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Find Command Examples and Usages

The find command – search for files in a directory hierarchy. Here you can find some useful find command examples and manual guides. Follow the find command examples to learn Linux command line faster.

SYNOPSIS

find [-H] [-L] [-P] [-D debugopts] [-Olevel] [starting-point…] [expression]

DESCRIPTION

This manual page documents the GNU version of find. GNU find searches the directory tree rooted at each given starting point by evaluating the given expression from left to right, according to the rules of precedence (see section OPERATORS), until the outcome is known (the left hand side is false for and operations, true for or), at which point find
moves on to the next file name. If no starting-point is specified, `.’ is assumed.

If you are using find in an environment where security is important (for example if you are using it to search directories that are writable by other users), you should read the `Security Considerations’ chapter of the findutils documentation, which is called Finding Files and comes with findutils. That document also includes a lot more detail and discussion than this manual page, so you may find it a more useful source of information.

find Command examples - Enlinux
find Command examples – Enlinux

OPTIONS


The -H, -L and -P options control the treatment of symbolic links. Command-line arguments following these are taken to be names of files or directories to be examined, up to the first argument that begins with -', or the argument(‘ or `!’. That argument and any following arguments are taken to be the expression describing what is to be searched for.
If no paths are given, the current directory is used. If no expression is given, the expression -print is used (but you should probably consider using -print0 instead, anyway).

This  manual page talks about `options' within the expression list.  These options control the behaviour of find but are specified immediately after the last path name.  The five `real' options -H, -L, -P, -D and -O must  appear  before  the
first  path  name,  if at all.  A double dash -- can also be used to signal that any remaining arguments are not options
(though ensuring that all start points begin with either `./' or `/' is generally safer if you use wildcards in the list
of start points).
-P     Never  follow  symbolic  links.  This is the default behaviour.  When find examines or prints information a file,
and the file is a symbolic link, the information used shall be taken from the properties of the symbolic link it‐
self.
-L     Follow symbolic links.  When find examines or prints information about files, the information used shall be taken
from the properties of the file to which the link points, not from the link itself (unless it is  a  broken  sym‐
bolic  link or find is unable to examine the file to which the link points).  Use of this option implies -noleaf.
If you later use the -P option, -noleaf will still be in effect.  If -L is in effect and find  discovers  a  sym‐
bolic  link  to  a  subdirectory  during  its  search,  the  subdirectory pointed to by the symbolic link will be
searched.
When the -L option is in effect, the -type predicate will always match against the type of the file that  a  sym‐
bolic  link  points  to rather than the link itself (unless the symbolic link is broken).  Actions that can cause
symbolic links to become broken while find is executing (for example -delete) can give rise to  confusing  behav‐
iour.  Using -L causes the -lname and -ilname predicates always to return false.
-H     Do  not  follow symbolic links, except while processing the command line arguments.  When find examines or prints
information about files, the information used shall be taken from the properties of  the  symbolic  link  itself.
The  only  exception  to  this behaviour is when a file specified on the command line is a symbolic link, and the
link can be resolved.  For that situation, the information used is taken from whatever the link points  to  (that
is, the link is followed).  The information about the link itself is used as a fallback if the file pointed to by
the symbolic link cannot be examined.  If -H is in effect and one of the paths specified on the command line is a
symbolic link to a directory, the contents of that directory will be examined (though of course -maxdepth 0 would
prevent this).
If more than one of -H, -L and -P is specified, each overrides the others; the last one appearing on  the  command  line
takes  effect.   Since  it  is the default, the -P option should be considered to be in effect unless either -H or -L is
specified.
GNU find frequently stats files during the processing of the command line itself, before any searching has begun.  These
options  also  affect  how  those arguments are processed.  Specifically, there are a number of tests that compare files
listed on the command line against a file we are currently considering.  In each case, the file specified on the command
line  will  have been examined and some of its properties will have been saved.  If the named file is in fact a symbolic
link, and the -P option is in effect (or if neither -H nor -L were specified), the information used for  the  comparison
will be taken from the properties of the symbolic link.  Otherwise, it will be taken from the properties of the file the
link points to.  If find cannot follow the link (for example because it has insufficient privileges or the  link  points
to a nonexistent file) the properties of the link itself will be used.
When  the  -H or -L options are in effect, any symbolic links listed as the argument of -newer will be dereferenced, and
the timestamp will be taken from the file to which the symbolic link points.  The same consideration  applies  to  -new‐
erXY, -anewer and -cnewer.
The  -follow  option has a similar effect to -L, though it takes effect at the point where it appears (that is, if -L is
not used but -follow is, any symbolic links appearing after -follow on the command line will be dereferenced, and  those
before it will not).
-D debugopts
Print  diagnostic information; this can be helpful to diagnose problems with why find is not doing what you want.
The list of debug options should be comma separated.  Compatibility of the debug options is  not  guaranteed  be‐
tween  releases of findutils.  For a complete list of valid debug options, see the output of find -D help.  Valid
debug options include
exec   Show diagnostic information relating to -exec, -execdir, -ok and -okdir
opt    Prints diagnostic information relating to the optimisation of the expression tree; see the -O option.
rates  Prints a summary indicating how often each predicate succeeded or failed.
search Navigate the directory tree verbosely.
stat   Print messages as files are examined with the stat and lstat system calls.  The find program tries to min‐
imise such calls.
tree   Show the expression tree in its original and optimised form.
all    Enable all of the other debug options (but help).
help   Explain the debugging options.
-Olevel
Enables  query  optimisation.  The find program reorders tests to speed up execution while preserving the overall
effect; that is, predicates with side effects are not reordered relative to each other.  The  optimisations  per‐
formed at each optimisation level are as follows.
0      Equivalent to optimisation level 1.
1      This  is the default optimisation level and corresponds to the traditional behaviour.  Expressions are re‐
ordered so that tests based only on the names of files (for example -name and -regex) are performed first.
2      Any -type or -xtype tests are performed after any tests based only on the names of files, but  before  any
tests  that  require information from the inode.  On many modern versions of Unix, file types are returned
by readdir() and so these predicates are faster to evaluate than predicates which need to  stat  the  file
first.   If  you  use the -fstype FOO predicate and specify a filesystem type FOO which is not known (that
is, present in `/etc/mtab') at the time find starts, that predicate is equivalent to -false.
3      At this optimisation level, the full cost-based query optimiser is enabled.  The order of tests  is  modi‐
fied  so  that cheap (i.e. fast) tests are performed first and more expensive ones are performed later, if
necessary.  Within each cost band, predicates are evaluated earlier or later according to whether they are
likely  to  succeed or not.  For -o, predicates which are likely to succeed are evaluated earlier, and for
-a, predicates which are likely to fail are evaluated earlier.
The cost-based optimiser has a fixed idea of how likely any given test is to succeed.  In some cases  the  proba‐
bility  takes  account  of  the specific nature of the test (for example, -type f is assumed to be more likely to
succeed than -type c).  The cost-based optimiser is currently being evaluated.  If it does not  actually  improve
the  performance  of find, it will be removed again.  Conversely, optimisations that prove to be reliable, robust
and effective may be enabled at lower optimisation levels over time.  However, the default behaviour (i.e.  opti‐
misation  level  1) will not be changed in the 4.3.x release series.  The findutils test suite runs all the tests
on find at each optimisation level and ensures that the result is the same.

