Skip to content

This repo contains the reference implementation for the Microsoft Learn Azure OpenAI end to end chat baseline.

License

Notifications You must be signed in to change notification settings

Azure-Samples/openai-end-to-end-baseline

Folders and files

NameName
Last commit message
Last commit date

Latest commit

Β 
Β 
Β 
Β 
Β 
Β 
Β 
Β 
Β 
Β 
Β 
Β 
Β 
Β 
Β 
Β 
Β 
Β 
Β 
Β 
Β 

Repository files navigation

Azure OpenAI end-to-end baseline reference implementation

This reference implementation illustrates an approach for authoring and running a chat application in a single region with prompt flow and Azure OpenAI. This repository supports the Baseline OpenAI end-to-end chat reference architecture on Microsoft Learn and showcases a secure environment for authoring a chat flow and two options for deploying the flow:

  • An Azure Machine Learning managed online endpoint in a managed virtual network.

    • If your application requires high availability and you favor using a managed online endpoint, it is recommended to extend this architecture by deploying multiple online endpoints behind a load balancer to improve resiliency.
  • A network-isolated, zone-redundant, highly available deployment in Azure App Service.

The implementation will have you build and test a prompt flow in an Azure AI Foundry project and deploy the flow. You'll be exposed to common generative AI chat application characteristics such as:

  • Creating prompts
  • Querying data stores for grounding data
  • Python code
  • Calling language models (such as GPT models)

This implementation builds off the basic implementation, and adds common production requirements such as:

  • Network isolation
  • Security
  • Reliability

Architecture

The implementation covers the following scenarios:

  1. Authoring a flow - Authoring a flow using prompt flow in Azure AI Foundry

  2. Deploying a flow to managed compute behind an Azure Machine Learning endpoint - The deployment of the executable flow created in the Azure AI Foundry portal to managed online endpoint. The client UI that is hosted in Azure App Service accesses the deployed flow.

  3. Deploying a flow to Azure App Service (Self-hosted option) - The deployment of an executable flow as a container to Azure App Service. The client UI that accesses the flow is also hosted in Azure App Service.

Authoring a flow

Diagram of the authoring architecture using Azure AI Foundry. It demonstrates key architecture components and flow when using AI Foundry portal as an authoring environment.

The authoring architecture diagram illustrates how flow authors connect to an Azure AI Foundry through a private endpoint in a virtual network. In this case, the author connects to the virtual network through Azure Bastion and a virtual machine. Connectivity to the virtual network is more commonly done in enterprises using private connectivity options like ExpressRoute or virtual network peering.

The diagram further illustrates how AI Foundry is configured for managed virtual network isolation. With this configuration, a managed virtual network is created, along with managed private endpoints enabling connectivity to private resources such as the project's Azure Storage and Azure Container Registry. You can also create user-defined connections like private endpoints to connect to resources like Azure OpenAI service and Azure AI Search.

Deploying a flow to Azure Machine Learning managed online endpoint

Diagram of the deploying a flow to managed online endpoint. The diagram illustrates the Azure services' relationships for an AI Foundry environment with a managed online endpoint. This diagram also demonstrates the private endpoints used to ensure private connectivity for the managed private endpoint in Azure AI Foundry.

The Azure AI Foundry deployment architecture diagram illustrates how a front-end web application, deployed into a network-secured App Service, connects to a managed online endpoint through a private endpoint in a virtual network. Like the authoring flow, the diagram illustrates how the AI Foundry project is configured for managed virtual network isolation. The deployed flow connects to required resources such as Azure OpenAI and Azure AI Search through managed private endpoints.

Deploying a flow to Azure App Service (alternative)

Diagram of the deploying a flow to Azure App Service. This drawing emphasizes how AI Foundry compute and endpoints are bypassed, and Azure App Service and its virtual network become responsible for connecting to the private endpoints for dependencies.

The Azure App Service deployment architecture diagram illustrates how the same prompt flow is containerized and deployed to Azure App Service alongside the same front-end web application from the prior architecture. This solution is a completely self-hosted, externalized alternative to an Azure AI Foundry managed online endpoint.

The flow is still authored in a network-isolated Azure AI Foundry project. To deploy an App Service in this architecture, the flows need to be containerized and pushed to the Azure Container Registry that is accessible through private endpoints by the App Service.

Deployment guide

Follow these instructions to deploy this example to your Azure subscription, try out what you've deployed, and learn how to clean up those resources.

