/// ## Examples
+/// # Examples
///
/// ```
/// use kernel::opp::MicroWatt;
///
/// The associated [`OPP`] is automatically removed when the [`Token`] is dropped.
///
-/// ## Examples
+/// # Examples
///
/// The following example demonstrates how to create an [`OPP`] dynamically.
///
/// Rust abstraction for the C `struct dev_pm_opp_data`, used to define operating performance
/// points (OPPs) dynamically.
///
-/// ## Examples
+/// # Examples
///
/// The following example demonstrates how to create an [`OPP`] with [`Data`].
///
/// [`OPP`] search options.
///
-/// ## Examples
+/// # Examples
///
/// Defines how to search for an [`OPP`] in a [`Table`] relative to a frequency.
///
///
/// Rust abstraction for the C `struct dev_pm_opp_config`.
///
-/// ## Examples
+/// # Examples
///
/// The following example demonstrates how to set OPP property-name configuration for a [`Device`].
///
///
/// Instances of this type are reference-counted.
///
-/// ## Examples
+/// # Examples
///
/// The following example demonstrates how to get OPP [`Table`] for a [`Cpumask`] and set its
/// frequency.
///
/// A reference to the [`OPP`], &[`OPP`], isn't refcounted by the Rust code.
///
-/// ## Examples
+/// # Examples
///
/// The following example demonstrates how to get [`OPP`] corresponding to a frequency value and
/// configure the device with it.
/// Declares a kernel module that exposes a single PCI driver.
///
-/// # Example
+/// # Examples
///
///```ignore
/// kernel::module_pci_driver! {
/// The PCI driver trait.
///
-/// # Example
+/// # Examples
///
///```
/// # use kernel::{bindings, device::Core, pci};
///
/// Drivers must implement this trait in order to get a platform driver registered.
///
-/// # Example
+/// # Examples
///
///```
/// # use kernel::{bindings, c_str, device::Core, of, platform};
/// Initializes a dynamically allocated lock class key. In the common case of using a
/// statically allocated lock class key, the static_lock_class! macro should be used instead.
///
- /// # Example
+ /// # Examples
/// ```
/// # use kernel::c_str;
/// # use kernel::alloc::KBox;
//! * The [`WorkItemPointer`] trait is implemented for the pointer type that points at a something
//! that implements [`WorkItem`].
//!
-//! ## Example
+//! ## Examples
//!
//! This example defines a struct that holds an integer and can be scheduled on the workqueue. When
//! the struct is executed, it will print the integer. Since there is only one `work_struct` field,
/// Asserts that a field on a struct using `#[pin_data]` is marked with `#[pin]` ie. that it is
/// structurally pinned.
///
-/// # Example
+/// # Examples
///
/// This will succeed:
/// ```