dotnet-isolated-azurefunction

.NET Azure Function Sample in out-of-proc (OOP) mode

This tutorial will demonstrate how to use Azure Functions programming model to integrate with multiple Dapr components in out-of-proc (OOP) execution model. Please first go through the Dapr quickstarts to get some contexts on various Dapr building blocks as well as go through Azure Functions hello-world sample to familiarize with function programming model. We'll be running a Darp'd function app locally:

Invoked by Dapr Service Invocation and persist/retrieve state using Dapr State Management
Publish/consume message on a specific topic powered by Dapr pub/sub and DaprPublish/DaprTopicTrigger
Interact with Dapr Bindings using DaprBinding

Prerequisites

This sample requires you to have the following installed on your machine:

Setup Dapr: Follow instructions to download and install the Dapr CLI and initialize Dapr.
Install Azure Functions Core Tool
Run Kafka Docker Container locally

Step 1 - Understand the Settings

Now that we've locally set up Dapr, clone the repo, then navigate to the dotnet-isolated-azurefunction sample:

git clone https://github.com/Azure/azure-functions-dapr-extension.git
cd azure-functions-dapr-extension
dotnet build --configfile nuget.config
cd samples/dotnet-isolated-azurefunction

In this folder, you will find local.settings.json, which lists a few app settings by the trigger/binding attributes.

"StateStoreName": "statestore"

The % denotes an app setting value, for the following binding as an example:

[DaprStateOutput("%StateStoreName%", Key = "product")]

In the runtime, the binding will check the local.settings.json file and resolve %StateStoreName% into statestore. The function will then make a call into the state store named as statestore.

Please make sure the value in local.settings.json matches with the name specified in the YAML files in Dapr /component folder:

...

kind: Component
metadata:
  name: statestore
spec:

....

Step 2 - Run Function App with Dapr

Run function host with Dapr:

Windows (requires Dapr 1.12+)

dapr run -f .

Linux/Mac OS (requires Dapr 1.11+)

dapr run -f .

The command should output the dapr logs that look like the following:

Starting Dapr with id functionapp. HTTP Port: 3501. gRPC Port: 55377
Updating metadata for app command: func host start
You're up and running! Both Dapr and your app logs will appear here.
...

Note: there are three ports in this service. The --app-port(3001) is where our function host listens on for any Dapr trigger. The --dapr-http-port(3501) is where Dapr APIs runs on as well as the grpc port. The function port (default 7071) is where function host listens on for any HTTP triggred function using api/{functionName} URl path. All of these ports are configurable.

Step 3 - Understand the Sample

1. Service Invocation and State Management: Create New Order and Retrieve Order

[Function("CreateNewOrder")]
[DaprStateOutput("%StateStoreName%", Key = "order")]
public static JsonElement Run(
    [DaprServiceInvocationTrigger] JsonElement payload, 
    FunctionContext functionContext)
{
    var log = functionContext.GetLogger("CreateNewOrder");
    log.LogInformation("C# function processed a CreateNewOrder request from the Dapr Runtime.");

    // payload must be of the format { "data": { "value": "some value" } }
    payload.TryGetProperty("data", out JsonElement data);

    return data;
}

Here the DaprServiceInvocationTrigger is used to receive and handle CreateNewOrder request and it first logs that this function is successfully triggered. Then it binds the content to the JsonElement object. The DaprState output binding will persist the order into the state store by serializing JsonElement object into a state arrary format and posting it to http://localhost:${daprPort}/v1.0/state/${stateStoreName}.

Now you can invoke this function by using either the test.http file with your favorite REST client, or use the Dapr cli in a new command line terminal.

Windows PowerShell

dapr invoke --app-id functionapp --method CreateNewOrder --data '{ \"data\": {\"value\": { \"orderId\": \"42\" } } }'

In your terminal window, you should see logs indicating that the message was received and state was updated:

== APP == [TIMESTAMP] Executing 'Functions.CreateNewOrder' (Reason='(null)', Id=<ExecutionId>)
== APP == [TIMESTAMP] C# function processed a CreateNewOrder request from the Dapr Runtime.
== APP == [TIMESTAMP] Executed 'Functions.CreateNewOrder' (Succeeded, Id=<ExecutionId>, Duration=39ms)

In order to confirm the state is now persisted. You can now move to the next function:

[Function("RetrieveOrder")]
public static void Run(
    [DaprServiceInvocationTrigger] object args,
    [DaprStateInput("%StateStoreName%", Key = "order")] JsonElement data, FunctionContext functionContext)
{
    var log = functionContext.GetLogger("RetrieveOrder");
    log.LogInformation("C# function processed a RetrieveOrder request from the Dapr Runtime.");

    //print the fetched state value
    log.LogInformation(JsonSerializer.Serialize(data));
}

Similarly, the function will be triggered by any RetrieveOrder service invocation request. Here DaprState input binding is used to fetch the latest value of the key order and bind the value to JsonElement object data' before exectuing the function block.