Prerequisites

  • An Azure subscription

    • The subscription must have the following resource providers registered.

      • Microsoft.AlertsManagement
      • Microsoft.CognitiveServices
      • Microsoft.Compute
      • Microsoft.ContainerRegistry
      • Microsoft.KeyVault
      • Microsoft.Insights
      • Microsoft.MachineLearningServices
      • Microsoft.ManagedIdentity
      • Microsoft.Network
      • Microsoft.OperationalInsights
      • Microsoft.Storage
      • Microsoft.Web
    • The subscription selected must have the following quota available in the location you'll select to deploy this implementation.

      • Azure OpenAI: Standard, GPT-35-Turbo, 25K TPM
      • Storage Accounts: 2 instances
      • App Service Plans: P1v3 (AZ), 3 instances
      • Azure DDoS protection plan: 1
      • Standard, static Public IP Addresses: 2
      • Standard DASv4 Family Cluster Dedicated vCPUs for machine learning: 8
  • Your deployment user must have the following permissions at the subscription scope.

    • Ability to assign Azure roles on newly created resource groups and resources. (E.g. User Access Administrator or Owner)
    • Ability to purge deleted AI services resources. (E.g. Contributor or Cognitive Services Contributor)
  • The Azure CLI installed

    If you're executing this from WSL, be sure the Azure CLI is installed in WSL and is not using the version installed in Windows. which az should show /usr/bin/az.

  • The OpenSSL CLI installed.

1. πŸš€ Deploy the infrastructure

The following steps are required to deploy the infrastructure from the command line.

  1. In your shell, clone this repo and navigate to the root directory of this repository.

    git clone https://github.com/Azure-Samples/openai-end-to-end-baseline
    cd openai-end-to-end-baseline
  2. Log in and set your target subscription.

    az login
    az account set --subscription xxxxx
  3. Obtain the App gateway certificate

    Azure Application Gateway includes support for secure TLS using Azure Key Vault and managed identities for Azure resources. This configuration enables end-to-end encryption of the network traffic using standard TLS protocols. For production systems, you should use a publicly signed certificate backed by a public root certificate authority (CA). Here, we will use a self-signed certificate for demonstration purposes.

    • Set a variable for the domain used in the rest of this deployment.

      DOMAIN_NAME_APPSERV="contoso.com"
    • Generate a client-facing, self-signed TLS certificate.

      ⚠️ Do not use the certificate created by this script for actual deployments. The use of self-signed certificates are provided for ease of illustration purposes only. For your App Service solution, use your organization's requirements for procurement and lifetime management of TLS certificates, even for development purposes.

      Create the certificate that will be presented to web clients by Azure Application Gateway for your domain.

      openssl req -x509 -nodes -days 365 -newkey rsa:2048 -out appgw.crt -keyout appgw.key -subj "/CN=${DOMAIN_NAME_APPSERV}/O=Contoso" -addext "subjectAltName = DNS:${DOMAIN_NAME_APPSERV}" -addext "keyUsage = digitalSignature" -addext "extendedKeyUsage = serverAuth"
      openssl pkcs12 -export -out appgw.pfx -in appgw.crt -inkey appgw.key -passout pass:
    • Base64 encode the client-facing certificate.

      πŸ’‘ No matter if you used a certificate from your organization or generated one from above, you'll need the certificate (as .pfx) to be Base64 encoded for proper storage in Key Vault later.

      APP_GATEWAY_LISTENER_CERTIFICATE_APPSERV=$(cat appgw.pfx | base64 | tr -d '\n')
      echo APP_GATEWAY_LISTENER_CERTIFICATE_APPSERV: $APP_GATEWAY_LISTENER_CERTIFICATE_APPSERV
  4. Set the deployment location to one that supports availability zones and has available quota.

    This deployment has been tested in the following locations: eastus, eastus2, switzerlandnorth. You might be successful in other locations as well.

    LOCATION=eastus2
  5. Set the base name value that will be used as part of the Azure resource names for the resources deployed in this solution.

    BASE_NAME=<base resource name, between 6 and 8 lowercase characters, all DNS names will include this text, so it must be unique.>
  6. Create a resource group and deploy the infrastructure.

    You will be prompted for an admin password for the jump box; it must satisfy the complexity requirements for Windows.

    πŸ•— This might take about 25 minutes.

