HCAI-Lab/w2-consensus-deepdive-unlearning-artifacts / social-data-attribution-w2 /docs /slurm_example.md
| # PACE-Instructions | |
| PACE is not that difficult to use. Here's one possible way to do it. Jobs on PACE can be ran on CPU or GPU. | |
| Steps: | |
| 1. Create job script. | |
| 2. Create slurm script | |
| 3. Upload your files | |
| 4. SSH into PACE, submit slurm script to queue | |
| 5. Wait | |
| 6. Get results | |
| 7. (Optional) Using interactive sessions | |
| 1. You have some file that does a job you want on the cluster. Let’s call it test.py. | |
| 2. Make a Slurm script. Slurm scripts have a .sub extension. | |
| This is an example of what would be in a slurm script. In the cluster, it should be added to same folder as the job you want to put in queue. | |
| ============ | |
| #!/bin/bash | |
| #SBATCH -JSlurmPythonExample # Job name | |
| #SBATCH --account=hive-gburdell3 # Tracking account | |
| #SBATCH -n4 # Number of cores required | |
| #SBATCH --mem-per-cpu=1G # Memory per core | |
| #SBATCH -t15 # Duration of the job (Ex: 15 mins) | |
| #SBATCH -phive # Queue name (where job is submitted) | |
| #SBATCH -oReport-%j.out # Combined output and error messages file | |
| #SBATCH --mail-type=BEGIN,END,FAIL # Mail preferences | |
| #SBATCH --mail-user=gburdell3@gatech.edu # E-mail address for notifications | |
| cd $SLURM_SUBMIT_DIR # Change to working directory | |
| module load anaconda3/2022.05 # Load module dependencies | |
| srun python test.py # Example Process | |
| ============== | |
| The above is a slurm script that does not request GPU. The below requests GPU. Note the different options. | |
| ============== | |
| #!/bin/bash | |
| #SBATCH -JGPUExample # Job name | |
| #SBATCH -Ahive-gburdell3 # Charge account | |
| #SBATCH -N1 --gres=gpu:1 # Number of nodes and GPUs required | |
| #SBATCH --gres-flags=enforce-binding # Map CPUs to GPUs | |
| #SBATCH --mem-per-gpu=12G # Memory per gpu | |
| #SBATCH -t15 # Duration of the job (Ex: 15 mins) | |
| #SBATCH -phive-gpu # Partition name (where job is submitted) | |
| #SBATCH -oReport-%j.out # Combined output and error messages file | |
| #SBATCH --mail-type=BEGIN,END,FAIL # Mail preferences | |
| #SBATCH --mail-user=gburdell3@gatech.edu # e-mail address for notifications | |
| cd $HOME/slurm_gpu_example # Change to working directory created in $HOME | |
| module load tensorflow-gpu/2.9.0 # Load module dependencies | |
| srun python $TENSORFLOWGPUROOT/testgpu.py gpu 1000 # Run test example | |
| ============== | |
| Now you have your beautiful scripts. Add them to the cluster. | |
| 3. Make a directory on the cluster to hold this file: | |
| ssh [your_gatech_name]@login-ice.pace.gatech.edu mkdir -p yourusername/yourdirectory | |
| Copy your local file(s) to the cluster | |
| scp -r test.py slurm.sub [your_gatech_name]@login-ice.pace.gatech.edu:yourusername/yourdirectory | |
| ============================================ | |
| ***Beware. Before scp * ing all your local files to PACE, know what files are in the directory you are in. *** | |
| ============================================ | |
| 4. SSH to PACE | |
| ssh [your_gatech_name]@login-ice.pace.gatech.edu | |
| Cd your way to your directory where you uploaded the files. Submit the sbatch file to pace with “sbatch slurm.sub” | |
| 5. Wait patiently. | |
| You can check the status of your job with the “squeue” command. | |
| 6. After you see that the job is finished, the results will in the directory of the slurm job (or wherever you instructed it to output results). | |
| 7. Let’s say you don’t want to submit an sbatch job, you want to run an interactive GPU session. You can do this in the command line or via an .sh script. | |
| Command line: | |
| salloc -A hive-gburdell3 -N1 --mem-per-gpu=12G -phive-gpu-short -t0:15:00 --gres=gpu:1 --gres-flags=enforce-binding | |
| This is allocating for an interactive job using the hive-gburdell3 account on the gpu-short queue. | |
| It will send a response such as: | |
| salloc: Pending job allocation 1187 | |
| salloc: job 1187 queued and waiting for resources | |
| You will then wait until the request is available to you. | |
| salloc: job 1187 has been allocated resources | |
| salloc: Granted job allocation 1187 | |
| salloc: Waiting for resource configuration | |
| salloc: Nodes atl1-1-03-002-35 are ready for job | |
| --------------------------------------- | |
| Begin Slurm Prolog: Aug-03-2022 08:01:10 | |
| Job ID: 1187 | |
| User ID: gburdell3 | |
| Account: hive-gburdell3 | |
| Job name: interactive | |
| Partition: hive | |
| --------------------------------------- | |
| You now have GPU resources. | |
| One other way to do it is to create a .sh script to handle this for you. | |
| ./pace_interactive.sh | |
| [wait till the node is acquired] | |
| Example code for pace_interactive.sh | |
| “”” | |
| #!/bin/sh | |
| salloc -A hive-gburdell3 -N1 --mem-per-gpu=12G -phive-gpu-short -t0:15:00 --gres=gpu:1 --gres-flags=enforce-binding | |
| exit 0 | |
| “”” |
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