rush is a tool similar to GNU parallel
and gargs.
rush borrows some idea from them and has some unique features,
e.g.,
supporting custom defined variables,
resuming multi-line commands,
more advanced embeded replacement strings.
These features make rush suitable for easily and flexibly parallelizing
complex workflows in fields like Bioinformatics (see examples).
- Features
- Performance
- Installation
- Usage
- Examples
- Special Cases
- Contributors
- Acknowledgements
- Contact
- License
Major:
- Supporting Linux, OS X and Windows (not CygWin)!
- Avoid mixed line from multiple processes without loss of performance,
e.g. the first half of a line is from one process
and the last half of the line is from another process.
(
--line-bufferin GNU parallel) - Timeout (
-t), terminating the timed-out command and its child-process tree. (--timeoutin GNU parallel) - Retry (
-r). (--retry-failed --joblogin GNU parallel) - Start and resource limits:
--delay,--load, and--memfreestagger new jobs and wait for available system capacity. - Safe exit after capturing Ctrl-C: Linux uses native
SIGINT/SIGKILLsignals; Windows usesCtrl+C/Ctrl+Breakfollowed bytaskkill /T /Fto terminate the process tree. - Continue (
-c). (--resume --joblogin GNU parallel,sut it does not support multi-line commands, which are common in workflow) awk -vlike custom defined variables (-v). (Using Shell variable in GNU parallel)- Keeping output in order of input (
-k). (Same-k/--keep-orderin GNU parallel) - Exit on first error (
-e): stop scheduling and clean up active child processes. (--halt 2in GNU parallel) - Settable record delimiter (
-D, default\n). (--recstartand--recendin GNU parallel) - Settable records sending to every command (
-n, default1). (-n/--max-argsin GNU parallel) - Send record batches to commands via standard input (
--pipe). (--pipein GNU parallel) - Settable field delimiter (
-d, default\s+). (Same-d/--delimiterin GNU parallel) - Practical replacement strings (like GNU parallel):
- Input data
{}, full data. (Same in GNU parallel){n},nth field in delimiter-delimited data. (Same in GNU parallel)
- Job related
{#}, job ID. With--continue, its saved form is stable when input order changes. (Same replacement string as GNU parallel.){?}, threads per job, computed asmax(1, CPUs / jobs). With--continue, its saved form stays stable when the job count changes. (Not directly supported in GNU parallel)
- Directory and file
{/}, dirname. ({//}in GNU parallel){%}, basename. ({/}in GNU parallel){.}, remove the last file extension. (Same in GNU parallel){:}, remove all file extensions (Not directly supported in GNU parallel){^suffix}, removesuffix(Not directly supported in GNU parallel){@regexp}, capture submatch using regular expression (Not directly supported in GNU parallel). There's a limitation here: curly brackets can't be used in the regular expression.
- Combinations
{%.},{%:}, basename without extension{2.},{2/},{2%.}, manipulatenth field{file:},{file:^_1}, remove all extensions of a preset variable (see below)
- Special symbols
{{}},{}itself{{1,}}, data containing double quotes{1,}.
- Input data
- Preset variable (macro), e.g.,
rush -v p={^suffix} 'echo {p}_new_suffix', where{p}is replaced with{^suffix}. (Using Shell variable in GNU parallel)
Minor:
- Dry run (
--dry-run). (Same in GNU parallel) - Trim input data (
--trim). (Same in GNU parallel) - Verbose output (
--verbose). (Same in GNU parallel)
Note that the comparison between rush and GNU parallel might be outdated, as both tools might have improved. See Differences between rush and GNU parallel on GNU parallel site.
Performance of rush is similar to gargs, and they are both slightly faster than parallel (Perl) and both slower than Rust parallel (discussion).
Note that speed is not the #.1 target, especially for processes that last long.
rush is implemented in Go programming language,
executable binary files for most popular operating systems are freely available
in release page.
Install conda, then run
conda install -c conda-forge rush
Or use mamba, which is faster.
mamba install -c conda-forge rush
Add the rush Scoop bucket and install the published Windows build:
scoop bucket add rush https://github.com/shenwei356/rush
scoop install rush/rush
Scoop selects the 32-bit, 64-bit, or ARM64 binary for your system. The bucket manifest is updated automatically after a stable release is published with all three Windows archives. To get the new version, run scoop update followed by scoop update rush.