Invoke input binding function with Dapr cli

dapr invoke --app-id functionapp --method RetrieveOrder

In your terminal window, you should see logs to confirm the expected result:

== APP == [TIMESTAMP] Executing 'Functions.RetrieveOrder' (Reason='(null)', Id=<ExecutionId>)
== APP == [TIMESTAMP] {"orderId":"42"}
== APP == [TIMESTAMP] C# function processed a RetrieveOrder request from the Dapr Runtime.
== APP == [TIMESTAMP] Executed 'Functions.RetrieveOrder' (Succeeded, Id=<ExecutionId>, Duration=186ms)

2. Pub/Sub: TransferEventBetweenTopics and PrintTopicMessage

[Function("TransferEventBetweenTopics")]
[DaprPublishOutput(PubSubName = "%PubSubName%", Topic = "B")]
public static DaprPubSubEvent Run(
    [DaprTopicTrigger("%PubSubName%", Topic = "A")] CloudEvent subEvent, FunctionContext functionContext)
{
    var log = functionContext.GetLogger("TransferEventBetweenTopics");
    log.LogInformation("C# function processed a TransferEventBetweenTopics request from the Dapr Runtime.");

    return new DaprPubSubEvent("Transfer from Topic A: " + subEvent.Data);
}

Here, DaprTopicTrigger is used to subscribe to topic A, so whenever a message is published on topic A, the message will bind to CloudEvent subEvent. Please see the CloudEvent for details.

Note: Alternatively, any other JSON-serializable datatype binds directly to the data field of the cloud event. For example, int, double, and custom “POCO” types can be used as the trigger type and will be deserialized from the event’s data field.

Then, DaprPublish output binding is used to publish a new event to topic B using the strongly-typed DaprPubSubEvent class, or it can be written using the attribute [DaprPublish(Topic = "B")] out object pubEvent:

    pubEvent = "Transfer from Topic A:" + subEvent.Data;

The function below subscribes to topic B, and it simply prints the message content when an event arrives.

[Function("PrintTopicMessage")]
public static void Run(
    [DaprTopicTrigger("%PubSubName%", Topic = "B")] CloudEvent subEvent, FunctionContext functionContext)
{
    var log = functionContext.GetLogger("PrintTopicMessage");
    log.LogInformation("C# function processed a PrintTopicMessage request from the Dapr Runtime.");
    log.LogInformation($"Topic B received a message: {subEvent.Data}.");
}

You can publish a message to topic A using the Dapr cli:

dapr publish --pubsub messagebus --publish-app-id functionapp --topic A --data 'This is a test'

The Dapr logs should show the following:

== APP == [TIMESTAMP] Executing 'TransferEventBetweenTopics' (Reason='(null)', Id=<ExectuionId>)
== APP == [TIMESTAMP] C# function processed a TransferEventBetweenTopics request from the Dapr Runtime.
== APP == [TIMESTAMP] Executed 'TransferEventBetweenTopics' (Succeeded, Id=<ExectuionId>)
== APP == [TIMESTAMP] Executing 'PrintTopicMessage' (Reason='(null)', Id=690f2fac-d0bc-4ad9-81e6-2621d19e72c9)
== APP == [TIMESTAMP] C# function processed a PrintTopicMessage request from the Dapr Runtime.
== APP == [TIMESTAMP]  Topic B received a message: "Transfer from Topic A: This is a test".
== APP == [TIMESTAMP] Executed 'PrintTopicMessage' (Succeeded, Id=<ExectuionId>)

3. Dapr Binding:

This section demonstrates the integration of this extension with Dapr Binding component. A Kafka binding as an example. Please refer this doc to spin up Kafka locally. In the example below, DaprBindingTrigger is used to have the azure function triggerred when a new message arrives at Kafka.