    RESOURCE_GROUP=rg-chat-baseline-${LOCATION}
    az group create -l $LOCATION -n $RESOURCE_GROUP
    
    PRINCIPAL_ID=$(az ad signed-in-user show --query id -o tsv)
    
    az deployment group create -f ./infra-as-code/bicep/main.bicep \
      -g $RESOURCE_GROUP \
      -p appGatewayListenerCertificate=${APP_GATEWAY_LISTENER_CERTIFICATE_APPSERV} \
      -p baseName=${BASE_NAME} \
      -p yourPrincipalId=${PRINCIPAL_ID}
  7. Apply workaround for Azure AI Foundry not deploying its managed network.

    Azure AI Foundry tends to delay deploying its managed network, which causes problems when trying to access Azure AI Foundry's portal experience in the next step. Your final IaC implementation must account for this.

    πŸ•— This might take about 15 minutes.

    az extension add --name ml
    az ml workspace provision-network -n aihub-${BASE_NAME} -g $RESOURCE_GROUP

2. Deploy a prompt flow from the Azure AI Foundry portal

To test this scenario, you'll be deploying a pre-built prompt flow. The prompt flow is called "Chat with Wikipedia" which adds a Wikipedia search as grounding data. Deploying a prompt flow requires data plane and control plane access. In this architecture, a network perimeter is established, and you must interact with the Azure AI Foundry portal and its resources from the network.

  1. Connect to the virtual network via Azure Bastion and the jump box or through a force-tunneled VPN or virtual network peering that you manually configure.

    The username for the Windows jump box deployed in this solution is vmadmin.

    πŸ’» Unless otherwise noted, the following steps are performed from the jump box or from your VPN-connected workstation. The instructions are written as if you are using the provided Windows jump box.
  2. Open the Azure portal to your subscription and navigate to the Azure AI project named aiproj-chat in your resource group.

    You'll need to sign in if this is the first time you are connecting through the jump box.

  3. Open the Azure AI Foundry portal by clicking the Launch studio button.

    This will take you directly into the 'Chat with Wikipedia project'. In the future, you can find all your AI Foundry hubs and projects by going to https://ai.azure.com.

  4. Click on Prompt flow in the left navigation.

  5. On the Flows tab, click + Create.

  6. Under Explore gallery, find "Chat with Wikipedia" and click Clone.

  7. Set the Folder name to chat_wiki and click Clone.

    This copies a starter prompt flow template into your Azure Files storage account. This action is performed by the managed identity of the project. After the files are copied, then you're directed to a prompt flow editor. That editor experience uses your own identity for access to Azure Files.

    πŸ› Occasionally, you might receive the following error:

    CloudDependencyPermission: This request is not authorized to perform this operation using this permission. Please grant workspace/registry read access to the source storage account.

    If this happens, simply choose a new folder name and click the Clone button again. You'll need to remember the new folder name to adjust the instructions later.

  8. Connect the extract_query_from_question prompt flow step to your Azure OpenAI model deployment.

    • For Connection, select 'aoai' from the dropdown menu. This is your deployed Azure OpenAI instance.
    • For deployment_name, select 'gpt35' from the dropdown menu. This is the model you've deployed in that Azure OpenAI instance.
    • For response_format, select '{"type":"text"}' from the dropdown menu
  9. Also connect the augmented_chat prompt flow step to your Azure OpenAI model deployment.

    • For Connection, select the same 'aoai' from the dropdown menu.
    • For deployment_name, select the same 'gpt35' from the dropdown menu.
    • For response_format, also select '{"type":"text"}' from the dropdown menu.
  10. Work around a telemetry issue that results in an error at the point of inferencing.

    At the time of this writing, there is a prompt flow + OpenTelemetry related bug that manifests itself after the prompt flow is deployed to a managed online endpoint. Proper requests to the /score endpoint result in an error response of unsupported operand type(s) for +: 'NoneType' and 'NoneType'.

    This issue should be resolved once default containers for managed online compute for running prompt flows are shipped with promptflow-tracing >= 1.16.1. As of late October 2024, the containers are still using 1.15.x. Until those packages are updated in the container, you'll need to perform the following steps.

    1. Click the Raw file mode toggle at the top of the flow and click Save if it asked to save.

    2. At the very bottom of the flow.diag.yml file, add the following two lines:

      environment_variables:
        PF_DISABLE_TRACING: true
    3. Click Save on the file.

