Tag Archives: Microsoft Graph

Protect Logic Apps with Azure AD OAuth – Part 2 Expose Logic App as API

This blog article will build on the previous blog post published, Protect Logic Apps with Azure AD OAuth – Part 1 Management Access | GoToGuy Blog, which provided some basic understanding around authorizing to Logic Apps request triggers using OAuth and Access Tokens.

In this blog I will build on that, creating a scenario where a Logic App will be exposed as an API to end users. In this API, I will call another popular API: Microsoft Graph.

My scenario will use a case where end users does not have access themselves to certain Microsoft Graph requests, but where the Logic App does. Exposing the Logic App as an API will let users be able to authenticate and authorize, requesting and consenting to the custom Logic App API permissions I choose. Some of these permissions can users consent to themselves, while other must be admin consented. This way I can use some authorizing inside the Logic App, and only let the end users be able to request what they are permitted to.

I will also look into assigning users and groups, and using scopes and roles for additional fine graining end user and principal access to the Logic App.

A lot of topics to cover, so let’s get started by first creating the scenario for the Logic App.

Logic App calling Microsoft Graph API

A Logic App can run requests against the Microsoft Graph API using the HTTP action and specifying the method (GET, POST, etc) and resource URI. For authentication against Graph from the Logic App you can use either:

  • Using Azure Active Directory OAuth and Client Credentials Flow with Client Id and Secret.
  • Using System or User Assigned Managed Identity.

Permissions for Microsoft Graph API are either using “delegated” (in context of logged in user) or “application” (in context of application/deamon service). These scenarios using Logic App will use application permissions for Microsoft Graph.

PS! Using Logic Apps Custom Connectors (Custom connectors overview | Microsoft Docs) you can also use delegated permissions by creating a connection with a logged in user, but this outside of the scope of this article.

Scenario for using Microsoft Graph in Logic App

There are a variety of usage scenarios for Microsoft Graph, so for the purpose of this Logic App I will focus on one of the most popular: Device Management (Intune API) resources. This is what I want the Logic App to do in this first phase:

  • Listing a particular user’s managed devices.
  • Listing all of the organization’s managed devices.
  • Filtering managed devices based on operating system and version.

In addition to the above I want to implement the custom API such that any assigned user can list their own devices through end-user consent, but to be able to list all devices or any other user than your self you will need an admin consented permission for the custom API.

Creating the Logic App

In your Azure subscription, add a new Logic App to your chosen resource group and name it according to your naming standard. After the Logic App is created, you will need add the trigger. As this will be a custom API, you will need it to use HTTP as trigger, and you will also need a response back to the caller, so the easiest way is to use the template for HTTP Request-Response as shown below:

Your Logic App will now look like this:

Save the Logic App before proceeding.

Create a Managed Identity for the Logic App

Exit the designer and go to the Identity section of the Logic App. We need a managed identity, either system assigned or user assigned, to let the Logic App authenticate against Microsoft Graph.

A system assigned managed identity will follow the lifecycle of this Logic App, while a user assigned managed identity will have it’s own lifecycle, and can be used by other resources also. I want that flexibility, so I will create a user assigned managed identity for this scenario. In the Azure Portal, select to create a new resource and find User Assigned Managed Identity:

Create a new User Assigned Managed Identity in your selected resource group and give it a name based on your naming convention:

After creating the managed identity, go back to your Logic App, and then under Identity section, add the newly created managed identity under User Assigned Managed Identity:

Before we proceed with the Logic App, we need to give the Managed Identity the appropriate Microsoft Graph permissions.

Adding Microsoft Graph Permissions to the Managed Identity

Now, if we wanted the Logic App to have permissions to the Azure Rest API, we could have easily added Azure role assignments to the managed identity directly:

But, as we need permissions to Microsoft Graph, there are no GUI to do this for now. The permissions needed for listing managed devices are documented here: List managedDevices – Microsoft Graph v1.0 | Microsoft Docs.

So we need a minimum of: DeviceManagementManagedDevices.Read.All.

To add these permissions we need to run some PowerShell commands using the AzureAD module. If you have that installed locally, you can connect and proceed with the following commands, for easy of access you can also use the Cloud Shell in the Azure Portal, just run Connect-AzureAD first:

PS! You need to be a Global Admin to add Graph Permissions.

You can run each of these lines separately, or run it as a script:

# Microsoft Graph App Well Known App Id
$msGraphAppId = "00000003-0000-0000-c000-000000000000"

# Display Name if Managed Identity

# Microsoft Graph Permission required
$msGraphPermission = "DeviceManagementManagedDevices.Read.All" 

# Get Managed Identity Service Principal Name
$msiSpn = (Get-AzureADServicePrincipal -Filter "displayName eq '$msiDisplayName'")

# Get Microsoft Graph Service Principal
$msGraphSpn = Get-AzureADServicePrincipal -Filter "appId eq '$msGraphAppId'"

# Get the Application Role for the Graph Permission
$appRole = $msGraphSpn.AppRoles | Where-Object {$_.Value -eq $msGraphPermission -and $_.AllowedMemberTypes -contains "Application"}

# Assign the Application Role to the Managed Identity
New-AzureAdServiceAppRoleAssignment -ObjectId $msiSpn.ObjectId -PrincipalId $msiSpn.ObjectId -ResourceId $msGraphSpn.ObjectId -Id $appRole.Id

Verify that it runs as expected:

As mentioned earlier, adding these permissions has to be done using script commands, but there is a way to verify the permissions by doing the following:

  1. Find the Managed Identity, and copy the Client ID:
  1. Under Azure Active Directory and Enterprise Applications, make sure you are in the Legacy Search Experience and paste in the Client ID:
  1. Which you then can click into, and under permissions you will see the admin has consented to Graph permissions:

The Logic App can now get Intune Managed Devices from Microsoft Graph API using the Managed Identity.