[Function("ConsumeMessageFromKafka")]
public static void Run(
    // Note: the value of BindingName must match the binding name in components/kafka-bindings.yaml
    [DaprBindingTrigger(BindingName = "%KafkaBindingName%")] JsonElement triggerData,
    FunctionContext functionContext)
{
    var log = functionContext.GetLogger("ConsumeMessageFromKafka");

    log.LogInformation("Hello from Kafka!");

    log.LogInformation($"Trigger data: {triggerData}");
}

Now let's look at how our function uses DaprBinding to push messages into our Kafka instance.

[Function("SendMessageToKafka")]
[DaprBindingOutput(BindingName = "%KafkaBindingName%", Operation = "create")]
public static JsonElement Run(
    [DaprServiceInvocationTrigger] JsonElement payload, FunctionContext functionContext)
{
    var log = functionContext.GetLogger("SendMessageToKafka");
    log.LogInformation("C#  function processed a SendMessageToKafka request.");

    return payload;
}

DaprBinding output binding sends the payload to the sample-topic Kafka Dapr binding. IAsyncCollector<object> allows you to send multiple message by calling AddAsync with different payloads.

You can use service invocation to invoke this function:

Windows

dapr invoke --app-id functionapp --method SendMessageToKafka --data '{\"data\":{\"message\": \"hello!\" }}'

Linux/MacOS

dapr invoke --app-id functionapp --method SendMessageToKafka --data '{"data":{"message": "hello!" }}'

The Dapr function logs should show the following:

== APP == [TIMESTAMP] Executing 'SendMessageToDaprBinding' (Reason='', Id=<ExecutionId>)
== APP == [TIMESTAMP] C# HTTP trigger function processed a request.
== APP == [TIMESTAMP] Executed 'SendMessageToDaprBinding' (Succeeded, Id=<ExecutionId>)

Since both functions have been deployed in the same app, you can see the logs below which indicate that the message has been consumed.

== APP == [TIMESTAMP] Executing 'ConsumeMessageFromKafka' (Reason='', Id=<ExecutionId>)
== APP == [TIMESTAMP] Hello from Kafka!
== APP == [TIMESTAMP] Trigger data: { message: 'hello!' }
== APP == [TIMESTAMP] Executed 'ConsumeMessageFromKafka' (Succeeded, Id=<ExecutionId>)

4. Dapr Secret:

This section demonstrates how DaprSecret input binding integrates with Dapr Secret component. Here, Local file Secret Store is used and you can follow the setup instructions at Local file secret store to configure a secret named "my-secret".

Please refer to Dapr Secret Store doc to set up other supported secret stores.

[Function("RetrieveSecretLocal")]
public static void Run(
    [DaprServiceInvocationTrigger] object args,
    [DaprSecretInput("localsecretstore", "my-secret", Metadata = "metadata.namespace=default")] IDictionary<string, string> secret,
    FunctionContext functionContext)
{
    var log = functionContext.GetLogger("RetrieveSecretLocal");
    log.LogInformation("C# function processed a RetrieveSecret request from the Dapr Runtime.");

    // print the fetched secret value
    // this is only for demo purpose
    // please do not log any real secret in your production code        
    foreach (var kvp in secret)
    {
        log.LogInformation("Stored secret: Key = {0}, Value = {1}", kvp.Key, kvp.Value);
    }
}

DaprSecret input binding retreives the secret named by my-secret and binds to secret as a dictionary object. Since Local Secret Store supports multiple keys in a secret, the secret dictionary could include multiple key value pairs and you can access the specfic one. For other secret store only supports one keys, the dictionary will only contain one key value pair where key matches the secret name, namely my-secret in this example, and the actual secret value is in the property value. This sample just simply prints out all secrets, but please do not log any real secret in your production code.

You can retrieve the secret by invoking the RetrieveSecretLocal function using the command:-

dapr invoke --app-id functionapp --method RetrieveSecretLocal my-secret

Given differnt secret store, the metadata string needs to be provided. In order to specify multiple metadata fields, join them by &, see the below Hashicorp Vault example.

[DaprSecret("vault", "my-secret",  Metadata = "metadata.version_id=15&metadata.version_stage=AAA"`.

5. Dapr Invoke output binding

Dapr invoke output binding is could be used to invoke other azure functions or service where it will act as a proxy. For example, In the below Azure function, which gets triggered on HttpTrigger, can invoke antother azure functions like RetrieveOrder.