Tip: run rush -V to check update !!!
| OS | Arch | File, | Download Count |
|---|---|---|---|
| Linux | 32-bit | rush_linux_386.tar.gz | |
| Linux | 64-bit | rush_linux_amd64.tar.gz | |
| Linux | arm64 | rush_linux_arm64.tar.gz | |
| OS X | 64-bit | rush_darwin_amd64.tar.gz | |
| OS X | arm64 | rush_darwin_arm64.tar.gz | |
| Windows | 32-bit | rush_windows_386.exe.tar.gz | |
| Windows | 64-bit | rush_windows_amd64.exe.tar.gz | |
| Windows | arm64 | rush_windows_arm64.exe.tar.gz | |
| OpenBSD | 64-bit | rush_openbsd_amd64.tar.gz | |
| OpenBSD | arm64 | rush_openbsd_arm64.tar.gz | |
| FreeBSD | 64-bit | rush_freebsd_amd64.tar.gz | |
| FreeBSD | arm64 | rush_freebsd_arm64.tar.gz |
Just download compressed
executable file of your operating system,
and decompress it with tar -zxvf *.tar.gz command or other tools.
And then:
-
For Linux-like systems
-
If you have root privilege simply copy it to
/usr/local/bin:sudo cp rush /usr/local/bin/ -
Or copy to anywhere in the environment variable
PATH:mkdir -p $HOME/bin/; cp rush $HOME/bin/
-
-
For windows, just copy
rush.exetoC:\WINDOWS\system32.
go install github.com/shenwei356/rush@latest
# download Go from https://go.dev/dl
wget https://go.dev/dl/go1.25.14.linux-amd64.tar.gz
tar -zxf go1.25.14.linux-amd64.tar.gz -C $HOME/
# or
# echo "export PATH=$PATH:$HOME/go/bin" >> ~/.bashrc
# source ~/.bashrc
export PATH=$PATH:$HOME/go/bin
git clone https://github.com/shenwei356/rush
cd rush
go build
# or statically-linked binary
CGO_ENABLED=0 go build -tags netgo -ldflags '-w -s'
# or cross compile for other operating systems and architectures
CGO_ENABLED=0 GOOS=openbsd GOARCH=amd64 go build -tags netgo -ldflags '-w -s'
rush -- a cross-platform command-line tool for executing jobs in parallel
Version: 0.11.0
Author: Wei Shen <shenwei356@gmail.com>
Homepage: https://github.com/shenwei356/rush
Input:
- Input could be a list of strings or numbers, e.g., file paths.
- Input can be given either from the STDIN or file(s) via the option -i/--infile.
- Some options could be used to defined how the input records are parsed:
-d, --field-delimiter field delimiter in records (default "\s+")
-D, --record-delimiter record delimiter (default "\n")
-n, --nrecords number of records sent to a command (default 1)
-J, --records-join-sep record separator for joining multi-records (default "\n")
--pipe send each group of records to the command's standard input
-T, --trim trim white space (" \t\r\n") in input
Output:
- Outputs of all commands are written to STDOUT by default,
you can also use -o/--out-file to specify a output file.
- Outputs of all commands are random, you can use the flag -k/--keep-order
to keep output in order of input.
- Outputs of all commands are buffered, you can use the flag -I/--immediate-output
to print output immediately and interleaved.
Replacement strings in commands:
{} full data
{n} nth field in delimiter-delimited data
{/} dirname
{%} basename
{.} remove the last file extension
{:} remove all file extensions.
{^suffix} remove suffix
{@regexp} capture submatch using regular expression.
Limitation: curly brackets can't be used in the regexp.
{#} job ID
{?} a value computed as $cpus / $jobs, which can be used as the number of
threads for each command. This value is dynamically adjusted according
to the number of jobs (-j/--jobs).
With --continue, {#} and {?} are kept stable in the successful-command file,
so changing input order or job count does not rerun otherwise unchanged jobs.