EXPRESSION


The part of the command line after the list of starting points is the expression. This is a kind of query specification describing how we match files and what we do with the files that were matched. An expression is composed of a sequence of things:

   Tests  Tests return a true or false value, usually on the basis of some property of a  file  we  are  considering.   The
-empty test for example is true only when the current file is empty.
Actions
Actions  have  side  effects (such as printing something on the standard output) and return either true or false,
usually based on whether or not they are successful.  The -print action for example prints the name of  the  cur‐
rent file on the standard output.
Global options
Global  options  affect the operation of tests and actions specified on any part of the command line.  Global op‐
tions always return true.  The -depth option for example makes find traverse the file system in a depth-first or‐
der.
Positional options
Positional  options  affect only tests or actions which follow them.  Positional options always return true.  The
-regextype option for example is positional, specifying the regular expression dialect  for  regular  expressions
occurring later on the command line.
Operators
Operators  join together the other items within the expression.  They include for example -o (meaning logical OR)
and -a (meaning logical AND).  Where an operator is missing, -a is assumed.
The -print action is performed on all files for which the whole expression is true, unless it contains an  action  other
than  -prune  or  -quit.   Actions  which  inhibit  the  default -print are -delete, -exec, -execdir, -ok, -okdir, -fls,
-fprint, -fprintf, -ls, -print and -printf.
The -delete action also acts like an option (since it implies -depth).

POSITIONAL OPTIONS


Positional options always return true. They affect only tests occurring later on the command line.

   -daystart
Measure times (for -amin, -atime, -cmin, -ctime, -mmin, and -mtime) from the beginning of today rather than  from
24 hours ago.  This option only affects tests which appear later on the command line.
-follow
Deprecated; use the -L option instead.  Dereference symbolic links.  Implies -noleaf.  The -follow option affects
only those tests which appear after it on the command line.  Unless the -H or -L option has been  specified,  the
position of the -follow option changes the behaviour of the -newer predicate; any files listed as the argument of
-newer will be dereferenced if they are symbolic links.  The same consideration applies to -newerXY, -anewer  and
-cnewer.   Similarly,  the  -type  predicate  will always match against the type of the file that a symbolic link
points to rather than the link itself.  Using -follow causes the -lname and -ilname predicates always  to  return
false.
-regextype type
Changes  the  regular  expression  syntax understood by -regex and -iregex tests which occur later on the command
line.  To see which regular expression types are known, use -regextype help.  The Texinfo documentation (see  SEE
ALSO) explains the meaning of and differences between the various types of regular expression.
-warn, -nowarn
Turn warning messages on or off.  These warnings apply only to the command line usage, not to any conditions that
find might encounter when it searches directories.  The default behaviour corresponds to -warn if standard  input
is  a  tty,  and to -nowarn otherwise.  If a warning message relating to command-line usage is produced, the exit
status of find is not affected.  If the POSIXLY_CORRECT environment variable is set, and -warn is also  used,  it
is not specified which, if any, warnings will be active.

GLOBAL OPTIONS


Global options always return true. Global options take effect even for tests which occur earlier on the command line. To prevent confusion, global options should specified on the command-line after the list of start points, just before the first test, positional option or action. If you specify a global option in some other place, find will issue a warning message explaining that this can be confusing.

   The global options occur after the list of start points, and so are not the same kind of option as -L, for example.
-d     A synonym for -depth, for compatibility with FreeBSD, NetBSD, MacOS X and OpenBSD.
-depth Process each directory's contents before the directory itself.  The -delete action also implies -depth.
-help, --help
Print a summary of the command-line usage of find and exit.
-ignore_readdir_race
Normally, find will emit an error message when it fails to stat a file.  If you give this option and  a  file  is
deleted  between  the  time  find reads the name of the file from the directory and the time it tries to stat the
file, no error message will be issued.  This also applies to files or directories whose names are  given  on  the
command  line.  This option takes effect at the time the command line is read, which means that you cannot search
one part of the filesystem with this option on and part of it with this option off (if you need to do  that,  you
will need to issue two find commands instead, one with the option and one without it).
Furthermore,  find  with the -ignore_readdir_race option will ignore errors of the -delete action in the case the
file has disappeared since the parent directory was read: it will not output an error diagnostic, and the  return
code of the -delete action will be true.
-maxdepth levels
Descend  at  most  levels  (a non-negative integer) levels of directories below the starting-points.  -maxdepth 0
means only apply the tests and actions to the starting-points themselves.
-mindepth levels
Do not apply any tests or actions at levels less than levels (a non-negative integer).  -mindepth 1 means process
all files except the starting-points.
-mount Don't  descend  directories on other filesystems.  An alternate name for -xdev, for compatibility with some other
versions of find.
-noignore_readdir_race
Turns off the effect of -ignore_readdir_race.
-noleaf
Do not optimize by assuming that directories contain 2 fewer subdirectories than their hard link count.  This op‐
tion  is  needed when searching filesystems that do not follow the Unix directory-link convention, such as CD-ROM
or MS-DOS filesystems or AFS volume mount points.  Each directory on a normal Unix filesystem has at least 2 hard
links:  its  name  and its `.' entry.  Additionally, its subdirectories (if any) each have a `..' entry linked to
that directory.  When find is examining a directory, after it has statted 2 fewer subdirectories than the  direc‐
tory's  link  count,  it knows that the rest of the entries in the directory are non-directories (`leaf' files in
the directory tree).  If only the files' names need to be examined, there is no need to stat them; this  gives  a
significant increase in search speed.
-version, --version
Print the find version number and exit.
-xdev  Don't descend directories on other filesystems.