    4. Untoggle the Raw file mode to get back to the flow designer.

  11. Click Save on the whole flow.

3. Test the prompt flow from the Azure AI Foundry portal

Here you'll test your flow by invoking it directly from the Azure AI Foundry portal. The flow still requires you to bring compute to execute it from. The compute you'll use when in the portal is the default Serverless offering, which is only used for portal-based prompt flow experiences. The interactions against Azure OpenAI are performed by your identity; the bicep template has already granted your user data plane access. The Serverless compute is run from the managed virtual network and is beholden to the egress network rules defined.

  1. Click Start compute session.

  2. πŸ•— Wait for that button to change to Compute session running. This might take about ten minutes.

    Do not advance until the serverless compute is running.

  3. Click the enabled Chat button on the UI.

  4. Enter a question that would require grounding data through recent Wikipedia content, such as a notable current event.

  5. A grounded response to your question should appear on the UI.

4. Deploy the prompt flow to an Azure Machine Learning managed online endpoint

Here you'll take your tested flow and deploy it to a managed online endpoint using Azure AI Foundry.

  1. Click the Deploy button in the UI.

  2. Choose Existing endpoint and select the one called ept-chat-BASE_NAME.

  3. Set the following Basic settings and click Next.

    • Deployment name: ept-chat-deployment
    • Virtual machine: Choose a small virtual machine size from which you have quota. 'Standard_D2as_v4' is plenty for this sample.
    • Instance count: 3. This is the recommended minimum count.
    • Inferencing data collection: Enabled
  4. Set the following Advanced settings and click Next.

    • Deployment tags: You can leave blank.
    • Environment: Use environment of current flow definition.
    • Application Insights diagnostics: Enabled
  5. Ensure the Output & connections settings are still set to the same connection name and deployment name as configured in the prompt flow and click Next.

  6. Click the Create button.

    There is a notice on the final screen that says:

    Following connection(s) are using Microsoft Entra ID based authentication. You need to manually grant the endpoint identity access to the related resource of these connection(s).

    • aoai

    This has already been taken care of by your IaC deployment. The managed online endpoint identity already has this permission to Azure OpenAI, so there is no action for you to take.

  7. πŸ•˜ Wait for the deployment to finish creating.

    The deployment can take over 15 minutes to create. To check on the process, navigate to the Deployments screen using the link in the left navigation. If you are asked about unsaved changes, just click Confirm.

    Eventually 'ept-chat-deployment' will be on this list and then eventually the deployment will be listed with a State of 'Succeeded' and have 100% traffic allocation. Use the Refresh button as needed.

    Do not advance until this deployment is complete.

5. Test the Azure Machine Learning online endpoint from the network

As a quick checkpoint of progress, you should test to make sure your Azure Machine Learning managed online endpoint is able to be called from the network. These steps test the network and authorization configuration of that endpoint.

  1. Install some tooling on the jump box.

    Since your jump box is acting as a developer workstation and build agent, you'll need some tooling installed. Install the Azure CLI and Miniconda. The instructions that follow can be run from new Terminal session to install both.

    winget install -e --id=Microsoft.AzureCLI
    winget install -e --id=Anaconda.Miniconda3

    Restart your terminal to get az included in your path and install the ML Azure CLI extension.

    az extension add --name ml
  2. Close your terminal.

  3. Open an Anaconda PowerShell Prompt instance from the Start Menu.

    You'll need a PowerShell prompt with a Python environnment available eventually in these instructions. It's best to open it now to only need to set environment variables once.

  4. Log in through the Azure CLI so the terminal has access to your subscription.

    If prompted, choose No, sign in to this app only.

  5. Carry over some context from your workstation.

    $BASE_NAME="SET TO SAME VALUE YOU USED BEFORE"
    $LOCATION="SET TO THE SAME VALUE YOU USED BEFORE"
    $RESOURCE_GROUP="rg-chat-baseline-${LOCATION}"
  6. Execute an HTTP request to the online endpoint.

    Feel free to adjust for your own question.

    New-Item "request.json" -ItemType File -Value '{"question":"Who were the top three medal winning countries in the 2024 Paris Olympics?"}'
    az ml online-endpoint invoke -w aiproj-chat -n ept-chat-${BASE_NAME} -g $RESOURCE_GROUP -r request.json
  7. A grounded response to your question should appear in the output. This test emulates any compute platform that is on the virtual network that would be calling the /score API on the managed online endpoint.

6. Publish the chat front-end web app

Workloads build chat functionality into an application. Those interfaces usually call APIs which in turn call into prompt flow. This implementation comes with such an interface. You'll deploy it to Azure App Service using its run from package capabilities.