Calling Microsoft Graph from the Logic App

Let’s start by adding some inputs to the Logic App. I’m planning to trigger the Logic App using an http request body like the following:

 "userUpn": "someuser@elven.no",
 "operatingSystem": "Windows",
 "osVersion": "10"

In the Logic App request trigger, paste as a sample JSON payload:

The request body schema will be updated accordingly, and the Logic App is prepared to receive inputs:

Next, add a Condition action, where we will check if we should get a users’ managed devices, or all. Use an expression with the empty function to check for userUpn, and another expression for the true value, like below:

We will add more logic and conditions later for the filtering of the operating system and version, but for now add an HTTP action under True like the following:

Note the use of the Managed Identity and Audience, which will have permission for querying for managed devices.

Under False, we will get the managed devices for a specific user. So add the following, using the userUpn input in the URI:

Both these actions should be able to run successfully now, but we will leave the testing for a bit later. First I want to return the managed devices found via the Response action.

Add an Initialize Variable action before the Condition action. Set the Name and Type to Array as shown below, but the value can be empty for now:

Next, under True and Get All Managed Devices, add a Parse JSON action, adding the output body from the http action and using either the sample response from the Microsoft Graph documentation, or your own to create the schema.

PS! Note that if you have over 1000 managed devices, Graph will page the output, so you should test for odata.nextLink to be present as well. You can use the following anonymized sample response for schema which should work in most cases:

     "@odata.context": "https://graph.microsoft.com/v1.0/$metadata#deviceManagement/managedDevices",
     "@odata.count": 1000,
     "@odata.nextLink": "https://graph.microsoft.com/v1.0/deviceManagement/managedDevices?$skiptoken=",
     "value": [
             "id": "id Value",
             "userId": "User Id value",
             "deviceName": "Device Name value",
             "managedDeviceOwnerType": "company",
             "operatingSystem": "Operating System value",
             "complianceState": "compliant",
             "managementAgent": "mdm",
             "osVersion": "Os Version value",
             "azureADRegistered": true,
             "deviceEnrollmentType": "userEnrollment",
             "azureADDeviceId": "Azure ADDevice Id value",
             "deviceRegistrationState": "registered",
             "isEncrypted": true,
             "userPrincipalName": "User Principal Name Value ",
             "model": "Model Value",
             "manufacturer": "Manufacturer Value",
             "userDisplayName": "User Display Name Value",
             "managedDeviceName": "Managed Device Name Value"

PS! Remove any sample response output from schema if values will be null or missing from your output. For example I needed to remove the configurationManagerClientEnabledFeatures from my schema, as this is null in many cases.

Add another Parse JSON action under the get user managed devices action as well:

Now we will take that output and do a For Each loop for each value. On both sides of the conditon, add a For Each action, using the value from the previous HTTP action:

Inside that For Each loop, add an Append to Array variable action. In this action we will build a JSON object, returning our chosen attributes (you can change to whatever you want), and selecting the properties from the value that was parsed:

Do the exact same thing for the user devices:

Now, on each side of the condition, add a response action, that will return the ManagedDevices array variable, this will be returned as a JSON som set the Content-Type to application/json:

Finally, remove the default response action that is no longer needed:

The complete Logic App should look like the following now:

As I mentioned earlier, we’ll get to the filtering parts later, but now it’s time for some testing.

Testing the Logic App from Postman

In the first part of this blog post article series, Protect Logic Apps with Azure AD OAuth – Part 1 Management Access | GoToGuy Blog, I described how you could use Postman, PowerShell or Azure CLI to test against REST API’s.

Let’s test this Logic App now with Postman. Copy the HTTP POST URL:

And paste it to Postman, remember to change method to POST:

You can now click Send, and the Logic App will trigger, and should return all your managed devices.

If you want a specific users’ managed devices, then you need to go to the Body parameter, and add like the following with an existing user principal name in your organization:

You should then be able to get this users’ managed devices, for example for my test user this was just a virtual machine with Window 10:

And I can verify a successful run from the Logic App history:

Summary so far

We’ve built a Logic App that uses it’s own identity (User Assigned Managed Identity) to access the Microsoft Graph API using Application Permissions to get managed devices for all users or a selected user by UPN. Now it’s time to exposing this Logic App as an API son end users can call this securely using Azure AD OAuth.

Building the Logic App API

When exposing the Logic App as an API, this will be the resource that end users will access and call as a REST API. Consider the following diagram showing the flow for OpenID Connect and OAuth, where Azure AD will be the Authorization Server from where end users can request access tokens where the audience will be the Logic App resource:

Our next step will be to create Azure AD App Registrations, and we will start with the App Registration for the resource API.

Creating App Registration for Logic App API

In your Azure AD tenant, create a new App Registration, and call it something like (YourName) LogicApp API:

I will use single tenant for this scenario, leave the other settings as it is and create.

Next, go to Expose an API:

Click on Set right next to Application ID URI, and save the App ID URI to your choice. You can keep the GUID if you want, but you can also type any URI value you like here (using api:// or https://). I chose to set the api URI to this:

Next we need to add scopes that will be the permissions that delegated end users can consent to. This will be the basis of the authorization checks we can do in the Logic App later.

Add a scope with the details shown below. This will be a scope end users can consent to themselves, but it will only allow them to read their own managed devices:

Next, add another Scope, with the following details. This will be a scope that only Admins can consent to, and will be authorized to read all devices:

You should now have the following scopes defined:

Next, go to the Manifest and change the accessTokenAcceptedVersion from null to 2, this will configure so that Tokens will use the OAuth2 endpoints:

That should be sufficient for now. In the next section we will prepare for the OAuth client.