TESTS


Some tests, for example -newerXY and -samefile, allow comparison between the file currently being examined and some reference file specified on the command line. When these tests are used, the interpretation of the reference file is determined by the options -H, -L and -P and any previous -follow, but the reference file is only examined once, at the time the command line is parsed. If the reference file cannot be examined (for example, the stat(2) system call fails
for it), an error message is issued, and find exits with a nonzero status.

   Numeric arguments can be specified as
+n     for greater than n,
-n     for less than n,
n      for exactly n.
-amin n
File was last accessed n minutes ago.
-anewer reference
Time  of the last access of the current file is more recent than that of the last data modification of the refer‐
ence file.  If reference is a symbolic link and the -H option or the -L option is in effect, then the time of the
last data modification of the file it points to is always used.
-atime n
File  was last accessed n*24 hours ago.  When find figures out how many 24-hour periods ago the file was last ac‐
cessed, any fractional part is ignored, so to match -atime +1, a file has to have been accessed at least two days
ago.
-cmin n
File's status was last changed n minutes ago.
-cnewer reference
Time  of the last status change of the current file is more recent than that of the last data modification of the
reference file.  If reference is a symbolic link and the -H option or the -L option is in effect, then  the  time
of the last data modification of the file it points to is always used.
-ctime n
File's  status  was  last changed n*24 hours ago.  See the comments for -atime to understand how rounding affects
the interpretation of file status change times.
-empty File is empty and is either a regular file or a directory.
-executable
Matches files which are executable and directories which are searchable (in a file name resolution sense) by  the
current  user.  This takes into account access control lists and other permissions artefacts which the -perm test
ignores.  This test makes use of the access(2) system call, and so can be fooled by NFS servers which do UID map‐
ping (or root-squashing), since many systems implement access(2) in the client's kernel and so cannot make use of
the UID mapping information held on the server.  Because this test is based only on the result of  the  access(2)
system call, there is no guarantee that a file for which this test succeeds can actually be executed.
-false Always false.
-fstype type
File  is  on a filesystem of type type.  The valid filesystem types vary among different versions of Unix; an in‐
complete list of filesystem types that are accepted on some version of Unix or another is: ufs,  4.2,  4.3,  nfs,
tmp, mfs, S51K, S52K.  You can use -printf with the %F directive to see the types of your filesystems.
-gid n File's numeric group ID is n.
-group gname
File belongs to group gname (numeric group ID allowed).
-ilname pattern
Like  -lname,  but the match is case insensitive.  If the -L option or the -follow option is in effect, this test
returns false unless the symbolic link is broken.
-iname pattern
Like -name, but the match is case insensitive.  For example, the patterns `fo*' and `F??' match  the  file  names
`Foo', `FOO', `foo', `fOo', etc.  The pattern `*foo*` will also match a file called '.foobar'.
-inum n
File has inode number n.  It is normally easier to use the -samefile test instead.
-ipath pattern
Like -path.  but the match is case insensitive.
-iregex pattern
Like -regex, but the match is case insensitive.
-iwholename pattern
See -ipath.  This alternative is less portable than -ipath.
-links n
File has n hard links.
-lname pattern
File  is  a symbolic link whose contents match shell pattern pattern.  The metacharacters do not treat `/' or `.'
specially.  If the -L option or the -follow option is in effect, this test returns false unless the symbolic link
is broken.
-mmin n
File's data was last modified n minutes ago.
-mtime n
File's data was last modified n*24 hours ago.  See the comments for -atime to understand how rounding affects the
interpretation of file modification times.
-name pattern
Base of file name (the path with the leading directories removed) matches shell  pattern  pattern.   Because  the
leading  directories are removed, the file names considered for a match with -name will never include a slash, so
`-name a/b' will never match anything (you probably need to use -path instead).  A warning is issued if  you  try
to  do  this,  unless  the  environment variable POSIXLY_CORRECT is set.  The metacharacters (`*', `?', and `[]')
match a `.' at the start of the base name (this is a change in findutils-4.2.2; see section STANDARDS CONFORMANCE
below).   To  ignore  a directory and the files under it, use -prune rather than checking every file in the tree;
see an example in the description of that action.  Braces are not recognised as being special, despite  the  fact
that  some shells including Bash imbue braces with a special meaning in shell patterns.  The filename matching is
performed with the use of the fnmatch(3) library function.  Don't forget to enclose the pattern in quotes in  or‐
der to protect it from expansion by the shell.
-newer reference
Time  of the last data modification of the current file is more recent than that of the last data modification of
the reference file.  If reference is a symbolic link and the -H option or the -L option is in  effect,  then  the
time of the last data modification of the file it points to is always used.
-newerXY reference
Succeeds  if  timestamp X of the file being considered is newer than timestamp Y of the file reference.  The let‐
ters X and Y can be any of the following letters:
a   The access time of the file reference
B   The birth time of the file reference
c   The inode status change time of reference
m   The modification time of the file reference
t   reference is interpreted directly as a time
Some combinations are invalid; for example, it is invalid for X to be t.  Some combinations are  not  implemented
on all systems; for example B is not supported on all systems.  If an invalid or unsupported combination of XY is
specified, a fatal error results.  Time specifications are interpreted as for the argument to the  -d  option  of
GNU date.  If you try to use the birth time of a reference file, and the birth time cannot be determined, a fatal
error message results.  If you specify a test which refers to the birth time of files being examined,  this  test
will fail for any files where the birth time is unknown.
-nogroup
No group corresponds to file's numeric group ID.
-nouser
No user corresponds to file's numeric user ID.
-path pattern
File name matches shell pattern pattern.  The metacharacters do not treat `/' or `.' specially; so, for example,
find . -path "./sr*sc"
will  print  an entry for a directory called `./src/misc' (if one exists).  To ignore a whole directory tree, use
-prune rather than checking every file in the tree.  Note that the pattern match test applies to the  whole  file
name,  starting from one of the start points named on the command line.  It would only make sense to use an abso‐
lute path name here if the relevant start point is also an absolute path.  This  means  that  this  command  will
never match anything:
find bar -path /foo/bar/myfile -print
Find  compares  the  -path argument with the concatenation of a directory name and the base name of the file it's
examining.  Since the concatenation will never end with a slash, -path arguments ending in  a  slash  will  match
nothing  (except  perhaps a start point specified on the command line).  The predicate -path is also supported by
HP-UX find and is part of the POSIX 2008 standard.
-perm mode
File's permission bits are exactly mode (octal or symbolic).  Since an exact match is required, if  you  want  to
use  this form for symbolic modes, you may have to specify a rather complex mode string.  For example `-perm g=w'
will only match files which have mode 0020 (that is, ones for which group write permission is the only permission
set).   It is more likely that you will want to use the `/' or `-' forms, for example `-perm -g=w', which matches
any file with group write permission.  See the EXAMPLES section for some illustrative examples.
-perm -mode
All of the permission bits mode are set for the file.  Symbolic modes are accepted in this form, and this is usu‐
ally  the  way in which you would want to use them.  You must specify `u', `g' or `o' if you use a symbolic mode.
See the EXAMPLES section for some illustrative examples.
-perm /mode
Any of the permission bits mode are set for the file.  Symbolic modes are accepted in this form.  You must  spec‐
ify  `u', `g' or `o' if you use a symbolic mode.  See the EXAMPLES section for some illustrative examples.  If no
permission bits in mode are set, this test matches any file (the idea here is to be consistent with the behaviour
of -perm -000).
-perm +mode
This is no longer supported (and has been deprecated since 2005).  Use -perm /mode instead.
-readable
Matches  files  which  are  readable by the current user.  This takes into account access control lists and other
permissions artefacts which the -perm test ignores.  This test makes use of the access(2) system call, and so can
be  fooled by NFS servers which do UID mapping (or root-squashing), since many systems implement access(2) in the
client's kernel and so cannot make use of the UID mapping information held on the server.
-regex pattern
File name matches regular expression pattern.  This is a match on the whole path, not a search.  For example,  to
match  a  file  named  `./fubar3', you can use the regular expression `.*bar.' or `.*b.*3', but not `f.*r3'.  The
regular expressions understood by find are by default Emacs Regular Expressions (except  that  `.'  matches  new‐
line), but this can be changed with the -regextype option.
-samefile name
File refers to the same inode as name.  When -L is in effect, this can include symbolic links.
-size n[cwbkMG]
File uses n units of space, rounding up.  The following suffixes can be used:
`b'    for 512-byte blocks (this is the default if no suffix is used)
`c'    for bytes
`w'    for two-byte words
`k'    for kibibytes (KiB, units of 1024 bytes)
`M'    for mebibytes (MiB, units of 1024 * 1024 = 1048576 bytes)
`G'    for gibibytes (GiB, units of 1024 * 1024 * 1024 = 1073741824 bytes)
The size is simply the st_size member of the struct stat populated by the lstat (or stat) system call, rounded up
as shown above.  In other words, it's consistent with the result you get for ls -l.  Bear in mind that  the  `%k'
and  `%b'  format  specifiers of -printf handle sparse files differently.  The `b' suffix always denotes 512-byte
blocks and never 1024-byte blocks, which is different to the behaviour of -ls.
The + and - prefixes signify greater than and less than, as usual; i.e., an exact size of n units does not match.
Bear  in  mind  that  the  size  is  rounded up to the next unit.  Therefore -size -1M is not equivalent to -size
-1048576c.  The former only matches empty files, the latter matches files from 0 to 1,048,575 bytes.
-true  Always true.
-type c
File is of type c:
b      block (buffered) special
c      character (unbuffered) special
d      directory
p      named pipe (FIFO)
f      regular file
l      symbolic link; this is never true if the -L option or the -follow option is in effect, unless the symbolic
link is broken.  If you want to search for symbolic links when -L is in effect, use -xtype.
s      socket
D      door (Solaris)
To  search  for more than one type at once, you can supply the combined list of type letters separated by a comma
`,' (GNU extension).
-uid n File's numeric user ID is n.
-used n
File was last accessed n days after its status was last changed.
-user uname
File is owned by user uname (numeric user ID allowed).
-wholename pattern
See -path.  This alternative is less portable than -path.
-writable
Matches files which are writable by the current user.  This takes into account access  control  lists  and  other
permissions artefacts which the -perm test ignores.  This test makes use of the access(2) system call, and so can
be fooled by NFS servers which do UID mapping (or root-squashing), since many systems implement access(2) in  the
client's kernel and so cannot make use of the UID mapping information held on the server.
-xtype c
The  same as -type unless the file is a symbolic link.  For symbolic links: if the -H or -P option was specified,
true if the file is a link to a file of type c; if the -L option has been given, true if  c  is  `l'.   In  other
words, for symbolic links, -xtype checks the type of the file that -type does not check.
-context pattern
(SELinux only) Security context of the file matches glob pattern.