In a production environment, you use a CI/CD pipeline to:

  • Build your web application
  • Create the project zip package
  • Upload the zip file to your storage account from compute that is in or connected to the workload's virtual network.

For this deployment guide, you'll continue using your jump box (or VPN-connected workstation) to simulate part of that process.

  1. Using the same Powershell terminal session from previous steps, download the web UI.

    Invoke-WebRequest -Uri https://raw.githubusercontent.com/Azure-Samples/openai-end-to-end-baseline/refs/heads/main/website/chatui.zip -OutFile chatui.zip

    If you are using a VPN-connected workstation, download the same zip to your workstation.

  2. Upload the web application to Azure Storage, where the web app will load the code from.

    az storage blob upload -f chatui.zip --account-name "st${BASE_NAME}" --auth-mode login -c deploy -n chatui.zip
  3. Restart the web app to launch the site. (This can be done from your workstation or the jump box.)

    az webapp restart --name "app-${BASE_NAME}" --resource-group "${RESOURCE_GROUP}"

7. Test the deployed application that calls into the Azure Machine Learning managed online endpoint

This section will help you to validate that the workload is exposed correctly and responding to HTTP requests. This will validate that traffic is flowing through Application Gateway, into your Web App, and from your Web App, into the Azure Machine Learning managed online endpoint, which contains the hosted prompt flow. The hosted prompt flow will interface with Wikipedia for grounding data and Azure OpenAI for generative responses.

πŸ’» Unless otherwise noted, the following steps are all performed from your original workstation, not from the jump box.
  1. Get the public IP address of the Application Gateway.

    # Query the Azure Application Gateway Public IP
    APPGW_PUBLIC_IP=$(az network public-ip show -g $RESOURCE_GROUP -n "pip-$BASE_NAME" --query [ipAddress] --output tsv)
    echo APPGW_PUBLIC_IP: $APPGW_PUBLIC_IP
  2. Create an A record for DNS.

    πŸ’‘ You can simulate this via a local hosts file modification. Alternatively, you can add a real DNS entry for your specific deployment's application domain name if permission to do so.

    Map the Azure Application Gateway public IP address to the application domain name. To do that, please edit your hosts file (C:\Windows\System32\drivers\etc\hosts or /etc/hosts) and add the following record to the end: ${APPGW_PUBLIC_IP} www.${DOMAIN_NAME_APPSERV} (e.g. 50.140.130.120 www.contoso.com)

  3. Browse to the site (e.g. https://www.contoso.com).

    πŸ’‘ It may take up to a few minutes for the App Service to start properly. Remember to include the protocol prefix https:// in the URL you type in your browser's address bar. A TLS warning will be present due to using a self-signed certificate. You can ignore it or import the self-signed cert (appgw.pfx) to your user's trusted root store.

  4. Try it out!

    Once you're there, ask your solution a question. Your question should involve something that would only be known if the RAG process included content from Wikipedia such as recent data or events.

8. Rehost the prompt flow in Azure App Service

This is a second option for deploying the prompt flow code. With this option, you deploy the flow to Azure App Service instead of the managed online endpoint.

You will need access to the prompt flow files for this experience, since we'll be building a container out of them. While you could download them from your jump box and transfer them to your workstation (through git or though .zip), these instructions will just use the jump box as your prompt flow development environment. Using the jump box again simulates a build agent in the network. To perform these build and deploy tasks, you'll need to install some developer tools on the jump box.

πŸ’» Unless otherwise noted, the following steps are all performed from the jump box or from your VPN-connected workstation.
  1. From your existing Anaconda PowerShell Prompt instance, start a conda session and install the promptflow tools (pf CLI).

    conda create -y --name pf python=3.12
    conda activate pf
    
    pip install promptflow[azure] promptflow-tools bs4
  2. Open the Prompt flow UI again in your Azure AI Foundry project.

  3. Expand the Files tab in the upper-right pane of the UI.

  4. Click on the download icon to download the flow as a zip file.

  5. Unzip the prompt flow zip file you downloaded.

    Ensure this file name is set to the directory name you used when first cloning this prompt flow.

    cd Downloads
    Expand-Archive chat_wiki.zip
    cd chat_wiki
  6. Add packages to requirements.txt, which ensures they are installed in your container.