Create App Registration for the Logic App Client

I choose to create a separate App Registration in Azure AD for the Logic App Client. This will represent the OAuth client that end users will use for OAuth authentication flows and requesting permissions for the Logic App API. I could have configured this in the same App Registration as the API created in the previous section, but this will provide better flexibility and security if I want to share the API with other clients also later, or if I want to separate the permission grants between clients.

Go to App Registrations in Azure AD, and create a new registration calling it something like (yourname) LogicApp Client:

Choose single tenant and leave the other settings for now.

After registering, go to API permissions, and click on Add a permission. From there you can browse to “My APIs” and you should be able to locate the (yourname) Logic API. Select to add the delegated permissions as shown below:

These delegated permissions reflect the scopes we defined in the API earlier. Your App registration and API permission should now look like below. NB! Do NOT click to Grant admin consent for your Azure AD! This will grant consent on behalf of all your users, which will work against our intended scenario later.

Next, we need to provide a way for clients to authenticate using Oauth flows, so go to the Certificates & secrets section. Click to create a Client secret, I will name my secret after where I want to use it for testing later (Postman):

Make sure you copy the secret value for later:

(Don’t worry, I’ve already invalidated the secret above and created a new one).

Next, go to Authentication. We need to add a platform for authentication flows, so click Add a platform and choose Web. For using Postman later for testing, add the following as Redirect URI: https://oauth.pstmn.io/v1/callback

Next, we will also provide another test scenario using PowerShell or Azure CLI client, so click on Add a platform one more time, this time adding Mobile desktop and apps as platform and use the following redirect URI: urn:ietf:wg:oauth:2.0:oob

Your platform configuration should now look like this:

Finally, go to advanced and set yes to allow public client flows, as this will aid in testing from PowerShell or Azure CLI clients later:

Now that we have configured the necessary App registrations, we can set up the Azure AD OAuth Authorization Policy for the Logic App.

Configuring Azure AD OAuth Authorization Policy for Logic App

Back in the Logic App, create an Azure AD Authorization Policy with issuer and audience as shown below:

Note the Claims values:

We are using the v2.0 endpoint as we configured in the manifest of the App Registration that accessTokenAcceptedVersion should be 2. (as opposed to v1.0 issuer that would be in the format https://sts.windows.net/{tenantId}/). And the Audience claim would be our configured API App ID. (for v1.0 the audience would be the App ID URI, like api://elven-logicapp-api).

Save the Logic App, and we can now start to do some testing where we will use the client app registration to get an access token for the Logic App API resource.

Testing with Postman Client

The first test scenario we will explore is using Postman Client and the Authorization Code flow for getting the correct v2.0 Token.

A recommended practice when using Postman and reusing variable values is to create an Environment. I’ve created this Environment for storing my Tenant ID, Client ID (App ID for the Client App Registration) and Client Secret (the secret I created for using Postman):

Previously in this blog article, we tested the Logic App using Postman. On that request, select the Authorization tab, and set type to OAuth 2.0:

Next, under Token configuration add the values like the following. Give the Token a recognizable name, this is just for Postman internal refererence. Make sure that the Grant Type is Authorization Code. Note the Callback URL, this is the URL we configured for the App registration and Callback Url. In the Auth and Access Token URL, configure the use of the v2.0 endpoints, using TenantID from the environment variables. (Make sure to set the current environment top right). And for Client ID and Client Secret these will also refer to the environment variables:

One important step remains, and that is to correctly set the scope for the access token. Using something like user.read here will only produce an Access Token for Microsoft Graph as audience. So we need to change to the Logic App API, and the scope for ManagedDevices.Read in this case:

Let’s get the Access Token, click on the Get New Access Token button:

A browser window launches, and if you are not already logged in, you must log in first. Then you will be prompted to consent to the permission as shown below. The end user is prompted to consent for the LogicApp API, as well as basic OpenID Connect consents:

After accepting, a popup will try to redirect you to Postman, so make sure you don’t block that:

Back in Postman, you will see that we have got a new Access Token:

Copy that Access Token, and paste it into a JWT debugger like jwt.ms or jwt.io. You should see in the data payload that the claims for audience and issuer is the same values we configured in the Logic App Azure AD OAuth policy:

Note also the token version is 2.0.

Click to use the Token in the Postman request, it should populate this field:

Before testing the request, remember to remove the SAS query parameters from the request, so that sv, sp and sig are not used with the query for the Logic App:

Now, we can test. Click Send on the Request. It should complete successfully with at status of 200 OK, and return the managed device details:

Let’s add to the permission scopes, by adding the ManagedDevices.Read.All:

Remember just to have a blank space between the scopes, and then click Get New Access Token:

If I’m logged on with a normal end user, I will get the prompt above that I need admin privileges. If I log in with an admin account, this will be shown:

Note that I can now do one of two actions:

  1. I can consent only on behalf of myself (the logged in admin user), OR..
  2. I can consent on behalf of the organization, by selecting the check box. This way all users will get that permission as well.

Be very conscious when granting consents on behalf of your organization.

At this point the Logic App will authorize if the Token is from the correct issuer and for the correct audience, but the calling user can still request any managed device or all devices. Before we get to that, I will show another test scenario using a public client like PowerShell.

Testing with PowerShell and MSAL.PS

MSAL.PS is a perfect companion for using MSAL (Microsoft Authentication Library) to get Access Tokens in PowerShell. You can install MSAL.PS from PowerShellGallery using Install-Module MSAL.PS.