[Function("InvokeOutputBinding")]
[DaprInvokeOutput(AppId = "{appId}", MethodName = "{methodName}", HttpVerb = "post")]
public static async Task<InvokeMethodParameters> Run(
    [HttpTrigger(AuthorizationLevel.Function, "get", Route = "invoke/{appId}/{methodName}")] HttpRequestData req, FunctionContext functionContext)
{
    var log = functionContext.GetLogger("InvokeOutputBinding");
    log.LogInformation("C# HTTP trigger function processed a request.");

    string requestBody = await new StreamReader(req.Body).ReadToEndAsync();

    var outputContent = new InvokeMethodParameters
    {
        Body = requestBody
    };

    return outputContent;
}

Invoke the above function (InvokeOutputBinding) with http get call

http://localhost:7071/api/invoke/functionapp/RetrieveOrder

Once InvokeOutputBinding is called, it will invoke the RetrieveOrder azure fucntion and the output will look like as shown below.

== APP == [TIMESTAMP] Executing 'InvokeOutputBinding' (Reason='This function was programmatically called via the host APIs.', Id=<ExecutionId>)
== APP == [TIMESTAMP] C# HTTP trigger function processed a request.
== APP == [TIMESTAMP] Executing 'RetrieveOrder' (Reason='(null)', Id=<ExecutionId>)
== APP == [TIMESTAMP] C# function processed a RetrieveOrder request from the Dapr Runtime.
== APP == [TIMESTAMP] {"orderId":"41"}
== APP == [TIMESTAMP] Executed 'RetrieveOrder' (Succeeded, Id=<ExecutionId>)
== APP == [TIMESTAMP] Executed 'InvokeOutputBinding' (Succeeded, Id=<ExecutionId>)

Step 6 - Cleanup

To stop your services from running, simply stop the "dapr run" process. Alternatively, you can spin down each of your services with the Dapr CLI "stop" command. For example, to spin down both services, run these commands in a new command line terminal:

dapr stop --app-id functionapp

Troubleshooting guide

If you run into issues, follow this troubleshooting guild.

Deploy Dapr Function App into Kubernetes

This section describes the steps to get the Dapr function app running in a Kubernetes cluster. (To generate your custom container image please see these instructions)

Prerequisites

Below are the requirements for this sample which covers multiple Dapr components. Please skip any step that is not required for your own function app.

Install kubectl
Install helm (you can skip this if your function app does not use Kafka bindings)
A Kubernetes cluster, such as Minikube, AKS or GKE
A State Store, such as Redis Store for Dapr state store and pub/sub message delivery (you can skip this if your function does not use the aforementioned components)

Setup Dapr on your Kubernetes Cluster

Once you have a cluster, run dapr init --kubernetes to deploy Dapr to it. Please follow this( guide on how to install Dapr on your Kubernetes via Dapr CLI or Helm. Dapr CLI does not support non-default namespaces and only is recommended for testing purposes. If you need a non-default namespace or in production environment, Helm has to be used.

⌛  Making the jump to hyperspace...
✅  Deploying the Dapr Operator to your cluster...
✅  Success! Dapr has been installed. To verify, run 'kubectl get pods -w' in your terminal

Deploy Dapr components

[Optional] Configure the State Store

Replace the hostname and password in deploy/redis.yaml. https://github.com/dapr/quickstarts/tree/master/hello-kubernetes#step-2---create-and-configure-a-state-store
Run kubectl apply -f ./deploy/redis.yaml and observe that your state store was successfully configured!
```
component.dapr.io/statestore configured
```
Follow secret management instructions to securely manage your secrets in a production-grade application.
More detail can be found in Dapr sample repo 2.hello-kubernetes

[Optional] Setting up a Kafka in Kubernetes

Install Kafka via bitnami/kafka

    helm repo add bitnami https://charts.bitnami.com/bitnami
    helm repo update
    kubectl create ns kafka
    helm install dapr-kafka bitnami/kafka --wait --namespace kafka -f ./kafka-non-persistence.yaml

Run kubectl -n kafka get pods -w to see Kafka pods are running. This might take a few minute, but you should see.

 NAME                     READY   STATUS    RESTARTS   AGE
 dapr-kafka-0             1/1     Running   0          2m7s
 dapr-kafka-zookeeper-0   1/1     Running   0          2m57s
 dapr-kafka-zookeeper-1   1/1     Running   0          2m13s
 dapr-kafka-zookeeper-2   1/1     Running   0          109s

Run kubectl apply -f .\deploy\kafka.yaml and observe that your kafka was successfully configured!
```
component.dapr.io/sample-topic created
```
Follow secret management instructions to securely manage your secrets in a production-grade application.

