Running Jupyter Notebook on AWS, GCP, and Azure

Data scientists and machine learning engineers rely heavily on Jupyter Notebooks for interactive development, experimentation, and collaboration. While running Jupyter locally works well for small projects, cloud platforms offer scalability, powerful computing resources, and team collaboration features that become essential as projects grow. This guide explores how to set up and run Jupyter Notebooks on the three major cloud providers: Amazon Web Services (AWS), Google Cloud Platform (GCP), and Microsoft Azure.

Why Run Jupyter Notebooks in the Cloud?

Before diving into the specifics of each platform, it’s worth understanding the compelling reasons to move your Jupyter workflow to the cloud. Cloud-based Jupyter environments eliminate hardware constraints, allowing you to scale compute resources up or down based on your needs. You can start with a modest instance for data exploration and quickly upgrade to GPU-accelerated instances for deep learning training without any local hardware investment.

Cloud platforms also excel at collaboration. Multiple team members can access the same notebooks, datasets, and computing environment, ensuring everyone works with consistent dependencies and configurations. This eliminates the notorious “it works on my machine” problem that plagues data science teams. Additionally, cloud providers offer seamless integration with their storage services, databases, and machine learning tools, creating a cohesive ecosystem for end-to-end data science workflows.

☁️ Cloud vs Local Jupyter: Key Benefits

Scalable Resources
Scale from 2GB to 500GB RAM instantly
🤝
Team Collaboration
Share environments and notebooks effortlessly
🔗
Native Integrations
Direct access to cloud storage and databases
💰
Pay-As-You-Go
Only pay for compute time you actually use

Running Jupyter Notebook on AWS

Amazon Web Services offers several approaches to running Jupyter Notebooks, with Amazon SageMaker being the most integrated and feature-rich option for data science workloads.

Amazon SageMaker Notebooks

SageMaker provides managed Jupyter notebook instances that come pre-configured with popular machine learning frameworks, libraries, and AWS SDK integrations. To get started, navigate to the SageMaker console, select “Notebook instances,” and click “Create notebook instance.” You’ll need to specify:

  • Instance name: A unique identifier for your notebook
  • Instance type: Choose from various CPU and GPU options (ml.t3.medium is suitable for basic tasks)
  • IAM role: Grants your notebook permissions to access other AWS services

Once created, the instance typically launches within 5-10 minutes. Click “Open JupyterLab” to access your environment. SageMaker notebooks come with several pre-built kernels for Python, R, and specific frameworks like TensorFlow and PyTorch.

One significant advantage of SageMaker is its integration with other AWS services. You can easily read data from S3 buckets, connect to RDS databases, or trigger training jobs on separate compute clusters:

import sagemaker
import boto3

# Read data from S3
s3_client = boto3.client('s3')
obj = s3_client.get_object(Bucket='my-bucket', Key='data.csv')
df = pd.read_csv(obj['Body'])

# Train a model using SageMaker
session = sagemaker.Session()
role = sagemaker.get_execution_role()

EC2-Based Jupyter Setup

For users who need more control over their environment, launching Jupyter on an EC2 instance is straightforward. Create an EC2 instance with your preferred AMI (Amazon Linux 2 or Ubuntu are popular choices), SSH into the instance, and install Jupyter:

pip install jupyter
jupyter notebook --ip=0.0.0.0 --port=8888 --no-browser

Configure your security group to allow inbound traffic on port 8888, and access your notebook via the instance’s public IP. For production use, always implement proper authentication and consider using HTTPS with SSL certificates.

Cost Management on AWS

SageMaker notebooks charge by the hour when instances are running, so remember to stop instances when not in use. A ml.t3.medium instance costs approximately $0.05 per hour, while GPU instances like ml.p3.2xlarge run around $3.80 per hour. Setting up CloudWatch alarms can help monitor and control unexpected costs.

Running Jupyter Notebook on Google Cloud Platform

Google Cloud Platform offers a seamless Jupyter experience through Vertex AI Workbench (formerly AI Platform Notebooks) and integration with its BigQuery and Cloud Storage services.

Vertex AI Workbench

Vertex AI Workbench provides managed JupyterLab instances that integrate deeply with GCP’s machine learning ecosystem. To create a notebook instance:

  1. Navigate to Vertex AI in the GCP Console
  2. Select “Workbench” from the menu
  3. Click “New Notebook” and choose between managed or user-managed instances
  4. Select your region, machine type, and environment (Python, R, or framework-specific)

Managed notebooks automatically shut down after periods of inactivity, helping control costs. They also support direct integration with Git repositories, making version control seamless. The JupyterLab interface includes extensions for BigQuery, allowing you to query massive datasets directly from your notebook:

%%bigquery df
SELECT 
    date,
    SUM(revenue) as total_revenue
FROM `project.dataset.sales`
WHERE date >= '2024-01-01'
GROUP BY date
ORDER BY date

Google Colab for Quick Prototyping

For lightweight experimentation, Google Colab offers free Jupyter notebooks with GPU and TPU access. While not as powerful as Vertex AI for production workloads, Colab excels at sharing notebooks, teaching, and rapid prototyping. Simply visit colab.research.google.com, create a new notebook, and start coding. Colab notebooks can mount Google Drive for data storage:

from google.colab import drive
drive.mount('/content/drive')

GCP’s Compute Engine Alternative

Similar to AWS EC2, you can launch Jupyter on a Compute Engine VM. GCP provides Deep Learning VM images that come pre-installed with Jupyter, CUDA drivers, and popular ML frameworks. These images significantly reduce setup time and ensure compatibility between components.