The following commands show how you can get an Access Token using MSAL.PS:

# Set Client and Tenant ID
$clientID = "cd5283d0-8613-446f-bfd7-8eb1c6c9ac19"
$tenantID = "104742fb-6225-439f-9540-60da5f0317dc"

# Get Access Token using Interactive Authentication for Specified Scope and Redirect URI (Windows PowerShell)
$tokenResponse = Get-MsalToken -ClientId $clientID -TenantId $tenantID -Interactive -Scope 'api://elven-logicapp-api/ManagedDevices.Read' -RedirectUri 'urn:ietf:wg:oauth:2.0:oob'

# Get Access Token using Interactive Authentication for Specified Scope and Redirect URI (PowerShell Core)
$tokenResponse = Get-MsalToken -ClientId $clientID -TenantId $tenantID -Interactive -Scope 'api://elven-logicapp-api/ManagedDevices.Read' -RedirectUri 'http://localhost'

MSAL.PS can be used both for Windows PowerShell, and for PowerShell Core, so in the above commands, I show both. Note that the redirect URI for MSAL.PS on PowerShell Core need to be http://localhost. You also need to add that redirect URI to the App Registration:

Running the above command will prompt an interactive logon, and should return a successful response saved in the $tokenResponse variable.

We can verify the response, for example checking scopes or copying the Access Token to the clipboard so that we can check the token in a JWT debugger:

# Check Token Scopes

# Copy Access Token to Clipboard
$tokenResponse.AccessToken | Clip

In the first blog post of this article series I covered how you can use Windows PowerShell and Core to use Invoke-RestMethod for calling the Logic App, here is an example where I call my Logic App using the Access Token (in PowerShell Core):

# Set variable for Logic App URL
$logicAppUrl = "https://prod-05.westeurope.logic.azure.com:443/workflows/d429c07002b44d63a388a698c2cee4ec/triggers/request/paths/invoke?api-version=2016-10-01"

# Convert Access Token to a Secure String for Bearer Token
$bearerToken = ConvertTo-SecureString ($tokenResponse.AccessToken) -AsPlainText -Force

# Invoke Logic App using Bearer Token
Invoke-RestMethod -Method Post -Uri $logicAppUrl -Authentication OAuth -Token $bearerToken

And I can verify that it works:

Great. I now have a couple of alternatives for calling my Logic App securely using Azure AD OAuth. In the next section we will get into how we can do authorization checks inside the Logic App.

Authorization inside Logic App

While the Logic App can have an authorization policy that verifies any claims like issuer and audience, or other custom claims, we cannot use that if we want to authorize inside the logic app based on scopes, roles etc.

In this section we will look into how we can do that.

Include Authorization Header in Logic Apps

First we need to include the Authorization header from the OAuth access token in the Logic App. To do this, open the Logic App in code view, and add the operationOptions to IncludeAuthorizationHeadersInOutputs for the trigger like this:

        "triggers": {
            "manual": {
                "inputs": {
                    "schema": {}
                "kind": "Http",
                "type": "Request",
                "operationOptions": "IncludeAuthorizationHeadersInOutputs"

This will make the Bearer Token accessible inside the Logic App, as explained in detail in my previous post: Protect Logic Apps with Azure AD OAuth – Part 1 Management Access | GoToGuy Blog. There I also showed how to decode the token to get the readable JSON payload, so I need to apply the same steps here:

After applying the above steps, I can test the Logic App again, and get the details of the decoded JWT token, for example of interest will be to check the scopes:

Implement Logic to check the Scopes

When I created the LogicApp API app registration, I added two scopes: ManagedDevices.Read and ManagedDevices.Read.All. The authorization logic I want to implement now is to only let users calling the Logic App and that has the scope ManagedDevices.Read.All to be able to get ALL managed devices, or to get managed devices other than their own devices.

The first step will be to check if the JWT payload for scope “scp” contains the ManagedDevices.Read.All. Add a Compose action with the following expression:


This expression will return either true or false depending on the scp value.

Next after this action, add a Condition action, where we will do some authorization checks. I have created two groups of checks, where one OR the other needs to be true.

Here are the details for these two groups:

  • Group 1 (checks if scp does not contain ManagedDevices.Read.All and calling user tries to get All managed devices):
    • Outputs('Check_Scopes') = false
    • empty(triggerBody()?['userUpn']) = true
  • Group 2 (checks if scp does not contain ManagedDevices.Read.All, and tries to get managed devices for another user than users’ own upn):
    • Outputs('Check_Scopes') = false
    • triggerBody()?['userUpn'] != Outputs('Base64_to_String_Json')['preferred_username']

If either of those two groups is True, then we know that the calling user tries to do something the user is not authorized to do. This is something we need to give a customized response for. So inside the True condition, add a new Response action with something like the following:

I’m using a status code of 403, meaning that the request was successfully authenticated but was missing the required authorization for the resource.

Next, add a Terminate action, so that the Logic App stops with a successful status. Note also that on the False side of the condition, I leave it blank because I want it to proceed with the next steps in the Logic Apps.

Test the Authorization Scope Logic

We can now test the authorization scopes logic implemented above. In Postman, either use an existing Access Token or get a new Token that only include the ManagedDevices.Read scope.

Then, send a request with an empty request body. You should get the following response:

Then, try another test, this time specifying another user principal name than your own, which also should fail:

And then test with your own user principal name, which will match the ‘preferred_username’ claim in the Access Token, this should be successful and return your devices:

Perfect! It works as intended, normal end users can now only request their own managed devices.

Let’s test with an admin account and the ManagedDevices.Read.All scope. In Postman, add that scope, and get a new Access Token:

When logging in with a user that has admin privileges you will now get a Token that has the scope for getting all devices, for which your testing should return 200 OK for all or any users devices:

Adding Custom Claims to Access Token

In addition to the default claims and scopes in the Access Token, you can customize a select set of additional claims to be included in the JWT data payload. Since the Access Token is for the resource, you will need to customize this on the App Registration for the LogicApp API.