ACTIONS

-delete

Delete files; true if removal succeeded. If the removal failed, an error message is issued. If delete fails, find’s exit status will be nonzero (when it eventually exits). Use of -delete automatically turns on the `-depth’ option.

Warnings: Don’t forget that the find command line is evaluated as an expression, so putting -delete first will make find try to delete everything below the starting points you specified. When testing a find command line that you later intend to use with -delete, you should explicitly specify -depth in order to avoid later surprises. Because -delete implies -depth, you cannot usefully use -prune and -delete together.

Together with the -ignore_readdir_race option, find will ignore errors of the -delete action in the case the file has disappeared since the parent directory was read: it will not output an error diagnostic, and the return code of the -delete action will be true.

   -exec command ;
Execute command; true if 0 status is returned.  All following arguments to find are taken to be arguments to  the
command until an argument consisting of `;' is encountered.  The string `{}' is replaced by the current file name
being processed everywhere it occurs in the arguments to the command, not just in arguments where it is alone, as
in some versions of find.  Both of these constructions might need to be escaped (with a `\') or quoted to protect
them from expansion by the shell.  See the EXAMPLES section for examples of the use of  the  -exec  option.   The
specified  command  is run once for each matched file.  The command is executed in the starting directory.  There
are unavoidable security problems surrounding use of the -exec action; you should use  the  -execdir  option  in‐
stead.
-exec command {} +
This  variant of the -exec action runs the specified command on the selected files, but the command line is built
by appending each selected file name at the end; the total number of invocations of the command will be much less
than  the  number of matched files.  The command line is built in much the same way that xargs builds its command
lines.  Only one instance of `{}' is allowed within the command, and (when find is being invoked from a shell) it
should be quoted (for example, '{}') to protect it from interpretation by shells.  The command is executed in the
starting directory.  If any invocation with the `+' form returns a non-zero value as exit status, then  find  re‐
turns  a  non-zero exit status.  If find encounters an error, this can sometimes cause an immediate exit, so some
pending commands may not be run at all.  This variant of -exec always returns true.
-execdir command ;
-execdir command {} +
Like -exec, but the specified command is run from the subdirectory containing the matched file, which is not nor‐
mally  the  directory in which you started find.  As with -exec, the {} should be quoted if find is being invoked
from a shell.  This a much more secure method for invoking commands, as it avoids race conditions during  resolu‐
tion  of the paths to the matched files.  As with the -exec action, the `+' form of -execdir will build a command
line to process more than one matched file, but any given invocation of command will only list files  that  exist
in  the same subdirectory.  If you use this option, you must ensure that your $PATH environment variable does not
reference `.'; otherwise, an attacker can run any commands they like by leaving an appropriately-named file in  a
directory  in  which you will run -execdir.  The same applies to having entries in $PATH which are empty or which
are not absolute directory names.  If any invocation with the `+' form returns a non-zero value as  exit  status,
then  find  returns  a  non-zero exit status.  If find encounters an error, this can sometimes cause an immediate
exit, so some pending commands may not be run at all.  The result of the action depends on whether the + or the ;
variant  is  being used; -execdir command {} + always returns true, while -execdir command {} ; returns true only
if command returns 0.
-fls file
True; like -ls but write to file like -fprint.  The output file is always created, even if the predicate is never
matched.   See  the  UNUSUAL FILENAMES section for information about how unusual characters in filenames are han‐
dled.
-fprint file
True; print the full file name into file file.  If file does not exist when find is run, it  is  created;  if  it
does exist, it is truncated.  The file names `/dev/stdout' and `/dev/stderr' are handled specially; they refer to
the standard output and standard error output, respectively.  The output file is  always  created,  even  if  the
predicate  is  never  matched.  See the UNUSUAL FILENAMES section for information about how unusual characters in
filenames are handled.
-fprint0 file
True; like -print0 but write to file like -fprint.  The output file is always created, even if the  predicate  is
never  matched.   See the UNUSUAL FILENAMES section for information about how unusual characters in filenames are
handled.
-fprintf file format
True; like -printf but write to file like -fprint.  The output file is always created, even if the  predicate  is
never  matched.   See the UNUSUAL FILENAMES section for information about how unusual characters in filenames are
handled.
-ls    True; list current file in ls -dils format on standard output.  The block counts are of 1 KB blocks,  unless  the
environment  variable  POSIXLY_CORRECT is set, in which case 512-byte blocks are used.  See the UNUSUAL FILENAMES
section for information about how unusual characters in filenames are handled.
-ok command ;
Like -exec but ask the user first.  If the user agrees, run the command.  Otherwise just return  false.   If  the
command is run, its standard input is redirected from /dev/null.
The  response to the prompt is matched against a pair of regular expressions to determine if it is an affirmative
or negative response.  This regular expression is obtained from the system if the  `POSIXLY_CORRECT'  environment
variable is set, or otherwise from find's message translations.  If the system has no suitable definition, find's
own definition will be used.  In either case, the interpretation of the regular expression  itself  will  be  af‐
fected by the environment variables 'LC_CTYPE' (character classes) and 'LC_COLLATE' (character ranges and equiva‐
lence classes).
-okdir command ;
Like -execdir but ask the user first in the same way as for -ok.  If the user does not agree, just return  false.
If the command is run, its standard input is redirected from /dev/null.
-print True;  print  the  full file name on the standard output, followed by a newline.  If you are piping the output of
find into another program and there is the faintest possibility that the files which you are searching for  might
contain  a  newline,  then you should seriously consider using the -print0 option instead of -print.  See the UN‐
USUAL FILENAMES section for information about how unusual characters in filenames are handled.
-print0
True; print the full file name on the standard output, followed by a null character (instead of the newline char‐
acter  that  -print uses).  This allows file names that contain newlines or other types of white space to be cor‐
rectly interpreted by programs that process the find output.  This option corresponds to the -0 option of xargs.
-printf format
True; print format on the standard output, interpreting `\' escapes and `%' directives.  Field widths and  preci‐
sions  can  be  specified as with the `printf' C function.  Please note that many of the fields are printed as %s
rather than %d, and this may mean that flags don't work as you might expect.  This also means that the  `-'  flag
