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Users can also compile programs on any EML Linux machine and then run that program on the cluster.īelow is more detailed information about how to use the cluster. All software running on EML Linux machines is available on the cluster. As currently set up, the cluster is designed for processing single-core and multi-core/threaded jobs, as well as distributed memory jobs that use MPI. Users may also query the cluster to see job status. Jobs are submitted to Slurm using a user-defined shell script that executes one's application code. Slurm provides a standard batch queueing system through which users submit jobs to the cluster. These nodes have slower cores than the high priority partition and are intended for use when the high priority partition is busy or users have jobs that are not time-critical, thereby freeing up the high partition for other jobs.īoth partitions are managed by the Slurm queueing software. The low priority partition has eight nodes, each with two 16-core CPUs available for compute jobs (i.e., 32 cores per node), for a total of 256 cores. eml-sm3 nodes: These nodes each have two 16-core CPUS available for compute jobs (i.e., 32 cores per node).In the remainder of this document, we'll refer to these processing units as 'cores'. Each core has two hyperthreads, for a total of 224 processing units. eml-sm2 nodes: These nodes each have two 14-core CPUs available for compute jobs (i.e., 28 cores per node).The high priority (default) partition has eight nodes, divided into two sets of four nodes. The cluster has two partitions, which are distinct sets of nodes, with different generations of CPUs. The EML operates a high-performance Linux-based computing cluster that uses the Slurm queueing software to manage jobs.