In Azure AD, select the App Registration for the API, and go to API permissions first. You need to add the OpenID scopes first. Add the following OpenID permissions:

Your API App Registration should look like this:

Next, go to Token configuration. Click Add optional claim, and select Access Token. For example you can add the ipaddr and upn claims as I have done below:

Note the optional claims listed for the resource API registration:

Next time I get a new access token, I can see that the claims are there:

Summary of User Authorization so far

What we have accomplished now is that users can get an Access Token for the Logic App API resource. This is the first requirement for users to be able to call the Logic App, that they indeed have a Bearer Token in the Authorization Header that includes the configured issuer and audience.

In my demos I have shown how to get an access token using Postman (Authorization Code Flow) and a Public Client using MSAL.PS. But you can use any kind of Web application, browser/SPA or, Client App, using any programming libraries that either support MSAL or OpenID Connect and OAuth2. Your solution, your choice 😉

After that I showed how you can use scopes for delegated permissions, and how you can do internal authorization logic in the Logic App depending on what scope the user has consented to/allowed to.

We will now build on this, by looking into controlling access and using application roles for principals.

Assigning Users and Restricting Access

One of the most powerful aspects of exposing your API using Microsoft Identity Platform and Azure AD is that you now can control who can access your solution, in this case call the Logic App.

Better yet, you can use Azure AD Conditional Access to apply policies for requiring MFA, devices to be compliant, require locations or that sign-ins are under a certain risk level, to name a few.

Let’s see a couple of examples of that.

Require User Assignment

The first thing we need to do is to change the settings for the Enterprise Application. We created an App registration for the LogicApp Client, for users to able to authenticate and access the API. From that LogicApp Client, you can get to the Enterprise Application by clicking on the link for Managed application:

In the Enterprise App, go to Properties, and select User assignment required:

We can now control which users, or groups, that can authenticate to and get access to the Logic App API via the Client:

If I try to log in with a user that is not listed under Users and groups, I will get an error message that the “signed in user is not assigned to a role for the application”:

PS! The above error will show itself a little different based on how you authenticate, the above image is using a public client, if you use Postman, the error will be in the postman console log, if you use a web application you will get the error in the browser etc.

Configuring Conditional Access for the Logic App

In addition to controlling which users and groups that can access the Logic App, I can configure a Conditional Access policy in Azure AD for more fine grained access and security controls.

In your Azure AD blade, go to Security and Conditional Access. If you already have a CA policy that affects all Applications and Users, for example requiring MFA, your LogicApp API would already be affected by that.

Note that as we are protecting the resource here, your Conditional Access policy must be targeted to the LogicApp API Enterprise App.

Click to create a new policy specific for the Logic App API, as shown below:

For example I can require that my Logic App API only can be called from a managed and compliant device, or a Hybrid Azure AD Joined device as shown below:

If I create that policy, and then tries to get an access token using a device that are not registered or compliant with my organization, I will get this error:

Summary of Restricting Access for Users and Groups

With the above steps we can see that by adding an Azure AD OAuth authorization policy to the Logic App, we can control which users and groups that can authenticate to and get an Access Token required for calling the Logic App, and we can use Conditional Access for applying additional fine grained access control and security policies.

So far we have tested with interactive users and delegated permission acccess scenarios, in the next section we will dive into using application access and roles for authorization scenarios.

Adding Application Access and Roles

Sometimes you will have scenarios that will let application run as itself, like a deamon or service, without requiring an interactive user present.

Comparing that to the OIDC and OAuth flow from earlier the Client will access the Resource directly, by using an Access Token aquired from Azure AD using the Client Credentials Flow:

Using the Client Credentials Flow from Postman

Back in the Postman client, under the Authorization tab, just change the Grant Type to Client Credentials like the following. NB! When using application access, there are no spesific delegated scopes, so you need to change the scope so that it refers to .default after the scope URI:

Click Get New Access Token, and after successfully authenticating click to Use Token. Copy the Token to the Clipboard, and paste to a JWT debugger. Let’s examine the JWT payload:

Note that the audience and issuer is the same as when we got an access token for an end user, but also that the JWT payload does not contain any scopes (scp) or any other user identifiable claims.

Using the Client Credentials Flow from MSAL.PS

To get an Access Token for an application client in MSAL.PS, run the following commands:

# Set Client and Tenant ID
$clientID = "cd5283d0-8613-446f-bfd7-8eb1c6c9ac19"
$tenantID = "104742fb-6225-439f-9540-60da5f0317dc"
# Set Client Secret as Secure String (keep private)
$clientSecret = ConvertTo-SecureString ("<your secret in plain text") -AsPlainText -Force

# Get Access Token using Client Credentials Flow and Default Scope
$tokenResponse = Get-MsalToken -ClientId $clientID -ClientSecret $clientSecret -TenantId $tenantID -Scopes 'api://elven-logicapp-api/.default'

You can then validate this Token and copy it to a JWT debugger:

# Copy Access Token to Clipboard
$tokenResponse.AccessToken | Clip

Calling the Logic App using Client Application

We can send requests to the Logic App using an Access Token in an application by including it as a Bearer Token in the Authorization Header exactly the same way we did previously, however it might fail internally if the Logic App processing of the access token fails because it now contains a different payload with claims:

Looking into the run history of the Logic App I can see that the reason it fails is that it is missing scp (scopes) in the token.

This is expected when authenticating as an application, so we will fix that a little later.

A few words on Scopes vs. Roles

In delegated users scenarios, permissions are defined as Scopes. When using application permissions, we will be using Roles. Role permissions will always be granted by an admin, and every role permission granted for the application will be included in the token, and they will be provided by the .default scope for the API.

Adding Application Roles for Applications

Now, let’s look into adding Roles to our LogicApp API. Locate the App registration for the API, and go to the App roles | Preview blade. (this new preview let us define roles in the GUI, where until recently you had to go to the manifest to edit).