does work (it forces fields to be left-aligned).  Unlike -print, -printf does not add a newline at the end of the
string.  The escapes and directives are:
\a     Alarm bell.
\b     Backspace.
\c     Stop printing from this format immediately and flush the output.
\f     Form feed.
\n     Newline.
\r     Carriage return.
\t     Horizontal tab.
\v     Vertical tab.
\0     ASCII NUL.
\\     A literal backslash (`\').
\NNN   The character whose ASCII code is NNN (octal).
A `\' character followed by any other character is treated as an ordinary character, so they both are printed.
%%     A literal percent sign.
%a     File's last access time in the format returned by the C `ctime' function.
%Ak    File's last access time in the format specified by k, which is either `@' or a directive for the C  `strf‐
time'  function.   The  possible values for k are listed below; some of them might not be available on all
systems, due to differences in `strftime' between systems.
@      seconds since Jan. 1, 1970, 00:00 GMT, with fractional part.
Time fields:
H      hour (00..23)
I      hour (01..12)
k      hour ( 0..23)
l      hour ( 1..12)
M      minute (00..59)
p      locale's AM or PM
r      time, 12-hour (hh:mm:ss [AP]M)
S      Second (00.00 .. 61.00).  There is a fractional part.
T      time, 24-hour (hh:mm:ss.xxxxxxxxxx)
+      Date and time, separated by `+', for example `2004-04-28+22:22:05.0'.  This  is  a  GNU  extension.
The  time  is  given  in  the current timezone (which may be affected by setting the TZ environment
variable).  The seconds field includes a fractional part.
X      locale's time representation (H:M:S).  The seconds field includes a fractional part.
Z      time zone (e.g., EDT), or nothing if no time zone is determinable
Date fields:
a      locale's abbreviated weekday name (Sun..Sat)
A      locale's full weekday name, variable length (Sunday..Saturday)
b      locale's abbreviated month name (Jan..Dec)
B      locale's full month name, variable length (January..December)
c      locale's date and time (Sat Nov 04 12:02:33 EST 1989).  The format is the same as for ctime(3)  and
so to preserve compatibility with that format, there is no fractional part in the seconds field.
d      day of month (01..31)
D      date (mm/dd/yy)
h      same as b
j      day of year (001..366)
m      month (01..12)
U      week number of year with Sunday as first day of week (00..53)
w      day of week (0..6)
W      week number of year with Monday as first day of week (00..53)
x      locale's date representation (mm/dd/yy)
y      last two digits of year (00..99)
Y      year (1970...)
%b     The  amount  of disk space used for this file in 512-byte blocks.  Since disk space is allocated in multi‐
ples of the filesystem block size this is usually greater than %s/512, but it can also be smaller  if  the
file is a sparse file.
%c     File's last status change time in the format returned by the C `ctime' function.
%Ck    File's last status change time in the format specified by k, which is the same as for %A.
%d     File's depth in the directory tree; 0 means the file is a starting-point.
%D     The device number on which the file exists (the st_dev field of struct stat), in decimal.
%f     File's name with any leading directories removed (only the last element).
%F     Type of the filesystem the file is on; this value can be used for -fstype.
%g     File's group name, or numeric group ID if the group has no name.
%G     File's numeric group ID.
%h     Leading  directories  of  file's  name  (all  but the last element).  If the file name contains no slashes
(since it is in the current directory) the %h specifier expands to `.'.
%H     Starting-point under which file was found.
%i     File's inode number (in decimal).
%k     The amount of disk space used for this file in 1 KB blocks.  Since disk space is allocated in multiples of
the  filesystem block size this is usually greater than %s/1024, but it can also be smaller if the file is
a sparse file.
%l     Object of symbolic link (empty string if file is not a symbolic link).
%m     File's permission bits (in octal).  This option uses the `traditional' numbers which most Unix implementa‐
tions  use,  but if your particular implementation uses an unusual ordering of octal permissions bits, you
will see a difference between the actual value of the file's mode and the output of %m.  Normally you will
want to have a leading zero on this number, and to do this, you should use the # flag (as in, for example,
`%#m').
%M     File's permissions (in symbolic form, as for ls).  This directive is  supported  in  findutils  4.2.5  and
later.
%n     Number of hard links to file.
%p     File's name.
%P     File's name with the name of the starting-point under which it was found removed.
%s     File's size in bytes.
%S     File's  sparseness.   This is calculated as (BLOCKSIZE*st_blocks / st_size).  The exact value you will get
for an ordinary file of a certain length is system-dependent.  However, normally sparse  files  will  have
values  less than 1.0, and files which use indirect blocks may have a value which is greater than 1.0.  In
general the number of blocks used by a file is file system dependent.  The value  used  for  BLOCKSIZE  is
system-dependent, but is usually 512 bytes.  If the file size is zero, the value printed is undefined.  On
systems which lack support for st_blocks, a file's sparseness is assumed to be 1.0.
%t     File's last modification time in the format returned by the C `ctime' function.
%Tk    File's last modification time in the format specified by k, which is the same as for %A.
%u     File's user name, or numeric user ID if the user has no name.
%U     File's numeric user ID.
%y     File's type (like in ls -l), U=unknown type (shouldn't happen)
%Y     File's type (like %y), plus follow symlinks: `L'=loop, `N'=nonexistent, `?' for any other error  when  de‐
termining the type of the symlink target.
%Z     (SELinux only) file's security context.
%{ %[ %(
Reserved for future use.
A  `%'  character followed by any other character is discarded, but the other character is printed (don't rely on
this, as further format characters may be introduced).  A `%' at the end of the format argument causes  undefined
behaviour since there is no following character.  In some locales, it may hide your door keys, while in others it
may remove the final page from the novel you are reading.
The %m and %d directives support the # , 0 and + flags, but the other directives do not, even if they print  num‐
bers.   Numeric  directives  that do not support these flags include G, U, b, D, k and n.  The `-' format flag is
supported and changes the alignment of a field from right-justified (which is the default) to left-justified.
See the UNUSUAL FILENAMES section for information about how unusual characters in filenames are handled.
-prune True; if the file is a directory, do not descend into it.  If -depth is given, then -prune has  no  effect.   Be‐
cause -delete implies -depth, you cannot usefully use -prune and -delete together.
For  example,  to skip the directory `src/emacs' and all files and directories under it, and print the names of
the other files found, do something like this:
find . -path ./src/emacs -prune -o -print
-quit  Exit immediately.  No child processes will be left running, but no more paths specified on the command line  will
be  processed.   For  example,  find  /tmp/foo /tmp/bar -print -quit will print only /tmp/foo.  Any command lines
which have been built up with -execdir ... {} + will be invoked before find exits.  The exit status  may  or  may
not be zero, depending on whether an error has already occurred.

