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    inference

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    DGX Dashboard

    30 MIN

    Monitor your DGX system and launch JupyterLab

    • DGX
    • Spark
    View on GitHub
    OverviewOverviewInstructionsInstructionsTroubleshootingTroubleshooting

    Step 1
    Access DGX Dashboard

    Choose one of the following methods to access the DGX Dashboard web interface:

    Option A: Desktop shortcut (local access)

    If you have local access to your DGX Spark device:

    1. Log into the Ubuntu Desktop environment on your DGX Spark device
    2. Open the Ubuntu app launcher by clicking on the bottom left corner of the screen
    3. Click on the DGX Dashboard shortcut in the app launcher
    4. The dashboard will open in your default web browser at http://localhost:11000

    Option B: NVIDIA Sync (recommended for remote access)

    If you have NVIDIA Sync installed on your local machine:

    1. Click the NVIDIA Sync icon in your system tray
    2. Select your DGX Spark device from the device list
    3. Click "Connect"
    4. Click "DGX Dashboard" to launch the dashboard
    5. The dashboard will open in your default web browser at http://localhost:11000 using an automatic SSH tunnel

    Don't have NVIDIA Sync? Install it here

    Option C: Manual SSH tunnels

    For manual remote access without NVIDIA Sync you must first manually configure an SSH tunnel.

    You must open a tunnel for the Dashboard server (port 11000) and for JupyterLab if you want to access it remotely. Each user account will have a different assigned port number for JupyterLab.

    1. Check your assigned JupyterLab port by SSH-ing into your DGX Spark and running the following command:
    cat /opt/nvidia/dgx-dashboard-service/jupyterlab_ports.yaml
    
    1. Look for your username and note the assigned port number.
    2. Create a new SSH tunnel including both ports:
    ssh -L 11000:localhost:11000 -L <ASSIGNED_PORT>:localhost:<ASSIGNED_PORT> <USERNAME>@<SPARK_DEVICE_IP>
    

    Replace <USERNAME> with your DGX Spark device username and <SPARK_DEVICE_IP> with the device's IP address.

    Replace <ASSIGNED_PORT> with the port number from the YAML file.

    Open your web browser and navigate to http://localhost:11000.

    Step 2
    Log into DGX Dashboard

    Once the dashboard loads in your browser:

    1. Enter your DGX Spark system username in the username field
    2. Enter your system password in the password field
    3. Click "Login" to access the dashboard interface

    You should see the main dashboard with panels for JupyterLab management, system monitoring, and settings.

    Step 3
    Launch JupyterLab instance

    Create and start a JupyterLab environment:

    1. Click the "Start" button in the right panel
    2. Monitor the status as it transitions through: Starting → Preparing → Running
    3. Wait for the status to show "Running" (this may take several minutes on the first launch)
    4. Once "Running", if JupyterLab does not automatically open in your browser (a pop-up was blocked), you can click the "Open In Browser" button

    When starting, a default working directory (/home/<USERNAME>/jupyterlab) is created and a virtual environment is set up automatically. You can review the packages installed by looking at the requirements.txt file that is created in the working directory.

    In the future, you can change the working directory, creating a new isolated environment, by clicking the "Stop" button, changing the path to the new working directory and then clicking the "Start" button again.

    Step 4
    Test with sample AI workload

    Verify your setup by running a simple Stable Diffusion XL image generation example:

    1. In JupyterLab, create a new notebook: File → New → Notebook
    2. Click "Python 3 (ipykernel)" to create the notebook
    3. Add a new cell and paste the following code:
    import warnings
    warnings.filterwarnings('ignore', message='.*cuda capability.*')
    import tqdm.auto
    tqdm.auto.tqdm = tqdm.std.tqdm
    
    from diffusers import DiffusionPipeline
    import torch
    from PIL import Image
    from datetime import datetime
    from IPython.display import display
    
    # --- Model setup ---
    MODEL_ID = "stabilityai/stable-diffusion-xl-base-1.0"
    dtype = torch.float16 if torch.cuda.is_available() else torch.float32
    
    pipe = DiffusionPipeline.from_pretrained(
        MODEL_ID,
        torch_dtype=dtype,
        variant="fp16" if dtype==torch.float16 else None,
    )
    pipe = pipe.to("cuda" if torch.cuda.is_available() else "cpu")
    
    # --- Prompt setup ---
    prompt = "a cozy modern reading nook with a big window, soft natural light, photorealistic"
    negative_prompt = "low quality, blurry, distorted, text, watermark"
    
    # --- Generation settings ---
    height = 1024
    width = 1024
    steps = 30
    guidance = 7.0
    
    # --- Generate ---
    result = pipe(
        prompt=prompt,
        negative_prompt=negative_prompt,
        num_inference_steps=steps,
        guidance_scale=guidance,
        height=height,
        width=width,
    )
    
    # --- Save to file ---
    image: Image.Image = result.images[0]
    display(image)
    image.save(f"sdxl_output.png")
    print(f"Saved image as sdxl_output.png")
    
    1. Run the cell (Shift+Enter or click the Run button)
    2. The notebook will download the model and generate an image (first run may take several minutes)

    Step 5
    Monitor GPU utilization

    While the image generation is running:

    1. Switch back to the DGX Dashboard tab in your browser
    2. Observe the GPU telemetry data in the monitoring panels

    Step 6
    Stop JupyterLab instance

    When finished with your session:

    1. Return to the main DGX Dashboard tab
    2. Click the "Stop" button in the JupyterLab panel
    3. Confirm the status changes from "Running" to "Stopped"

    Step 7
    Manage system updates

    If system updates are available it will be indicated by a banner or on the Settings page.

    From the Settings page, under the "Updates" tab:

    1. Click "Update" to open the confirmation dialog
    2. Click "Update Now" to initiate the update process
    3. Wait for the update to complete and your device to reboot

    WARNING

    System updates will upgrade packages, firmware (if available), and trigger a reboot. Save your work before proceeding.

    Step 8
    Cleanup and rollback

    To clean up resources and return your system to its original state:

    1. Stop any running JupyterLab instances via dashboard
    2. Delete the JupyterLab working directory

    WARNING

    If you ran system updates, the only rollback is to restore from a system backup or recovery media.

    No permanent changes are made to the system during normal dashboard usage.

    Step 9
    Next steps

    Now that you have DGX Dashboard configured, you can:

    • Create additional JupyterLab environments for different projects
    • Use the dashboard to manage system maintenance and updates

    Resources

    • DGX Spark Documentation
    • DGX Spark Forum
    • DGX Spark User Performance Guide
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