Next, click on Create app role. Give the app role a display name and value. PS! The value must be unique, so if you already have that value as a scope name, then you need to distinguish it eg. by using Role in the value as I have here:

The allowed member types give you a choice over who/what can be assigned the role. You can select either application or user/groups, or both.

Add another App Role as shown below:

You should now have the following two roles:

Assigning Roles to Application

I recommend that you create a new App Registration for application access scenarios. This way you can avoid mixing delegated and application permissions in the same app registration, it will make it easier to differentiate user and admins consents, and secret credentials will be easier to separate, and you can use different settings for restricting access using Azure AD Users/Groups and Conditional Access.

So create a new App registration, call it something like (Yourname) LogicApp Application Client:

Choose single tenant and leave the other settings as default. Click Register and copy the Application (Client ID) and store it for later:

Next, go to Certificates & secrets, and create a new Client secret:

Copy the secret and store it for later.

Go to API permissions, click Add a permission, and from My APIs, find the LogicApp API. Add the Application permissions as shown below, these are the App Roles we added to the API earlier:

Under API permissions you can remove the Microsoft Graph user.read permission, it won’t be needed here, the two remaining permissions should be:

These you NEED to grant admin consent for, as no interactive user will be involved in consent prompt:

The admin consent are granted as shown below:

Now we can test getting access token via this new app registration, either use Postman or MSAL.PS , remember to use the new app (client) id and app (client) secret. I chose to add the two values to my Postman environment like this:

Next, change the token settings for Client Credentials flow so that the Client ID and Secret use the new variable names. Click to Get New Access Token:

After successfully getting the access token, click Use Token and copy it to clipboard so we can analyze it in the JWT debugger. From there we can indeed see that the roles claims has been added:

We will look for these roles claims in the Logic App later. But first we will take a look at how we can add these roles to users as well.

Assigning Roles to Users/Groups

Adding roles to users or groups can be used for authorizing access based on the roles claim. Go to the Enterprise App for the Logic App API registration, you can get to the Enterprise App by clicking on the Managed application link:

In the Enterprise App, under Users and Groups, you will already see the ServicePrincipal’s for the LogicApp Application Client with the Roles assigned. This is because these role permissions were granted by admin consent:

Click on Add user/group, add for a user in your organization the selected role:

You can add more users or groups to assigned roles:

Lets do a test for this user scenario. We need to do an interactive user login again, so change to using Authorization Code Flow in Postman, and change to the originial ClientID and ClientSecret:

Click to Get New Access Token, authenticate with your user in the browser (the user you assigned a role to), and then use the token and copy it to clipboard. If we now examine that token and look at the JWT data payload, we can see that the user has now a role claim, as well as the scope claim:

We can now proceed to adjust the authorization checks in the Logic App.

Customizing Logic App to handle Roles Claims

Previously in the Logic App we did checks against the scopes (scp claim). We need to do some adjustment to this steps, as it will fail if there are no scp claim in the Token:

Change to the following expression, with a if test that returns false if no scp claim, in addition to the original check for scope to be ManagedDevices.Read.All:

This is the expression used above:


Similary, add a new Compose action, where we will check for any Roles claim.

This expression will also return false if either the roles claim is empty, or does not contain the ManagedDevices.Role.Read.All:


Next we need to add more checks to the authorization logic. Add a new line to the first group, where we also check the output of the Check Roles action to be false:

In the above image I’ve also updated the action name and comment to reflect new checks.

To the second group, add two more lines, where line number 3 is checking outputs from Check Roles to be false (same as above), and line 4 do a check if the roles claim contains the role ManagedDevices.Role.Read:

The complete authorization checks logic should now be:

And this is the summary of conditions:

  • Group 1 (checks if scp does not contain ManagedDevices.Read.All and roles does not contain ManagedDevices.Role.Read.All and calling user tries to get All managed devices):
    • Outputs('Check_Scopes') = false
    • empty(triggerBody()?['userUpn']) = true
    • Outputs('Check_Roles') = false
  • Group 2 (checks if scp does not contain ManagedDevices.Read.All and roles does not contain ManagedDevices.Role.Read.All, and tries to get managed devices for another user than users’ own upn, and roles does not contain ManagedDevices.Role.Read):
    • Outputs('Check_Scopes') = false
    • triggerBody()?['userUpn'] != Outputs('Base64_to_String_Json')['preferred_username']
    • Outputs('Check_Roles') = false
    • contains(outputs('Base64_to_String_Json')?['roles'],'ManagedDevices.Role.Read') = false

If any of the two groups of checks above returns true, then it means that the request was not authorized. To give a more customized response, change the response action like the following:

In the above action I have changed that response is returned as a JSON object, and then changed the body so that it returns JSON data. I have also listed the values from the token that the user/application use when calling the Logic App. The dynamic expression for getting roles claim (for which will be in an array if there are any roles claim) is:
if(empty(outputs('Base64_to_String_Json')?['roles']),'',join(outputs('Base64_to_String_Json')?['roles'],' '))
And for getting any scopes claim, which will be a text string or null:

Test Scenario Summary

I’ll leave the testing over to you, but if you have followed along and customized the Logic App as I described above, you should now be able to verify the following test scenarios:

UserManagedDevices.ReadCan get own managed devices.
Not authorized to get all devices or other users’ managed devices.
User (Admin)ManagedDevices.Read.AllCan get any or all devices.
UserManagedDevices,ReadManagedDevices.Role.ReadCan get own managed devices.
Can get other users’ managed devices by userUpn.
Not authorized to get all devices.
UserManagedDevices.ReadManagedDevices.Role.Read.AllCan get any or all devices.
ApplicationManagedDevices.Role.ReadCan any users’ managed devices by userUpn.
Not authorized to get all devices.
ApplicationManagedDevices.Role.Read.AllCan get any or all devices.