OPERATORS


Listed in order of decreasing precedence:

   ( expr )
Force precedence.  Since parentheses are special to the shell, you will normally need to quote them.  Many of the
examples in this manual page use backslashes for this purpose: `\(...\)' instead of `(...)'.
! expr True if expr is false.  This character will also usually need protection from interpretation by the shell.
-not expr
Same as ! expr, but not POSIX compliant.
expr1 expr2
Two expressions in a row are taken to be joined with an implied -a; expr2 is not evaluated if expr1 is false.
expr1 -a expr2
Same as expr1 expr2.
expr1 -and expr2
Same as expr1 expr2, but not POSIX compliant.
expr1 -o expr2
Or; expr2 is not evaluated if expr1 is true.
expr1 -or expr2
Same as expr1 -o expr2, but not POSIX compliant.
expr1 , expr2
List; both expr1 and expr2 are always evaluated.  The value of expr1 is discarded; the value of the list  is  the
value  of  expr2.   The  comma  operator  can  be  useful for searching for several different types of thing, but
traversing the filesystem hierarchy only once.  The -fprintf action can be used to list the various matched items
into several different output files.
Please  note  that -a when specified implicitly (for example by two tests appearing without an explicit operator between
them) or explicitly has higher precedence than -o.  This means that find . -name afile -o -name bfile -print will  never
print afile.

UNUSUAL FILENAMES


Many of the actions of find result in the printing of data which is under the control of other users. This includes file names, sizes, modification times and so forth. File names are a potential problem since they can contain any character except \0' and/’. Unusual characters in file names can do unexpected and often undesirable things to your terminal (for example, changing the settings of your function keys on some terminals). Unusual characters are handled differently by various actions, as described below.