Cost Optimization on GCP

Vertex AI Workbench instances automatically shut down after 90 minutes of inactivity by default, though you can customize this setting. A standard n1-standard-4 machine costs approximately $0.19 per hour. Utilizing preemptible VMs for non-critical workloads can reduce costs by up to 80%, though these instances may be terminated with short notice.

Running Jupyter Notebook on Microsoft Azure

Microsoft Azure provides Azure Machine Learning notebooks and various other options for running Jupyter in the cloud.

Azure Machine Learning Notebooks

Azure ML offers integrated Jupyter notebooks within its workspace environment. After creating an Azure ML workspace, navigate to “Notebooks” in the studio interface. The platform provides compute instances that serve as your development environment:

  • Create a compute instance by specifying VM size and name
  • Once running, click “Jupyter” or “JupyterLab” to launch your environment
  • Choose from various pre-configured environments or create custom ones

Azure ML notebooks integrate seamlessly with Azure’s data services and MLOps capabilities. You can access Azure Blob Storage, connect to Azure SQL databases, and submit training runs to compute clusters directly from your notebook:

from azureml.core import Workspace, Dataset

# Connect to workspace
ws = Workspace.from_config()

# Load dataset
dataset = Dataset.get_by_name(ws, name='customer-data')
df = dataset.to_pandas_dataframe()

Azure Notebooks and GitHub Integration

Azure ML notebooks support direct GitHub integration, allowing you to clone repositories and maintain version control. The platform also supports VS Code integration, enabling you to edit notebooks in a more traditional IDE environment if preferred.

Virtual Machine Deployment

For custom setups, deploying Jupyter on an Azure VM follows similar patterns to AWS and GCP. Azure’s Data Science Virtual Machine (DSVM) comes pre-configured with Jupyter, Anaconda, and numerous data science tools, eliminating installation overhead.

Azure Cost Considerations

Azure ML compute instances charge per hour when running. A Standard_DS3_v2 instance costs approximately $0.27 per hour. Azure provides a useful cost calculator and budget alerts to help manage expenses. Setting up auto-shutdown schedules ensures instances don’t run unnecessarily overnight or during weekends.

Comparing the Three Platforms

Each cloud provider brings unique strengths to Jupyter notebook hosting. AWS SageMaker offers the most comprehensive machine learning ecosystem with tight integration across AWS services, making it ideal for enterprises already invested in AWS infrastructure. The platform’s ability to launch training jobs on separate compute clusters while keeping notebooks lightweight is particularly valuable for large-scale ML projects.

Google Cloud Platform excels in data analytics integration, especially with BigQuery. If your workflows involve querying and analyzing massive datasets, GCP’s native BigQuery integration within notebooks provides unmatched performance. Colab’s free tier also makes GCP attractive for education, experimentation, and projects with limited budgets.

Microsoft Azure stands out for organizations using Microsoft’s enterprise tools. The seamless integration with Azure DevOps, Active Directory, and Power BI creates compelling workflows for businesses. Azure’s hybrid cloud capabilities also appeal to companies with on-premises infrastructure requiring cloud connectivity.

📊 Platform Comparison at a Glance

Feature AWS SageMaker GCP Vertex AI Azure ML
Starting Cost/Hour ~$0.05 ~$0.19 ~$0.27
Auto-Shutdown Manual setup ✅ Built-in (90 min) ✅ Configurable
Free Tier Limited ✅ Colab Limited
Best For ML pipelines Big data analytics Enterprise integration
Git Integration ✅ Available ✅ Built-in ✅ GitHub native

Security and Access Management

Regardless of which platform you choose, implementing proper security measures is crucial. All three providers support:

  • Identity and Access Management (IAM): Control who can create, access, and modify notebook instances
  • Virtual Private Cloud (VPC) deployment: Run notebooks in isolated network environments
  • Encryption: Encrypt data at rest and in transit
  • Audit logging: Track all activities for compliance and security monitoring

Configure notebooks to run within private subnets when handling sensitive data. Use managed identities or service accounts rather than hardcoding credentials in notebooks. Enable multi-factor authentication for all users accessing notebook environments.

Best Practices for Cloud-Based Jupyter Notebooks

Successful cloud Jupyter deployments follow several key practices. First, always stop or shut down instances when not actively in use—this single habit typically saves 50-70% on compute costs. Use lifecycle configurations or startup scripts to automatically install required packages and configure environments, ensuring consistency across instances.

Implement version control for all notebooks by connecting to Git repositories. This enables collaboration, provides change history, and serves as backup. Store data in cloud storage services (S3, Cloud Storage, Blob Storage) rather than on notebook instances themselves, which are ephemeral and may be terminated.

Monitor resource utilization to right-size your instances. Many users over-provision resources, paying for capacity they don’t need. Start with smaller instance types and scale up only when performance bottlenecks emerge. Use GPU instances only for computations that genuinely benefit from GPU acceleration—data preprocessing and exploratory analysis typically don’t require GPUs.

Conclusion

Running Jupyter Notebooks on cloud platforms transforms how data scientists work, providing scalable compute resources, enhanced collaboration, and integration with enterprise data infrastructure. AWS SageMaker, Google Cloud’s Vertex AI Workbench, and Azure Machine Learning each offer robust, managed Jupyter environments with unique strengths suited to different organizational needs and existing cloud commitments.

The choice between providers often depends on your existing cloud infrastructure, specific feature requirements, and team expertise. Regardless of which platform you select, the cloud-based Jupyter approach enables faster experimentation, easier collaboration, and more flexible resource management than local development environments can provide.

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