When testing the above scenarios, you need a new access token using either authorization code flow (user) or client credentials (application). For testing with roles and user scenarios, you can change the role assignments for the user at the Enterprise Application for the LogicAPI API. For testing with roles with application scenarios, make sure that you only grant admin consent for the applicable roles you want to test.

Final Steps and Summary

This has been quite the long read. The goal of this blog post was to show how your Logic App workflows can be exposed as an API, and how Azure AD OAuth Authorization Policies can control who can send requests to the Logic App as well as how you can use scopes and roles in the Access Token to make authorization decisions inside the Logic App. And even of more importance, integrating with Azure AD let’s you control user/group access, as well as adding additional security layer with Conditional Access policies!

My demo scenario was to let the Logic App call Microsoft Graph and return managed devices, which require privileged access to Graph API, and by exposing the Logic App as an API I can now let end users/principals call that Logic App as long as they are authorized to do so using my defined scopes and/or roles. I can easily see several other Microsoft Graph API (or Azure Management APIs, etc) scenarios using Logic App where I can control user access similarly.

Note also that any callers of the Logic App that now will try to call the Logic App using SAS access scheme will fail, as a Bearer Token is expected in the Authorization Header and the custom authorization actions that has been implemented. You might want to implement some better error handling if you like.

There’s an added bonus at the end of this article, where I add the filters for getting managed devices. But for now I want to thank you for reading and more article in this series will come later, including:

  • Calling Logic Apps protected by Azure AD from Power Platform
  • Protecting Logic App APIs using Azure API Management (APIM)

Bonus read

To complete the filtering of Managed Devices from Microsoft Graph, the Logic App prepared inputs of operatingSystem and osVersion in addition to userUpn. Let’s how we can implement that support as well.

After the initialize variable ManagedDevices action, add a Compose action. In this action, which I rename to operatingSystemFilter, I add a long dynamic expression:

This expression will check if the request trigger has an operatingSystem value, it not this value will be a empty string, but if not empty the I start building a text string using concat function where I build the filter string. There are some complexities here, amongs others using escaping of single apostroph, by adding another single apostroph etc. But this expression works:

if(empty(triggerBody()?['operatingSystem']),'',concat('/?$filter=operatingSystem eq ''',triggerBody()?['operatingSystem'],''''))

Next, add another Compose action and name it operatingSystemVersionFilter. This expression is even longer, checking the request trigger for osVersion, and if empty, it just returns the operatingSystemFilter from the previos action, but if present another string concat where I ‘and’ with the previous filter:

The expression from above image:

if(empty(triggerBody()?['osVersion']),outputs('operatingSystemFilter'),concat(outputs('operatingSystemFilter'),' and startswith(osVersion,''',triggerBody()?['osVersion'],''')'))

We can now add that output to the Graph queries, both when getting all or a specific user’s devices:

I can now add operatingSystem and osVersion to the request body when calling the Logic App:

And if I check the run history when testing the Logic App, I can see that the filter has been appended to the Graph query:

You can if you want also build more error handling logic for when if users specify the wrong user principalname, or any other filtering errors that may occur because of syntax etc.

That concludes the bonus tip, thanks again for reading 🙂

Blog Series – Power’ing up your Home Office Lights: Part 10 – Subscribe to Graph and Teams Presence to automatically set Hue Lights based on my Teams Presence!

This blog post is part of the Blog Series: Power’ing up your Home Office Lights with Power Platform. See introduction post for links to the other articles in the series:

In this last part of the blog series, we will build on the previous blog post where we could get the presence status from Teams to the Hue Power App. Now we will use Microsoft Graph and subscribe to change notifications for presence, so that both the Power App and my Hue Lights will automatically change status based on the presence.

In this blog post I will reuse the Custom Connector I created for managing Microsoft Graph Subscriptions in this previous blog post: Managing Microsoft Graph Change Notifications Subscriptions with Power Platform | GoToGuy Blog

To follow along, you will need at least to create the App Registration and the Custom Connector referred to in that blog post. You can also import the Custom Connector OpenAPI Swagger from this link: <MY GITHUB URL TO HERE>

Adding the Custom Connector to the PowerApp

In the Hue Power App, go to the View menu, and under Data click to “+ Add data source”. Add the MSGraph Subscription Connector as shown below. This way we can refer to this in the Hue Power App.

We are going to add the logic to creating the subscription based on this toggle button and the selected light source:

But before that we have somethings to prepare first. When creating a Graph Subscription, we will need to prepare a Webhook Url for where Graph will send its notifcations when the Teams presence changes. This will be handled in a Power Automate Flow, so lets create that first.

Creating the Flow for Graph Notifications and Hue Lights changes

Since I have built this all before, ref. https://gotoguy.blog/2020/10/24/managing-microsoft-graph-change-notifications-subscriptions-with-power-platform/, I will make a copy of the “Graph Notification – Presence Change” flow for this use case.

If you want to follow along, you will need to follow the instructions in that blog post first. After saving a copy, or if you created a new flow from blank using HTTP request webhook, you will need to copy the HTTP POST URL shown below, as that will be the “notification url” we will refer to later:

Next set some value that only you know for the secret client state:

The next part of the Flow are used to do a first-time validation of adding the change subscription, with Content-Type text/plain and request query containing a validation token. Microsoft Graph expects a response of status code 200 with the validation token back. If that is returned, Microsoft Graph will successfully create the subscription.

For subsequent requests, we must return a 202 Accepted response, and in the next step I parse the notification request body, so that we can look into what change we have been notified for:

Following the change notification, we can start looking into the change value. Firstly, I have added a verification of the secret client state I specified earlier, this is prevent misuse of the notification Url if that become known by others or used in the wrong context. After doing a simple test of the client state, where I do nothing if the client state don’t match, I can start building the logic behind the changes in presence status:

Inside the Switch Presence Status action, I will based on the availability status change, do a different case for each of the possible Teams Presence status values (see blog series post part 9 for explaining the different presence availability values):

Inside each of these cases I will define the light settings and colors, and after that call the Remote Hue API for setting the light. As you saw in part 8 of this blog series, in order to access the Hue API remotely I will need the following:

  • An Access Token to be included as a Bearer token in the Authorization Header
  • A username/whitelist identifier
  • The actual lightnumber to set the state for
  • A request body containing the light state, for example colors, brightness, on/off etc.

