@ -326,27 +326,11 @@ Congratulations! You just consumed the model deployed and trained it on Azure ML
Look closely at the model explanations and details that AutoML generated for the top models. Try to understand why the best model is better than the other ones. What algorithms were compared? What are the differences between them? Why is the best one performing better in this case?
## Post-Lecture Quiz
[Post-lecture quiz]()
1. What do I need to create before accessing Azure ML Studio?
1. TRUE: A workspace
2. A compute instance
3. A compute cluster
2. Which of the following tasks are supported by Automated ML?
In this lesson, you learned how to train, deploy and consume a model to predict heart failure risk in a Low code/No code fashion in the cloud. If you have not done it yet, dive deeper into the model explainations that AutoML generated for the top models and try to understand why the best model is better than others.
In this lesson, you learned how to train, deploy and consume a model to predict heart failure risk in a Low code/No code fashion in the cloud. If you have not done it yet, dive deeper into the model explanations that AutoML generated for the top models and try to understand why the best model is better than others.
You can go further into Low code/No code AutoML by reading this [documentation](https://docs.microsoft.com/azure/machine-learning/tutorial-first-experiment-automated-ml?WT.mc_id=academic-40229-cxa&ocid=AID3041109).
[Learn more about the Azure Machine Learning SDK](https://docs.microsoft.com/en-us/python/api/overview/azure/ml?WT.mc_id=academic-40229-cxa&ocid=AID3041109)
In the [previous lesson](../18-tbd/README.md), we saw how to train, deploy and consume a model in a Low code/No code fashion. We used the Heart Failure dataset to generate and Heart failure prediction model. In this lesson, we are going to do the exact same thing but using the Azure Machine Learning SDK.
In the [previous lesson](../18-Low-Code/README.md), we saw how to train, deploy and consume a model in a Low code/No code fashion. We used the Heart Failure dataset to generate and Heart failure prediction model. In this lesson, we are going to do the exact same thing but using the Azure Machine Learning SDK.
![project-schema](img/project-schema.PNG)
### 1.2 Heart failure prediction project and dataset introduction
Check [here](../18-tbd/README.md) the Heart failure prediction project and dataset introduction.
Check [here](../18-Low-Code/README.md) the Heart failure prediction project and dataset introduction.
## 2. Training a model with the Azure ML SDK
### 2.1 Create an Azure ML workspace
For simplicity, we are going to work on a jupyter notebook. This implies that you already have a Workspace and a compute instance. If you already have a Workspace, you can directly jump to the section 2.3 Notebook creation.
If not, please follow the instructions in the section **2.1 Create an Azure ML workspace** in the [previous lesson](../18-tbd/README.md) to create a workspace.
If not, please follow the instructions in the section **2.1 Create an Azure ML workspace** in the [previous lesson](../18-Low-Code/README.md) to create a workspace.
### 2.2 Create a compute instance
In the [Azure ML workspace](https://ml.azure.com/) that we created earlier, go to the compute menue and you will see the different compute resources available
In the [Azure ML workspace](https://ml.azure.com/) that we created earlier, go to the compute menu and you will see the different compute resources available