Escaping curly brackets "{}":
{{}} {}
{{1}} {1}
{{1,}} {1,}
{{a}} {a}
Combinations:
{%.}, {%:} basename without extension
{2.}, {2/}, {2%.} manipulate nth field
{file:}, {file:^_1} remove all extensions of a preset variable (see below)
Preset variable (macro):
1. You can pass variables to the command like awk via the option -v. E.g.,
$ seq 3 | rush -v p=prefix_ -v s=_suffix 'echo {p}{}{s}'
prefix_3_suffix
prefix_1_suffix
prefix_2_suffix
2. A variable name should start with a letter and be followed by letters, digits, or underscores.
A regular expression is used to check them: ^[a-zA-Z][A-Za-z0-9_]*$
3. The value could also contain replacement strings.
# {p} will be replaced with {%:}, which computes the basename and remove all file extensions.
$ echo a/b/c.txt.gz | rush -v 'p={%:}' 'echo {p} {p}.csv'
c c.csv
Usage:
rush [flags] [command]
Examples:
1. simple run, quoting is not necessary
$ seq 1 10 | rush echo {}
2. keep order
$ seq 1 10 | rush 'echo {}' -k
3. timeout
$ seq 1 | rush 'sleep 2; echo {}' -t 1
4. retry
$ seq 1 | rush 'python script.py' -r 3
5. dirname & basename & remove suffix
$ echo dir/file_1.txt.gz | rush 'echo {/} {%} {^_1.txt.gz}'
dir file.txt.gz dir/file
6. basename without the last or any extension
$ echo dir.d/file.txt.gz | rush 'echo {.} {:} {%.} {%:}'
dir.d/file.txt dir.d/file file.txt file
7. job ID, combine fields and other replacement strings
$ echo 12 file.txt dir/s_1.fq.gz | rush 'echo job {#}: {2} {2.} {3%:^_1}'
job 1: file.txt file s
8. capture submatch using regular expression
$ echo read_1.fq.gz | rush 'echo {@(.+)_\d}'
read
9. custom field delimiter
$ echo a=b=c | rush 'echo {1} {2} {3}' -d =
a b c
10. custom record delimiter
$ echo a=b=c | rush -D "=" -k 'echo {}'
a
b
c
$ echo abc | rush -D "" -k 'echo {}'
a
b
c
11. assign value to variable, like "awk -v"
# seq 1 | rush 'echo Hello, {fname} {lname}!' -v fname=Wei,lname=Shen
$ seq 1 | rush 'echo Hello, {fname} {lname}!' -v fname=Wei -v lname=Shen
Hello, Wei Shen!
# preset variables support extra operations as well.
echo read_1.fq.gz | ./rush -v 'p={:^_1}' -v 'f=a.s-10.txt' 'echo {} {p} {f:} {f@s\-(\d+)}'
read_1.fq.gz read a 10
12. preset variable (Macro)
# equal to: echo sample_1.fq.gz | rush 'echo {:^_1} {} {:^_1}_2.fq.gz'
$ echo sample_1.fq.gz | rush -v p={:^_1} 'echo {p} {} {p}_2.fq.gz'
sample sample_1.fq.gz sample_2.fq.gz
13. save successful commands to continue in NEXT run
$ seq 1 3 | rush 'sleep {}; echo {}' -c -t 2
[ERRO] run cmd #1: sleep 2; echo 2: time out
[ERRO] run cmd #2: sleep 3; echo 3: time out
14. escape special symbols
$ seq 1 | rush 'echo -e "a\tb" | awk "{print $1}"' -q
a
15. escape curly brackets "{}"
$ echo aaa bbb ccc | sed -E "s/(\S){3,}/\1/g"
a b c
$ echo 1 | rush 'echo aaa bbb ccc | sed -E "s/(\S){{3,}}/\1/g"' --dry-run
echo aaa bbb ccc | sed -E "s/(\S){3,}/\1/g"
16. run a command with relative paths in Windows, please use backslash as the separator.
