# Get Started with BioContainers using Rafay

June 10, 2025

In this step-by-step guide, the Bioinformatics data scientist will use Rafay’s end user portal to launch a well-resourced remote VM and run a series of BioContainers with Docker.

**Prerequisites**

- Access to Rafay’s end user self-service portal (i.e., Developer Hub)
- An SSH client (e.g., PuTTY on Windows, Terminal on macOS/Linux)
- An SSH Public Key

### **Step 1: Launch a Remote VM**

This step covers the creation and deployment of the remote VM using Rafay’s Developer Hub. Watch a brief video of the end user experience below.

1. **Navigate to Compute Instances:**  
   - Log in to your Developer Hub. On the dashboard, find and click on “Compute Instances.
2. **Create a New Compute Instance:**  
   - Click the “New Compute Instance” button.

1. **Select a Compute Profile:**  
   - From the “Compute Profile” dropdown, choose a profile that meets your needs, for example, “VMAAS – Large (4 GPU)” if you require significant GPU resources.
2. **Configure Instance Details:**  
   - Fill in the required details for your new VM  
     - Name: Enter a descriptive name (e.g., `demo-vm-biocontainers`).  
     - Compute Profile: Confirm your selected profile (e.g., `vmaas`).  
     - Workspace: Select your desired workspace (e.g., `demo`).  
     - CPUs: Specify the number of CPUs (e.g., `44 vCPUs`).  
     - Disk Storage (GB): Set the disk size (e.g., `100 GB`).  
     - GPUs: Specify the number of GPUs (e.g., `1 GPU`).  
     - Memory (MB): Set the memory allocation (e.g., `130 GB`).  
     - Image: Choose the operating system image (e.g., `Ubuntu 24.04`).  
   - Note that the user can request substantial compute, memory, GPU, and storage resources that are not possible on end user laptops.

1. **Add SSH Public Key:**  
   - Paste your SSH Public Key into the designated field.  
   - Note that this SSH key will be used to securely connect to the remote VM.
2. **Create and Publish the Instance:**  
   - Click the “Create” or “Publish” button to initiate the VM deployment.
3. **Monitor Deployment Status:**  
   - Observe the deployment status. It will typically transition through “Pending,” “In Progress,” and finally to “Success.”  
   - Once successful, note down the IP Address and Username displayed for your VM. These are crucial for connecting via SSH.

### **Step 2: Launch a BioContainer Using Docker on the Remote VM**

**1. Connect to Your Remote VM via SSH:**

- Open your SSH client (e.g., Terminal on macOS/Linux, PuTTY on Windows).
- Use the ssh command with the Username and IP Address you noted earlier:

```javascript
ssh [Username]@[IP_Address]
#Example: ssh ubuntu@192.0.2.1
```

- If prompted, accept the authenticity of the host.

**2. Verify Docker Installation:**

- Once connected, ensure Docker is correctly installed by checking its version:

```javascript
docker --version
```

- You should see output similar to `Docker version 24.0.5, build 24.0.5-0ubuntu1~22.04.1.`

**3. Create a Host Data Directory:**

```javascript
mkdir host-data
```

**4. Test Run a BioContainer (Get Help):**

```javascript
docker run biocontainers/blast:2.2.31 -help
```

5. In this example, we are using BLAST, which is an acronym for **Basic Local Alignment Search Tool.**

**6. List Downloaded Docker Images:**

```javascript
docker images
```

7. BioContainer images can be large. This is another benefit of using a Remote VM for these operations.

**8. Download and Unzip Data for BLAST (using Docker):**

```javascript
docker run --rm -v $(pwd)/host-data:/host-data biocontainers/wget:1.20.3 wget -P /host-data https://ftp.ncbi.nlm.nih.gov/blast/executables/LATEST/blast-2.2.31-src.tar.gz
```

- The video used wget to download a .tar.gz file. For a direct example of downloading a protein FASTA, replace the URL with a publicly available protein FASTA file.
- Unzip the downloaded protein file:

```javascript
docker run --rm -v $(pwd)/host-data:/host-data biocontainers/gzip:1.9 gzip -d /host-data/zebrafish.1.protein.faa.gz
```

**9. Verify Unzipped File:**

```javascript
ls host-data
```

You should see zebrafish.1.protein.faa.

**10. Build a BLAST Protein Database:**

```javascript
docker run --rm -v $(pwd)/host-data:/host-data biocontainers/blast:2.2.31 makeblastdb -in /host-data/zebrafish.1.protein.faa -dbtype prot -out /host-data/zebrafish_db
```

**11. Download a Query Protein File:**

```javascript
docker run --rm -v $(pwd)/host-data:/host-data biocontainers/wget:1.20.3 wget -P /host-data https://www.uniprot.org/uniprot/P04156.fasta
```

**12. Verify Query File Download:**

```javascript
ls host-data
```

You should now see `P04156.fasta` and your database files.

**13. Perform a BLAST Search:**

```javascript
docker run --rm -v $(pwd)/host-data:/host-data biocontainers/blast:2.2.31 blastp -query /host-data/P04156.fasta -db /host-data/zebrafish_db -out /host-data/results.txt
```

**1. View BLAST Results:**

```javascript
cat host-data/results.txt
```

**Conclusion** In [**the previous blog**](https://docs.rafay.co/blog/2025/06/06/biocontainers-streamlining-bioinformatics-with-the-power-of-portability/), we reviewed how BioContainers represent a transformative leap forward for bioinformatics, offering unparalleled reproducibility, ease of use, and portability.

In this blog, we reviewed the steps data scientists can follow to successfully launch a remote VM, securely access it, and perform a basic bioinformatics task using BioContainers!
