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Build a Custom Computer Vision Defect Detection Model with Amazon SageMaker

Migrating from Amazon Lookout for Vision to Amazon SageMaker AI: A Comprehensive Guide


Summary of Transition and Key Features


Prerequisites for Migration


Understanding the Architecture


Setting Up the Labeling Process


Labeling the Dataset


Training the Model: Step-by-Step Instructions


Deploying Your Model for Inference


Clean-Up Procedures


Conclusion: Embracing Flexibility in Computer Vision


About the Authors

Migrating from Amazon Lookout for Vision to Amazon SageMaker AI: A Comprehensive Guide

On October 10, 2024, Amazon announced the discontinuation of its Lookout for Vision service, with a scheduled shutdown date set for October 31, 2025. As businesses and developers gear up for this transition, this blog post will guide you through the process of migrating your computer vision workloads to Amazon SageMaker AI. Utilizing Amazon SageMaker’s robust machine learning (ML) capabilities will not only ensure a seamless transition but also provide greater flexibility in model training and deployment configurations.

Understanding the Transition

As part of the transition guidance for Lookout for Vision users, AWS recommends using Amazon SageMaker AI tools for applications that hinge on computer vision, particularly in automated quality inspection use cases. AWS has made several pre-trained models available on the AWS Marketplace, allowing users to customize these models to suit their specific needs through fine-tuning using SageMaker.

Key advantages of moving to Amazon SageMaker include:

  • Cost Efficiency: Running models in the cloud incurs charges primarily for infrastructure use during training and inference.
  • Flexible Customization: Users gain more control over model hyperparameters and behaviors that were restricted in Lookout for Vision.
  • Integration Options: Created solutions can be flexibly integrated with existing hardware and software infrastructures.

Prerequisites for Migration

Before diving into the migration process, ensure you have the following:

  1. Amazon SageMaker Studio or Amazon SageMaker Unified Studio for a robust integrated development environment (IDE).
  2. An AWS IAM role with permissions to:
    • Access Amazon S3 for storage.
    • Create and manage SageMaker training jobs, models, endpoints, etc.
  3. An AWS account with a subscription to the Computer Vision Defect Detection Model.
  4. Labeled data for training, utilizing options like SageMaker Ground Truth for labeling.

Migration Steps

1. Setting Up Your Environment

Create an Amazon SageMaker Studio environment, ensuring you have the necessary IAM role and permissions.

2. Labeling Your Data

Set up your dataset using Amazon SageMaker Ground Truth. Follow these steps:

  • Create a private labeling team in SageMaker Ground Truth.
  • Upload your images to an Amazon S3 bucket.
  • Create a labeling job through the SageMaker console, specifying task types (binary classification or semantic segmentation).

3. Training Your Model

After labeling your dataset, you can now train the computer vision model based on your needs.

  • Subscribe to the Computer Vision Defect Detection Model available on the AWS Marketplace.
  • Create a new Jupyter notebook instance on SageMaker and initiate the training process using the model’s ARN.

Here’s an example snippet to help you kick off the training job:

classification_estimator = AlgorithmEstimator(
    algorithm_arn=algorithm_name,
    role=role,
    instance_count=1,
    instance_type="ml.g4dn.2xlarge",
    volume_size=20,
    max_run=7200,
    input_mode="Pipe",
    sagemaker_session=sagemaker_session,
    enable_network_isolation=True
)

4. Deploying Your Model

Once training is complete, you need to deploy your model for inference. SageMaker can facilitate real-time inference via endpoints or batch transformations.

  • Real-Time Inference: Set up and invoke a SageMaker endpoint for immediate predictions.
  • Batch Transform: For offline processing, initiate a batch transform job suitable for large datasets.

5. Clean Up Resources

To avoid unnecessary charges, remember to delete all resources once you finish:

  • Endpoints
  • Notebook instances
  • S3 objects and buckets

Conclusion

The transition from Amazon Lookout for Vision to Amazon SageMaker AI presents an excellent opportunity for users to leverage cutting-edge machine learning capabilities. With increased flexibility in model configurations, advanced hyperparameter settings, and enhanced integration options, this migration sets the stage for optimizing defect detection in your workflows.

For further resources, feel free to explore the AWS GitHub repository for a comprehensive Jupyter Notebook that facilitates the data and model training processes.


About the Authors

The insights shared in this article come from a team of experienced AWS professionals specializing in machine learning, software development, and enterprise solutions. Ryan Vanderwerf, Lu Min, Tim Westman, and Kunle Adeleke have collaborated to bring you this guide, each contributing their unique expertise to help organizations transition successfully to AWS solutions.

For ongoing updates and resources, be sure to follow AWS blogs and the AWS Marketplace for new offerings and tools!

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