   -print0, -fprint0
Always print the exact filename, unchanged, even if the output is going to a terminal.
-ls, -fls
Unusual  characters are always escaped.  White space, backslash, and double quote characters are printed using C-
style escaping (for example `\f', `\"').  Other unusual characters are printed  using  an  octal  escape.   Other
printable characters (for -ls and -fls these are the characters between octal 041 and 0176) are printed as-is.
-printf, -fprintf
If  the output is not going to a terminal, it is printed as-is.  Otherwise, the result depends on which directive
is in use.  The directives %D, %F, %g, %G, %H, %Y, and %y expand to values which are not under control of  files'
owners, and so are printed as-is.  The directives %a, %b, %c, %d, %i, %k, %m, %M, %n, %s, %t, %u and %U have val‐
ues which are under the control of files' owners but which cannot be used to send arbitrary data to the terminal,
and  so  these are printed as-is.  The directives %f, %h, %l, %p and %P are quoted.  This quoting is performed in
the same way as for GNU ls.  This is not the same quoting mechanism as the one used for -ls and -fls.  If you are
able  to  decide what format to use for the output of find then it is normally better to use `\0' as a terminator
than to use newline, as file names can contain white space and newline characters.  The setting of the `LC_CTYPE'
environment variable is used to determine which characters need to be quoted.
-print, -fprint
Quoting is handled in the same way as for -printf and -fprintf.  If you are using find in a script or in a situa‐
tion where the matched files might have arbitrary names, you should consider using -print0 instead of -print.
The -ok and -okdir actions print the current filename as-is.  This may change in a future release.

STANDARDS CONFORMANCE


For closest compliance to the POSIX standard, you should set the POSIXLY_CORRECT environment variable. The following options are specified in the POSIX standard (IEEE Std 1003.1-2008, 2016 Edition):

   -H     This option is supported.
-L     This option is supported.
-name  This  option  is supported, but POSIX conformance depends on the POSIX conformance of the system's fnmatch(3) li‐
brary function.  As of findutils-4.2.2, shell metacharacters (`*', `?' or `[]' for example) will match a  leading
`.', because IEEE PASC interpretation 126 requires this.  This is a change from previous versions of findutils.
-type  Supported.   POSIX  specifies  `b',  `c', `d', `l', `p', `f' and `s'.  GNU find also supports `D', representing a
Door, where the OS provides these.  Furthermore, GNU find allows multiple types to be  specified  at  once  in  a
comma-separated list.
-ok    Supported.   Interpretation  of  the response is according to the `yes' and `no' patterns selected by setting the
`LC_MESSAGES' environment variable.  When the `POSIXLY_CORRECT' environment variable is set, these  patterns  are
taken  system's  definition  of  a  positive (yes) or negative (no) response.  See the system's documentation for
nl_langinfo(3), in particular YESEXPR and NOEXPR.  When `POSIXLY_CORRECT' is not set, the  patterns  are  instead
taken from find's own message catalogue.
-newer Supported.   If the file specified is a symbolic link, it is always dereferenced.  This is a change from previous
behaviour, which used to take the relevant time from the symbolic link; see the HISTORY section below.
-perm  Supported.  If the POSIXLY_CORRECT environment variable is not set, some mode arguments (for example +a+x)  which
are not valid in POSIX are supported for backward-compatibility.
Other primaries
The  primaries  -atime,  -ctime,  -depth,  -exec,  -group, -links, -mtime, -nogroup, -nouser, -ok, -path, -print,
-prune, -size, -user and -xdev are all supported.
The POSIX standard specifies parentheses `(', `)', negation `!' and the `and' and `or' operators ( -a, -o).
All other options, predicates, expressions and so forth are extensions beyond the POSIX standard.  Many of these  exten‐
sions are not unique to GNU find, however.
The POSIX standard requires that find detects loops:
The  find utility shall detect infinite loops; that is, entering a previously visited directory that is an ances‐
tor of the last file encountered.  When it detects an infinite loop, find shall write  a  diagnostic  message  to
standard error and shall either recover its position in the hierarchy or terminate.
GNU  find complies with these requirements.  The link count of directories which contain entries which are hard links to
an ancestor will often be lower than they otherwise should be.  This can mean that GNU find will sometimes optimise away
the  visiting of a subdirectory which is actually a link to an ancestor.  Since find does not actually enter such a sub‐
directory, it is allowed to avoid emitting a diagnostic message.  Although this behaviour may be somewhat confusing,  it
is unlikely that anybody actually depends on this behaviour.  If the leaf optimisation has been turned off with -noleaf,
the directory entry will always be examined and the diagnostic message will be issued where it is appropriate.  Symbolic
links  cannot be used to create filesystem cycles as such, but if the -L option or the -follow option is in use, a diag‐
nostic message is issued when find encounters a loop of symbolic links.  As with loops containing hard links,  the  leaf
optimisation  will  often  mean  that find knows that it doesn't need to call stat() or chdir() on the symbolic link, so
this diagnostic is frequently not necessary.
The -d option is supported for compatibility with various BSD systems, but you should  use  the  POSIX-compliant  option
-depth instead.
The  POSIXLY_CORRECT  environment  variable  does  not affect the behaviour of the -regex or -iregex tests because those
tests aren't specified in the POSIX standard.

ENVIRONMENT VARIABLES


LANG Provides a default value for the internationalisation variables that are unset or null.