# "brename -l -R" is used to search paths recursively
$ brename -l -q -R -i -p "\.go$" | rush "bin\app.exe {}"
17. send a fixed number of records to each command's standard input
$ seq 10000 | rush --pipe -n 1000 -j 4 'wc -l'
More examples: https://github.com/shenwei356/rush
Flags:
-v, --assign strings assign the value val to the variable var (format: var=val, val also
supports replacement strings)
--cleanup-time int time to allow child processes to clean up between stop / kill signals
(unit: seconds, 0 for no time) (default 3) (default 3)
-c, --continue continue jobs. NOTES: 1) successful commands are saved in file (given
by flag -C/--succ-cmd-file); 2) if the file does not exist, rush saves
data so we can continue jobs next time; 3) if the file exists, rush
ignores jobs in it and update the file; 4) skipped jobs are silent
unless --verbose is used
--delay float minimum seconds between starting jobs (supports fractions)
--dry-run print command but not run
-q, --escape escape special symbols like $ which you can customize by flag
-Q/--escape-symbols
-Q, --escape-symbols string symbols to escape (default "$#&`")
--eta show ETA progress bar
-d, --field-delimiter string field delimiter in records, support regular expression (default "\\s+")
-h, --help help for rush
-I, --immediate-output print output immediately and interleaved, to aid debugging
-i, --infile strings input data file, multi-values supported
-j, --jobs int run n jobs in parallel (default value depends on your device) (default 16)
-k, --keep-order keep output in order of input
--load string start jobs only while system load is below this value (number or
percent of CPUs)
--memfree string minimum available memory before starting jobs (bytes or K/M/G/T/P suffix)
--no-kill-exes strings exe names to exclude from kill signal, example: mspdbsrv.exe; or use
all for all exes (default none)
--no-stop-exes strings exe names to exclude from stop signal, example: mspdbsrv.exe; or use
all for all exes (default none)
-n, --nrecords int number of records sent to a command (default 1)
-o, --out-file string out file ("-" for stdout) (default "-")
--pipe send each group of records to the command's standard input
--print-retry-output print output from retry commands (default true)
--propagate-exit-status propagate child exit status up to the exit status of rush (default true)
-D, --record-delimiter string record delimiter (default is "\n") (default "\n")
-J, --records-join-sep string record separator for joining multi-records (default is "\n") (default "\n")
-r, --retries int maximum retries (default 0)
--retry-interval float retry interval (unit: second, supports fractions like 0.5) (default 0)
-e, --stop-on-error stop scheduling and clean up active child processes on first error
-C, --succ-cmd-file string file for saving successful commands (default "successful_cmds.rush")
-t, --timeout int timeout of a command (unit: seconds, 0 for no timeout) (default 0)
-T, --trim string trim white space (" \t\r\n") in input (available values: "l" for left,
"r" for right, "lr", "rl", "b" for both side)
--verbose print verbose information
-V, --version print version information and check for update
--delay sets the minimum interval between process starts in seconds, for example
--delay 0.5. --load 100% allows a new job only when the system's one-minute
load average is below the number of CPUs; a number such as --load 4 sets an
absolute threshold. --memfree 1G waits until at least 1 GiB of physical memory
is available. Uppercase size suffixes use powers of 1024, and lowercase suffixes
use powers of 1000. These limits apply to starts and retries; -j still caps
the number of concurrent jobs.
If available memory falls below half the --memfree threshold, rush stops the
youngest running job and places it back in the queue. Its buffered standard
output is discarded; standard error already written may remain visible. This
restart does not use one of its -r/--retries attempts.
On Windows, the load average is estimated from the processor queue and may
initially read as zero. Resource checks use system-wide values, so memory
limits imposed on a container may differ from the reported available memory.
