CryoSPARC Installation Prerequisites
Before installing CryoSPARC, ensure these six requirements are met.
1. Nvidia Driver
CryoSPARC worker installations on workstations, dedicated GPU nodes or clusters require a recent version of the Nvidia driver and a Nvidia GPU.
As of CryoSPARC v4.4, CryoSPARC requires Nvidia Driver 520.61.05 or newer.
Please follow instructions specific to the worker's Linux distribution to install the Nvidia driver. Visit Troubleshooting for common GPU errors.
CryoSPARC versions v4.4.0 and newer include a bundled CUDA Toolkit and no longer require a separate CUDA installation. Only the Nvidia driver is required. CryoSPARC v4.4.0 comes with CUDA Toolkit version 11.8.0
For versions prior to v4.4.0, CryoSPARC requires a separate CUDA installation. CryoSPARC runs with CUDA version 11, and we recommend toolkit version 11.8.
2. Common Unix User Account
The CryoSPARC master and worker nodes must have the same Unix user available on each node.
Execute all command line instance management tasks, such as updates or startup, under the Unix account that runs the CryoSPARC instance. Failure to do so may render the CryoSPARC instance inoperative.
Do not use the root account to install, update or manage a CryoSPARC instance.
You don't need to have a dedicated Unix user (e.g., cryosparcuser), to run and install CryoSPARC -- you can use your own user account, but not the root account. Using your own user account makes sense when you are installing CryoSPARC for yourself, and you don't plan on expanding to have any other users use the same instance.
Create a dedicated user account (e.g., cryosparcuser) that will run the CryoSPARC application on the master node and each worker node that will be used for computation.
In a master-worker setup, the CryoSPARC master node will use SSH to access the worker node and execute a bash script that will run the job a user has queued to that machine. Some lightweight job types queue directly to the master node, in which case the CryoSPARC master process will execute the job using a Python subprocess. If a user queues a job to a cluster, the CryoSPARC master process will submit a cluster job via the cluster workload scheduler's job submission system (for example via the sbatch command on a SLURM cluster).
For the purposes of this documentation, we will use the username cryosparcuser to represent the user that owns the CryoSPARC processes.
3. Password-less SSH Access
Set up SSH access between the master node and each standalone worker node. The cryosparcuser account should be able to SSH without a password (using a SSH key-pair) into all non-cluster worker nodes.
Setting up password-less SSH access to a remote workstation
Set up SSH keys for password-less access (only if you currently need to enter your password each time you ssh into the compute node).
If you do not already have SSH keys generated on your local machine, use ssh-keygen to do so.
Open a terminal prompt on your local machine, and enter:
This will create an RSA key-pair with no passphrase in the default location.
Copy the RSA public key to the remote compute node for password-less login:
remote_username and remote_hostname are your username and the hostname that you use to SSH into your compute node. This step will ask for your password.
4. Open TCP Ports
Ensure ports 39000-39009 are accessible between every workstation node and the master node. The port range is configurable during install time. The following table details the purpose of each port.
Port | Usage |
39000 | CryoSPARC web application |
39001 | MongoDB database |
39002 | Command Core (Master) server |
39003 | Command Visualization (Vis) server |
39004 | Reserved (Not Used) |
39005 | CryoSPARC Live Command RTP server |
39006 | CryoSPARC web application API server |
39007 | Reserved (Not Used) |
39008 | Reserved (Not Used) |
39009 | Reserved (Not Used) |
Identifying open ports
To see what ports are being used on your master node, run the command netstat -tuplen. You can pipe the output to grep to search for specific ports. For example:
Testing open ports
To test if a TCP port is open (for example, to test if there is a firewall blocking the port), run a telnet command from another computer inside the network. If you see any response other than the one below (e.g., a timeout or a denial), it may indicate that the port is not listening or is blocked.
5. Shared File System
The major requirement for installation is that all nodes (including the master) be able to access the same shared file system(s) at the same absolute path. These file systems (typically cluster file systems or NFS mounts) will be used for loading input raw data into jobs running on various nodes, as well as saving output data from jobs into projects.
Each project created by a user is associated with a single project directory that all CryoSPARC nodes must be able to read from and write to. All users should create project directories in locations where both the master and worker nodes have access.
CryoSPARC project directories need to be stored on a filesystem that supports symbolic links.
6. Outbound HTTPS Internet Access
CryoSPARC requires internet access from the main process to verify your license and perform updates. At minimum, CryoSPARC should have access to our license server at https://get.cryosparc.com/. See here for more details.
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