   LC_ALL If set to a non-empty string value, override the values of all the other internationalization variables.
LC_COLLATE
The POSIX standard specifies that this variable affects the pattern matching to be used  for  the  -name  option.
GNU  find  uses  the  fnmatch(3) library function, and so support for `LC_COLLATE' depends on the system library.
This variable also affects the interpretation of the response to -ok; while the  `LC_MESSAGES'  variable  selects
the  actual  pattern  used to interpret the response to -ok, the interpretation of any bracket expressions in the
pattern will be affected by `LC_COLLATE'.
LC_CTYPE
This variable affects the treatment of character classes used in regular expressions  and  also  with  the  -name
test,  if  the system's fnmatch(3) library function supports this.  This variable also affects the interpretation
of any character classes in the regular expressions used to interpret the response to the prompt issued  by  -ok.
The `LC_CTYPE' environment variable will also affect which characters are considered to be unprintable when file‐
names are printed; see the section UNUSUAL FILENAMES.
LC_MESSAGES
Determines the locale to be used for internationalised messages.  If the `POSIXLY_CORRECT'  environment  variable
is set, this also determines the interpretation of the response to the prompt made by the -ok action.
NLSPATH
Determines the location of the internationalisation message catalogues.
PATH   Affects the directories which are searched to find the executables invoked by -exec, -execdir, -ok and -okdir.
POSIXLY_CORRECT
Determines  the block size used by -ls and -fls.  If POSIXLY_CORRECT is set, blocks are units of 512 bytes.  Oth‐
erwise they are units of 1024 bytes.
Setting this variable also turns off warning messages (that is, implies -nowarn) by default,  because  POSIX  re‐
quires  that  apart  from the output for -ok, all messages printed on stderr are diagnostics and must result in a
non-zero exit status.
When POSIXLY_CORRECT is not set, -perm +zzz is treated just like -perm /zzz if +zzz is not a valid symbolic mode.
When POSIXLY_CORRECT is set, such constructs are treated as an error.
When  POSIXLY_CORRECT  is  set, the response to the prompt made by the -ok action is interpreted according to the
system's message catalogue, as opposed to according to find's own message translations.
TZ     Affects the time zone used for some of the time-related format directives of -printf and -fprintf.

Find Command Examples

find /tmp -name core -type f -print | xargs /bin/rm -f

Find files named core in or below the directory /tmp and delete them. Note that this will work incorrectly if there are any filenames containing newlines, single or double quotes, or spaces.

find /tmp -name core -type f -print0 | xargs -0 /bin/rm -f

Find files named core in or below the directory /tmp and delete them, processing filenames in such a way that file or directory names containing single or double quotes, spaces or newlines are correctly handled. The -name test comes before the -type test in order to avoid having to call stat(2) on every file.

find . -type f -exec file '{}' \;

Runs `file’ on every file in or below the current directory. Notice that the braces are enclosed in single quote marks to protect them from interpretation as shell script punctuation. The semicolon is similarly protected by the use of a backslash, though single quotes could have been used in that case also.

find / \( -perm -4000 -fprintf /root/suid.txt '%#m %u %p\n' \) , \
\( -size +100M -fprintf /root/big.txt '%-10s %p\n' \)

Traverse the filesystem just once, listing setuid files and directories into /root/suid.txt and large files into /root/big.txt.

find $HOME -mtime 0

Search for files in your home directory which have been modified in the last twenty-four hours. This command works this way because the time since each file was last modified is divided by 24 hours and any remainder is discarded. That means that to match -mtime 0, a file will have to have a modification in the past which is less than 24 hours ago.

find /sbin /usr/sbin -executable \! -readable -print

Search for files which are executable but not readable.

find . -perm 664

Search for files which have read and write permission for their owner, and group, but which other users can read but not write to. Files which meet these criteria but have other permissions bits set (for example if someone can execute the file) will not be matched.

find . -perm -664

Search for files which have read and write permission for their owner and group, and which other users can read, without regard to the presence of any extra permission bits (for example the executable bit). This will match a file which has mode 0777, for example.

find . -perm /222

Search for files which are writable by somebody (their owner, or their group, or anybody else).

find . -perm /220
find . -perm /u+w,g+w
find . -perm /u=w,g=w

All three of these commands do the same thing, but the first one uses the octal representation of the file mode, and the other two use the symbolic form. These commands all search for files which are writable by either their owner or their group. The files don’t have to be writable by both the owner and group to be matched; either will do.

find . -perm -220
find . -perm -g+w,u+w

Both these commands do the same thing; search for files which are writable by both their owner and their group.

find . -perm -444 -perm /222 \! -perm /111
find . -perm -a+r -perm /a+w \! -perm /a+x

These two commands both search for files that are readable for everybody ( -perm -444 or -perm -a+r), have at least one write bit set ( -perm /222 or -perm /a+w) but are not executable for anybody ( ! -perm /111 and ! -perm /a+x respectively).

cd /source-dir
find . -name .snapshot -prune -o \( \! -name '*~' -print0 \)| cpio -pmd0 /dest-dir

This command copies the contents of /source-dir to /dest-dir, but omits files and directories named .snapshot (and anything in them). It also omits files or directories whose name ends in ~, but not their contents. The construct -prune -o \( … -print0 \) is quite common. The idea here is that the expression before -prune matches things which are to be pruned.

However, the -prune action itself returns true, so the following -o ensures that the right hand side is evaluated only for those directories which didn’t get pruned (the contents of the pruned directories are not even visited, so their contents are irrelevant). The expression on the right hand side of the -o is in parentheses only for clarity. It emphasises that the -print0 action takes place only for things that didn’t have -prune applied to them. Because the default `and’ condition between tests binds more tightly than -o, this is the default anyway, but the parentheses help to show what is going on.

find repo/ \( -exec test -d '{}'/.svn \; -or \
-exec test -d {}/.git \; -or -exec test -d {}/CVS \; \) \
-print -prune

Given the following directory of projects and their associated SCM administrative directories, perform an efficient search for the projects’ roots:

repo/project1/CVS
repo/gnu/project2/.svn
repo/gnu/project3/.svn
repo/gnu/project3/src/.svn
repo/project4/.git

In this example, -prune prevents unnecessary descent into directories that have already been discovered (for example we do not search project3/src because we already found project3/.svn), but ensures sibling directories (project2 and project3) are found.

find /tmp -type f,d,l

Search for files, directories, and symbolic links in the directory /tmp passing these types as a comma-separated list (GNU extension), which is otherwise equivalent to the longer, yet more portable:

find /tmp \( -type f -o -type d -o -type l \)

EXIT STATUS


find exits with status 0 if all files are processed successfully, greater than 0 if errors occur. This is deliberately a very broad description, but if the return value is non-zero, you should not rely on the correctness of the results of find.

When some error occurs, find may stop immediately, without completing all the actions specified. For example, some starting points may not have been examined or some pending program invocations for -exec … {} + or -execdir … {} + may not have been performed.

SEE ALSO

locate(1), locatedb(5), updatedb(1), xargs(1), chmod(1), fnmatch(3), regex(7), stat(2), lstat(2), ls(1), printf(3), strftime(3), ctime(3)

The full documentation for find is maintained as a Text info manual. If the info and find programs are properly installed at your site, the command info find should give you access to the complete manual.

Updated on September 2, 2021

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