seq 10 | rush -j 4 --delay 0.5 --load 100% --memfree 1G 'run-test {}'
-
Simple run, quoting is not necessary
# seq 1 3 | rush 'echo {}' $ seq 1 3 | rush echo {} 3 1 2 -
Read data from file (
-i)$ rush echo {} -i data1.txt -i data2.txt -
Keep output order (
-k)$ seq 1 3 | rush 'echo {}' -k 1 2 3 -
Timeout (
-t)$ time seq 1 | rush 'sleep 2; echo {}' -t 1 [ERRO] run command #1: sleep 2; echo 1: time out real 0m1.010s user 0m0.005s sys 0m0.007s -
Retry (
-r)$ seq 1 | rush 'python unexisted_script.py' -r 1 python: can't open file 'unexisted_script.py': [Errno 2] No such file or directory [WARN] wait command: python unexisted_script.py: exit status 2 python: can't open file 'unexisted_script.py': [Errno 2] No such file or directory [ERRO] wait command: python unexisted_script.py: exit status 2 -
Input containing
{}(since v0.11.0)$ echo "a attr{href}"="h4 text{}" | rush -T b -k -D "=" 'echo "{}"' a attr{href} h4 text{} $ echo -ne "a{},b{{}},c{d}" | rush -D , -k "echo {}" a{} b{{}} c{d} -
Output
{}itself (since v0.7.0)$ echo abc | rush 'echo "{} {{}}"' abc {} -
Dirname (
{/}) and basename ({%}) and remove custom suffix ({^suffix})$ echo dir/file_1.txt.gz | rush 'echo {/} {%} {^_1.txt.gz}' dir file_1.txt.gz dir/file -
Get basename, and remove last (
{.}) or any ({:}) extension$ echo dir.d/file.txt.gz | rush 'echo {.} {:} {%.} {%:}' dir.d/file.txt dir.d/file file.txt file -
Job ID, combine fields index and other replacement strings
$ echo 12 file.txt dir/s_1.fq.gz | rush 'echo "job {#}: {2} {2.} {3%:^_1}"' job 1: file.txt file s -
Combine
{#}with-c/--continue.$ seq 5 | rush 'timeout 3 sh -c "sleep {}; echo \"job {#}: input {}\""' -c job 1: input 1 job 2: input 2 15:37:10.744 [ERRO] wait cmd #4: timeout 3 sh -c "sleep 4; echo \"job 4: input 4\"": exit status 124 15:37:10.744 [ERRO] wait cmd #3: timeout 3 sh -c "sleep 3; echo \"job 3: input 3\"": exit status 124 15:37:10.744 [ERRO] wait cmd #5: timeout 3 sh -c "sleep 5; echo \"job 5: input 5\"": exit status 124 $ cat successful_cmds.rush timeout 3 sh -c "sleep 1; echo \"job {#}: input 1\""__CMD__ timeout 3 sh -c "sleep 2; echo \"job {#}: input 2\""__CMD__ $ seq 5 | rush 'timeout 3 sh -c "sleep {}; echo \"job {#}: input {}\""' -c 15:37:19.186 [ERRO] wait cmd #2: timeout 3 sh -c "sleep 4; echo \"job 4: input 4\"": exit status 124 15:37:19.186 [ERRO] wait cmd #1: timeout 3 sh -c "sleep 3; echo \"job 3: input 3\"": exit status 124 15:37:19.186 [ERRO] wait cmd #3: timeout 3 sh -c "sleep 5; echo \"job 5: input 5\"": exit status 124 -
Capture submatch using regular expression (
{@regexp})$ echo read_1.fq.gz | rush 'echo {@(.+)_\d}' -
Custom field delimiter (
-d)$ echo a=b=c | rush 'echo {1} {2} {3}' -d = a b c -
Send multi-lines to every command (
-n)$ seq 5 | rush -n 2 -k 'echo "{}"; echo' 1 2 3 4 5 # Multiple records are joined with separator `"\n"` (`-J/--records-join-sep`) $ seq 5 | rush -n 2 -k 'echo "{}"; echo' -J ' ' 1 2 3 4 5 $ seq 5 | rush -n 2 -k -j 3 'echo {1}' 1 3 5 -
Send record batches to the command's standard input (
--pipe)$ seq 5 | rush --pipe -n 2 -k 'wc -l' 2 2 1-nsets the maximum number of records in each batch.-Dcontrols the input record delimiter. A delimiter terminating a non-empty record is preserved, while an unterminated final record remains unterminated. Empty records are ignored, as in normal mode.-Jonly affects record placeholders and does not change data sent to standard input.Retries receive the same batch again. With
--continue, a batch is identified by both the expanded command and a digest of its standard input. Replacement strings remain available, but omit record placeholders such as{}when the goal is to avoid shell command-line size limits.rushcurrently reads all input before starting jobs.--pipeavoids command-line size limits, but does not yet provide streaming block processing. -
Custom record delimiter (
-D), note that empty records are not used.$ echo a b c d | rush -D " " -k 'echo {}' a b c d $ echo abcd | rush -D "" -k 'echo {}' a b c d # FASTA format $ echo -ne ">seq1\nactg\n>seq2\nAAAA\n>seq3\nCCCC" >seq1 actg >seq2 AAAA >seq3 CCCC $ echo -ne ">seq1\nactg\n>seq2\nAAAA\n>seq3\nCCCC" | rush -D ">" 'echo FASTA record {#}: name: {1} sequence: {2}' -k -d "\n" FASTA record 1: name: seq1 sequence: actg FASTA record 2: name: seq2 sequence: AAAA FASTA record 3: name: seq3 sequence: CCCC -
Assign value to variable, like
awk -v(-v)$ seq 1 | rush 'echo Hello, {fname} {lname}!' -v fname=Wei -v lname=Shen Hello, Wei Shen! $ seq 1 | rush 'echo Hello, {fname} {lname}!' -v fname=Wei,lname=Shen Hello, Wei Shen! $ for var in a b; do \ $ seq 1 3 | rush -k -v var=$var 'echo var: {var}, data: {}'; \ $ done var: a, data: 1 var: a, data: 2 var: a, data: 3 var: b, data: 1 var: b, data: 2 var: b, data: 3 -
Preset variables support extra operations as well!!!