    Add-Content requirements.txt -Value @'
    promptflow[azure]
    promptflow-tools
    python-dotenv
    bs4
    '@
  7. Create a file for the Azure OpenAI connection named aoai.yaml and register it.

    New-Item aoai.yaml -ItemType File -Value @'
    $schema: https://azuremlschemas.azureedge.net/promptflow/latest/AzureOpenAIConnection.schema.json
    name: aoai
    type: azure_open_ai
    api_base: "${env:OPENAICONNECTION_API_BASE}"
    api_type: "azure"
    api_version: "2024-02-01"
    auth_mode: "meid_token"
    '@
    
    pf connection create -f aoai.yaml

    πŸ’‘ The App Service is configured with App Settings that surface as environment variables for OPENAICONNECTION_API_BASE.

  8. Bundle the prompt flow to support creating a container image.

    pf flow build --source ./ --output dist --format docker

    The following code will create a directory named 'dist' with a Dockerfile and all the required flow code files.

  9. Build the container image and push it to your Azure Container Registry.

    cd dist
    
    $NAME_OF_ACR="cr${BASE_NAME}"
    $ACR_CONTAINER_NAME="aoai"
    $IMAGE_NAME="wikichatflow"
    $IMAGE_TAG="1.0"
    $FULL_IMAGE_NAME="${ACR_CONTAINER_NAME}/${IMAGE_NAME}:${IMAGE_TAG}"
    
    az acr build --agent-pool imgbuild -t $FULL_IMAGE_NAME -r $NAME_OF_ACR .
  10. Set the container image on the Web App that will be hosting the prompt flow.

    $PF_APP_SERVICE_NAME="app-$BASE_NAME-pf"
    $ACR_IMAGE_NAME="${NAME_OF_ACR}.azurecr.io/${FULL_IMAGE_NAME}"
    
    az webapp config container set -n $PF_APP_SERVICE_NAME -g $RESOURCE_GROUP -i $ACR_IMAGE_NAME -r "https://${NAME_OF_ACR}.azurecr.io"
    az webapp deployment container config -e true -n $PF_APP_SERVICE_NAME -g $RESOURCE_GROUP
  11. Modify the configuration setting in the App Service that has the chat UI and point it to your deployed prompt flow endpoint hosted in App Service instead of the managed online endpoint.

    $UI_APP_SERVICE_NAME="app-$BASE_NAME"
    $ENDPOINT_URL="https://$PF_APP_SERVICE_NAME.azurewebsites.net/score"
    
    az webapp config appsettings set --name $UI_APP_SERVICE_NAME --resource-group $RESOURCE_GROUP --settings chatApiEndpoint=$ENDPOINT_URL
    az webapp restart --name $UI_APP_SERVICE_NAME --resource-group $RESOURCE_GROUP

🏁 Try it out. Test the final deployment

πŸ’» Unless otherwise noted, the remaining steps are performed from your original workstation, not from the jump box.

Browse to the site (e.g. https://www.contoso.com) once again. Once there, ask your solution a question. Like before, your question should involve something that would only be known if the RAG process included content from Wikipedia such as recent data or events.

In this final configuration, your chat UI is interacting with the prompt flow code hosted in another Web App in your Azure App Service instance. Your Azure Machine Learning online endpoint is not used, and Wikipedia and Azure OpenAI are being called right from your prompt flow Web App.

🧹 Clean up resources

Most Azure resources deployed in the prior steps will incur ongoing charges unless removed. This deployment is typically over $100 a day, mostly due to Azure DDoS Protection and Azure AI Foundry's managed network's firewall. Promptly delete resources when you are done using them.

Additionally, a few of the resources deployed go into soft delete status which may restrict the ability to redeploy another resource with the same name and may not release quota. It is best to purge any soft deleted resources once you are done exploring. Use the following commands to delete the deployed resources and resource group and to purge each of the resources with soft delete.

⚠️ This will completely delete any data you may have included in this example. That data and this deployment will be unrecoverable.
az group delete -n $RESOURCE_GROUP -y

# Purge the soft delete resources
az keyvault purge -n kv-${BASE_NAME} -l $LOCATION 
az cognitiveservices account purge -g $RESOURCE_GROUP -l $LOCATION -n oai-${BASE_NAME}

Contributions

Please see our Contributor guide.

This project has adopted the Microsoft Open Source Code of Conduct. For more information see the Code of Conduct FAQ or contact [email protected] with any additional questions or comments.

With ❀️ from Azure Patterns & Practices, Azure Architecture Center.