[Optional] Setting up the Pub/Sub in Kubernetes

This sample uses Redis Stream (Redis Version 5 and above) to enable pub/sub. Replace the hostname and password in deploy/redis-pubsub.yaml. https://github.com/dapr/quickstarts/tree/master/hello-kubernetes#step-2---create-and-configure-a-state-store
Run kubectl apply -f .\deploy\redis.yaml and observe that your state store was successfully configured!
```
component.dapr.io/messagebus configured
```
See Dapr sample repo pub-sub for more instructions.

[Optional] Setting up Secrets in Kubernetes

Create the secret in the kubernetes environment for our Dapr Secret binding sample:

kubectl create secret generic my-secret --from-literal=key1=supersecret --from-literal=key2=topsecret

Confirm the secret is persisted and the value are base64 encoded.

$ kubectl get secret my-secret -o yaml

apiVersion: v1
data:
  key1: c3VwZXJzZWNyZXQ= # decoded value: supersecret
  key2: dG9wc2VjcmV0 # decoded value: topsecret
kind: Secret
...

Now you should have all Dapr components up and running in your kubernetes cluster. Next step is to deploy the function app into a kubernetes cluster with the Dapr Side Car.

Deploy your Dapr Function App

You can find your function app deployment file deploy/functionapp.yaml.

In the second part of the deployment file, you need to put your image name and specify your app port where your Dapr Trigger will listen on.

apiVersion: apps/v1
kind: Deployment
metadata:
  name: functionapp
  labels:
    app: functionapp
spec:
  replicas: 1
  selector:
    matchLabels:
      app: functionapp
  template:
    metadata:
      labels:
        app: functionapp
      annotations:
        dapr.io/enabled: "true"
        dapr.io/id: "functionapp"
        dapr.io/port: "<app-port>"
    spec:
      containers:
      - name: functionapp
        image: <your-docker-hub-id>/<your-image-name>
        ports:
        - containerPort: <app-port>
        imagePullPolicy: Always
        env:
        - name: StateStoreName
          value: <state-store-name>
        - name: KafkaBindingName
          value: <dapr-binding-name>

Now run the following command to deploy the function app into your kubernetes cluster.

$ kubectl apply -f ./deploy/functionapp.yaml

secret/functionapp created
deployment.apps/functionapp created

Run kubectl get pods to see your function app is up and running.

NAME                                     READY   STATUS    RESTARTS   AGE
dapr-operator-64b94c8b85-jtbpn           1/1     Running   0          10m
dapr-placement-844cf4c696-2mv88          1/1     Running   0          10m
dapr-sentry-7c8fff7759-zwph2             1/1     Running   0          10m
dapr-sidecar-injector-675df889d5-22wxr   1/1     Running   0          10m
functionapp-6d4cc6b7f7-2p9n9             2/2     Running   0          8s

Test your Dapr Function App

Now let's try invoke our function. You can use the follwoing commad to the logs. Use --tail to specify the last n lines of logs.

kubectl logs --selector=app=functionapp -c functionapp --tail=50

In order to hit your function app endpoint, you can use port forwarding. Use the pod name for your function app.

kubectl port-forward functionapp-6d4cc6b7f7-2p9n9 {port-of-your-choice}:3001

You can use the Rest Client Plugin as below. You can use any of your preferred tools to send HTTP request.

POST  http://localhost:{port-of-your-choice}/CreateNewOrder  

{
    "data": { 
        "orderId": 41 
    }
}

POST  http://localhost:{port-of-your-choice}/RetrieveOrder

POST  http://localhost:{port-of-your-choice}/SendMessageToKafka 

{"message": "hello!" }

POST  http://localhost:{port-of-your-choice}/RetrieveSecret

Run kubectl logs command to retrieve the latest log. You should see your function app is getting invoked as you have seen when testing locally.

�: Function.RetrieveOrder[0]
      Executing 'RetrieveOrder' (Reason='', Id=0f378098-d15a-4f13-81ea-20caee7ae10c)
�: Function.RetrieveOrder.User[0]
      C# function processed a RetrieveOrder request from the Dapr Runtime.
�: Function.RetrieveOrder.User[0]
      {"orderId":41}
�: Function.RetrieveOrder[0]
      Executed 'RetrieveOrder' (Succeeded, Id=0f378098-d15a-4f13-81ea-20caee7ae10c)

�: Function.CreateNewOrder[0]
      Executing 'CreateNewOrder' (Reason='', Id=faa53523-85c3-41cb-808c-02d47cb7dcdc)
�: Function.CreateNewOrder.User[0]
      C# function processed a CreateNewOrder request from the Dapr Runtime.
�: Function.CreateNewOrder[0]
      Executed 'CreateNewOrder' (Succeeded, Id=faa53523-85c3-41cb-808c-02d47cb7dcdc)