$ echo read_1.fq.gz | ./rush -v 'p={:^_1}' -v 'f=a.s-10.txt' 'echo {} {p} {f:} {f@s\-(\d+)}' read_1.fq.gz read a 10 -
Preset variable (
-v), avoid repeatedly writing verbose replacement strings# naive way $ echo read_1.fq.gz | rush 'echo {:^_1} {:^_1}_2.fq.gz' read read_2.fq.gz # macro + removing suffix $ echo read_1.fq.gz | rush -v p='{:^_1}' 'echo {p} {p}_2.fq.gz' # macro + regular expression $ echo read_1.fq.gz | rush -v p='{@(.+?)_\d}' 'echo {p} {p}_2.fq.gz' -
Escape special symbols
$ seq 1 | rush 'echo "I have $100"' I have 00 $ seq 1 | rush 'echo "I have $100"' -q I have $100 $ seq 1 | rush 'echo "I have $100"' -q --dry-run echo "I have \$100" $ seq 1 | rush 'echo -e "a\tb" | awk "{print $1}"' a b $ seq 1 | rush 'echo -e "a\tb" | awk "{print $1}"' -q a -
Interrupt jobs by
Ctrl-C, rush will stop unfinished commands and exit.Process cleanup differs by platform:
- Linux: rush sends
SIGINTto every marked child process, waits up to--cleanup-time, and then sendsSIGKILLto any remaining processes using native system calls. - Windows: rush starts each command in a new process group and sends that group a directed
Ctrl+Break, followed by forced tree cleanup. Windows cannot directCtrl+Cto a child group; a userCtrl+Cstill makes rush exit with status 130. - Unix
Ctrl+Cexits with status 130 andSIGTERMexits with status 143. A command timeout exits with status 124. - Cleanup covers ordinary descendants that remain in the Unix process group or Windows parent/child tree. Processes that deliberately detach, daemonize, create a new console/session, or use Windows breakaway are outside this guarantee.
