Documentation: Fix typos

Fix typos in Documentation.

Signed-off-by: Bjorn Helgaas <bhelgaas@google.com>
Link: https://lore.kernel.org/r/20230814212822.193684-4-helgaas@kernel.org
Signed-off-by: Jonathan Corbet <corbet@lwn.net>

1 files changed, 7 insertions, 7 deletions

diff --git a/Documentation/filesystems/idmappings.rst b/Documentation/filesystems/idmappings.rst
index ad6d21640576..9700fdff411d 100644
--- a/Documentation/filesystems/idmappings.rst
+++ b/Documentation/filesystems/idmappings.rst
@@ -36,7 +36,7 @@ and write down the mappings it will generate::
 From a mathematical viewpoint ``U`` and ``K`` are well-ordered sets and an
 idmapping is an order isomorphism from ``U`` into ``K``. So ``U`` and ``K`` are
 order isomorphic. In fact, ``U`` and ``K`` are always well-ordered subsets of
-the set of all possible ids useable on a given system.
+the set of all possible ids usable on a given system.
 
 Looking at this mathematically briefly will help us highlight some properties
 that make it easier to understand how we can translate between idmappings. For
@@ -47,7 +47,7 @@ example, we know that the inverse idmapping is an order isomorphism as well::
  k10002 -> u24
 
 Given that we are dealing with order isomorphisms plus the fact that we're
-dealing with subsets we can embedd idmappings into each other, i.e. we can
+dealing with subsets we can embed idmappings into each other, i.e. we can
 sensibly translate between different idmappings. For example, assume we've been
 given the three idmappings::
 
@@ -60,7 +60,7 @@ and id ``k11000`` which has been generated by the first idmapping by mapping
 
 Because we're dealing with order isomorphic subsets it is meaningful to ask
 what id ``k11000`` corresponds to in the second or third idmapping. The
-straightfoward algorithm to use is to apply the inverse of the first idmapping,
+straightforward algorithm to use is to apply the inverse of the first idmapping,
 mapping ``k11000`` up to ``u1000``. Afterwards, we can map ``u1000`` down using
 either the second idmapping mapping or third idmapping mapping. The second
 idmapping would map ``u1000`` down to ``21000``. The third idmapping would map
@@ -367,7 +367,7 @@ So with the second step the kernel guarantees that a valid userspace id can be
 written to disk. If it can't the kernel will refuse the creation request to not
 even remotely risk filesystem corruption.
 
-The astute reader will have realized that this is simply a varation of the
+The astute reader will have realized that this is simply a variation of the
 crossmapping algorithm we mentioned above in a previous section. First, the
 kernel maps the caller's userspace id down into a kernel id according to the
 caller's idmapping and then maps that kernel id up according to the
@@ -458,7 +458,7 @@ the kernel id that was created in the caller's idmapping. This has mainly two
 consequences.
 
 First, that we can't allow a caller to ultimately write to disk with another
-userspace id. We could only do this if we were to mount the whole fileystem
+userspace id. We could only do this if we were to mount the whole filesystem
 with the caller's or another idmapping. But that solution is limited to a few
 filesystems and not very flexible. But this is a use-case that is pretty
 important in containerized workloads.
@@ -589,7 +589,7 @@ on their work machine.
 
 In both cases changing ownership recursively has grave implications. The most
 obvious one is that ownership is changed globally and permanently. In the home
-directory case this change in ownership would even need to happen everytime the
+directory case this change in ownership would even need to happen every time the
 user switches from their home to their work machine. For really large sets of
 files this becomes increasingly costly.
 
@@ -662,7 +662,7 @@ use the ``vfsuid_into_kuid()`` and ``vfsgid_into_kgid()`` helpers.
 To illustrate why this helper currently exists, consider what happens when we
 change ownership of an inode from an idmapped mount. After we generated
 a ``vfsuid_t`` or ``vfsgid_t`` based on the mount idmapping we later commit to
-this ``vfsuid_t`` or ``vfsgid_t`` to become the new filesytem wide ownership.
+this ``vfsuid_t`` or ``vfsgid_t`` to become the new filesystem wide ownership.
 Thus, we are turning the ``vfsuid_t`` or ``vfsgid_t`` into a global ``kuid_t``
 or ``kgid_t``. And this can be done by using ``vfsuid_into_kuid()`` and
 ``vfsgid_into_kgid()``.