Which of the following best explains why containers make deploying machine learning models portable across different environments?
Think about what containers include besides just the model code.
Containers bundle the ML model, its libraries, and runtime environment together. This means the model behaves the same on any machine with a container engine, making deployment portable.
What is the output of the following command inspecting a container image used for ML deployment?
docker inspect ml-model:latest --format='{{.Config.Env}}'Look for environment variables related to Python and model path.
The command outputs environment variables set in the container image. For ML models, Python version and model path are common environment variables.
Arrange the steps in the correct order to deploy a machine learning model using containers.
Think about building first, then sharing, then running.
You first build the container image, then push it to a registry so others can access it. Next, the deployment server pulls the image and runs it to serve the model.
An ML model container runs fine on your local machine but fails on the cloud server with a missing library error. What is the most likely cause?
Consider what the container should contain to run anywhere.
If the container image misses some libraries, it will fail on other machines. Containers must include all dependencies to be portable.
Which practice best ensures that an ML container image remains portable and consistent across different deployment environments?
Think about controlling dependencies and image size.
Using a minimal base image and specifying all dependencies explicitly ensures the container is lightweight and reproducible, making it portable across environments.