�: Function.SendMessageToKafka.User[0]
      C# function processed a SendMessageToKafka request.
�: Function.SendMessageToKafka[0]
      Executed 'SendMessageToKafka' (Succeeded, Id=5aa8e383-9c8b-4686-90a7-089d71118d81)

�: Function.ConsumeMessageFromKafka[0]
      Executing 'ConsumeMessageFromKafka' (Reason='', Id=aa8d92a6-2da1-44ff-a033-cb217b9c29541)
�: Function.ConsumeMessageFromKafka.User[0]
     Hello from Kafka!
�: Function.ConsumeMessageFromKafka[0]
      Trigger {data: {"message": "hello!"}
�: Function.SendMessageToKafka[0]
      Executed 'ConsumeMessageFromKafka' (Succeeded, Id=aa8d92a6-2da1-44ff-a033-cb217b9c29541)

�: Function.RetrieveSecret[0]
      Executing 'RetrieveSecret' (Reason='', Id=961af93f-9ddc-477e-a490-4d07bf6d026a))
�: Function.RetrieveSecret.User[0]
      C# function processed a RetrieveSecret request from the Dapr Runtime.
�: Function.RetrieveSecret.User[0]
      Stored secret: Key = key1, Value = super-secret
�: Function.RetrieveSecret[0]
      Stored secret: Key = key2, Value = top-secret
�: Function.RetrieveSecret[0]
      Executed 'RetrieveSecret' (Succeeded, Id=961af93f-9ddc-477e-a490-4d07bf6d026a))

Cleanup

Once you're done using the sample, you can spin down your Kubernetes resources by navigating to the ./deploy directory and running:

kubectl delete -f .

This will spin down each resource defined by the .yaml files in the deploy directory.

Name		Name	Last commit message	Last commit date
parent directory ..
InputBinding		InputBinding
OutputBinding		OutputBinding
Properties		Properties
Trigger		Trigger
deploy		deploy
localNuget		localNuget
.gitignore		.gitignore
Order.cs		Order.cs
Product.cs		Product.cs
Program.cs		Program.cs
README.md		README.md
dapr.yaml		dapr.yaml
dotnet-isolated-azurefunction.csproj		dotnet-isolated-azurefunction.csproj
host.json		host.json
local.settings.json		local.settings.json
test.http		test.http

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dotnet-isolated-azurefunction

dotnet-isolated-azurefunction

README.md

.NET Azure Function Sample in out-of-proc (OOP) mode

Prerequisites

Step 1 - Understand the Settings

Step 2 - Run Function App with Dapr

Step 3 - Understand the Sample

1. Service Invocation and State Management: Create New Order and Retrieve Order

2. Pub/Sub: TransferEventBetweenTopics and PrintTopicMessage

3. Dapr Binding:

4. Dapr Secret:

5. Dapr Invoke output binding

Step 6 - Cleanup

Troubleshooting guide

Deploy Dapr Function App into Kubernetes

Prerequisites

Setup Dapr on your Kubernetes Cluster

Deploy Dapr components

[Optional] Configure the State Store

[Optional] Setting up a Kafka in Kubernetes

[Optional] Setting up the Pub/Sub in Kubernetes

[Optional] Setting up Secrets in Kubernetes

Deploy your Dapr Function App

Test your Dapr Function App

Cleanup

Files

dotnet-isolated-azurefunction

Directory actions

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dotnet-isolated-azurefunction

Folders and files

parent directory

README.md

.NET Azure Function Sample in out-of-proc (OOP) mode

Prerequisites

Step 1 - Understand the Settings

Step 2 - Run Function App with Dapr

Step 3 - Understand the Sample

1. Service Invocation and State Management: Create New Order and Retrieve Order

2. Pub/Sub: TransferEventBetweenTopics and PrintTopicMessage

3. Dapr Binding:

4. Dapr Secret:

5. Dapr Invoke output binding

Step 6 - Cleanup

Troubleshooting guide

Deploy Dapr Function App into Kubernetes

Prerequisites

Setup Dapr on your Kubernetes Cluster

Deploy Dapr components

[Optional] Configure the State Store

[Optional] Setting up a Kafka in Kubernetes

[Optional] Setting up the Pub/Sub in Kubernetes

[Optional] Setting up Secrets in Kubernetes

Deploy your Dapr Function App

Test your Dapr Function App

Cleanup