Press
Ctrl-Cagain to skip the remaining cleanup delay and immediately kill unfinished processes. Commands that have not started are discarded after the interrupt and are not executed.$ seq 1 20 | rush -j 4 'sleep 1; echo {}' 4 1 2 3 ^C23:16:30.725 [CRIT] received an interrupt, stopping unfinished commands... 23:16:30.741 [ERRO] cancelled 23:16:30.741 [ERRO] cancelled 23:16:30.741 [ERRO] cancelled 23:16:30.741 [ERRO] cancelled - Linux: rush sends
-
Continue/resume jobs (
-c). When some jobs failed (by execution failure, timeout, or cancelling by user withCtrl + C), please switch flag-c/--continueon and run again, so thatrushcan save successful commands and ignore them in NEXT run. Skipped commands are silent by default; use--verboseto print each one.$ seq 1 3 | rush 'sleep {}; echo {}' -t 3 -c 1 2 [ERRO] run cmd #3: sleep 3; echo 3: time out # successful commands: $ cat successful_cmds.rush sleep 1; echo 1__CMD__ sleep 2; echo 2__CMD__ # run again $ seq 1 3 | rush 'sleep {}; echo {}' -t 3 -c [ERRO] run cmd #1: sleep 3; echo 3: time outCommands of multi-lines (Not supported in GNU parallel)
$ seq 1 3 | rush 'sleep {}; echo {}; \ echo finish {}' -t 3 -c -C finished.rush 1 finish 1 2 finish 2 [ERRO] run cmd #3: sleep 3; echo 3; \ echo finish 3: time out $ cat finished.rush sleep 1; echo 1; \ echo finish 1__CMD__ sleep 2; echo 2; \ echo finish 2__CMD__ # run again $ seq 1 3 | rush 'sleep {}; echo {}; \ echo finish {}' -t 3 -c -C finished.rush [ERRO] run cmd #1: sleep 3; echo 3; \ echo finish 3: time outCommands are saved to file (
-C) right after it finished, so we can view the check finished jobs:grep -c __CMD__ successful_cmds.rush -
A comprehensive example: downloading 1K+ pages given by three URL list files using
phantomjs save_page.js(some page contents are dynamicly generated by Javascript, sowgetdoes not work). Here I set max jobs number (-j) as20, each job has a max running time (-t) of60seconds and3retry changes (-r). Continue flag-cis also switched on, so we can continue unfinished jobs. Luckily, it's accomplished in one run π$ for f in $(seq 2014 2016); do \ $ /bin/rm -rf $f; mkdir -p $f; \ $ cat $f.html.txt | rush -v d=$f -d = 'phantomjs save_page.js "{}" > {d}/{3}.html' -j 20 -t 60 -r 3 -c; \ $ done -
A bioinformatics example: mapping with
bwa, and processing result withsamtools:$ tree raw.cluster.clean.mapping raw.cluster.clean.mapping βββ M1 βΒ Β βββ M1_1.fq.gz -> ../../raw.cluster.clean/M1/M1_1.fq.gz βΒ Β βββ M1_2.fq.gz -> ../../raw.cluster.clean/M1/M1_2.fq.gz ... $ ref=ref/xxx.fa $ threads=25 $ ls -d raw.cluster.clean.mapping/* \ | rush -v ref=$ref -v j=$threads \ 'bwa mem -t {j} -M -a {ref} {}/{%}_1.fq.gz {}/{%}_2.fq.gz > {}/{%}.sam; \ samtools view -bS {}/{%}.sam > {}/{%}.bam; \ samtools sort -T {}/{%}.tmp -@ {j} {}/{%}.bam -o {}/{%}.sorted.bam; \ samtools index {}/{%}.sorted.bam; \ samtools flagstat {}/{%}.sorted.bam > {}/{%}.sorted.bam.flagstat; \ /bin/rm {}/{%}.bam {}/{%}.sam;' \ -j 2 --verbose -c -C mapping.rushSince
{}/{%}appears many times, we can use preset variable (macro) to simplify it:$ ls -d raw.cluster.clean.mapping/* \ | rush -v ref=$ref -v j=$threads -v p='{}/{%}' \ 'bwa mem -t {j} -M -a {ref} {p}_1.fq.gz {p}_2.fq.gz > {p}.sam; \ samtools view -bS {p}.sam > {p}.bam; \ samtools sort -T {p}.tmp -@ {j} {p}.bam -o {p}.sorted.bam; \ samtools index {p}.sorted.bam; \ samtools flagstat {p}.sorted.bam > {p}.sorted.bam.flagstat; \ /bin/rm {p}.bam {p}.sam;' \ -j 2 --verbose -c -C mapping.rush
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Shell
grepreturns exit code1when no matches found.rushthinks it failed to run. Please usegrep foo bar || trueinstead ofgrep foo bar.$ seq 1 | rush 'echo abc | grep 123' [ERRO] wait cmd #1: echo abc | grep 123: exit status 1 $ seq 1 | rush 'echo abc | grep 123 || true'
Main contributors:
- Wei Shen
- @bburgin Brian Burgin for cross-platform process management.
- @howeyc Chris Howey for ETA progress bar.
Specially thank @brentp
and his gargs, from which rush borrows
some ideas.
Thank @bburgin for his contribution on improvement of child process management.
Create an issue to report bugs, propose new functions or ask for help.