Remember, this Flow will be triggered from Microsoft Graph whenever there is a presence state change in Teams. So I need to be able to access/retreive the access token, username and for which lightnumber I created the subscription. This is how I will get it:

  • Access Token will be retreived via the Logic App I created in part 4 of the blog series.
  • Username/whitelist identifier will be retrieved via the SharePoint List i created in part 6, see below image.
  • However, I do need to store the lightnumber I will create the change notification for, and for this I will add a couple more columns in this list:

Customize the Configuration List for storing Subscription Details

I add the following two single-line-of-text columns to my List:

  • Subscribe Presence LightNumber. This will be the chosen Hue light I want to change when change notifications occur for Teams presence status.
  • Change Notification Subscription Id. This will be the Id I can refer back to when adding and removing the subscription when needed.

Customize the Flow for getting User Configuration and preparing Light States

Back to the Flow again, we need to add some actions. First, add a initialize variable action after the initialize SecretClientState action like here:

I set the type to Object and using the json function to create an empty json object. This variable will later be used for changing the light state.

Next, in the Flow after the “Parse Notification Body” action, add a “Get Items” action from SharePoint connector, and configure it to your site, list name and the following Filter Query:

My filter query:
will be used to find what username and light that have been set up for presence changes.

Next, lets set the variable for LigthState. Inside each of the Switch Cases, add the action Set Variable, and then set the variable to the chosen xy color code, as a json object like the following. This is for the color green:

Do the same for all of the other case, these are the values I have been using:

“on”: true,
“bri”: 254,
“xy”: [ 0.517102, 0.474840 ],
“transitiontime”: 0
“on”: true,
“bri”: 254,
“xy”: [ 0.358189, 0.556853 ],
“transitiontime”: 0
AvailableIdleGreen (10% bright)json(‘{
“on”: true,
“bri”: 25,
“xy”: [ 0.358189, 0.556853 ],
“transitiontime”: 0
“on”: true,
“bri”: 254,
“xy”: [ 0.626564, 0.256591 ],
“transitiontime”: 0
BusyIdleRed (10% bright)json(‘{
“on”: true,
“bri”: 25,
“xy”: [ 0.626564, 0.256591 ],
“transitiontime”: 0
“on”: true,
“bri”: 254,
“xy”: [ 0.517102, 0.474840 ],
“transitiontime”: 0
“on”: true,
“bri”: 254,
“xy”: [ 0.626564, 0.256591 ],
“transitiontime”: 0
OfflineGrey (10% bright)json(‘{
“on”: true,
“bri”: 25,
“xy”: [ 0.3146, 0.3303 ],
“transitiontime”: 0
“on”: true,
“bri”: 254,
“xy”: [ 0.3146, 0.3303 ],
“transitiontime”: 0

PS! The transitiontime is to get as close to realtime updates as possible. Add the colors similarly for rest of the states:

Get the Access Token and call Hue Remote API

Now we are ready to get the Access Token, and call the Hue Remote API with the selected light state.

First, add a HTTP action below the Switch Presence Status action, calling the Logic App previously created in part 4 of the blog series:

Next, add another HTTP request after, and this will call the Hue Remote API to set the lights:

When constructing Hue API URI above, I retreive the whitelist identifier for username with the following expression:


And then which light number with this expression:


That should be the completion of this Flow. Remember to turn it on if needed. We are now ready for the last step.

Adding the Flow for Creating the Graph Subscription

In the beginning of this blog post I referred to the toggle “Sync Hue Lights with Teams” in the Power App. Now that we have prepared the Flow handling the notification Url, we need to add a new Flow that would handle the creating, or deletion, of Graph Subscriptions. As this is a toggle control, setting it to “On” should create a Graph subscription for the selected lights, and setting it to “Off” should remove that subscription again.

Create a new instant Flow with PowerApps as trigger:

Next, add an action for initialize variable for getting the UserDisplayName:

Use the following expression for getting the user display name:


Next, add another initialize variable for getting the light number. After renaming the action, click on “Ask in PowerApps”:

Add another initialize variable, this time a boolean value, and for getting the value of the toggle sync control:

Next, we will retrieve our user config source from the SharePoint list again, this time filtered by the UserDisplayName variable:

We now need some logic to the next steps for the flow, lets start by the toogle button which will be either true or false:

If yes, that should mean that we either should create a new graph subscription, or update any exisiting ones.

Under Yes, add a new action. This action will call the Custom Connector I created in another blog post (https://gotoguy.blog/2020/10/24/managing-microsoft-graph-change-notifications-subscriptions-with-power-platform/). This Custom Connector should have the following actions:

Click on the Get Subscription action to add that. For the subscriptionId parameter I will refer to the first returned instance of any exisiting Graph Subscriptions I have in the SharePoint list returned earlier.

Here is the expression for your reference:


When running the Flow this action will either:

  • Return a 200 OK if the subscription is found, or if the SharePoint List has a blank value for ChangeNotificationSubscriptionId.
  • Return a 404 ResourceNotFound if the subscription is not found, this will happen if the subscription is expired. This is an error that will halt the Flow, so we need to handle it.

So lets start by getting the Status Code. I’ll do that by adding a compose action with the following expression:


It’s also important to set that this action should run even if the Get Graph Subscription action fails:

Lets add another condition, where the outputs of the status code should be 200 (OK):

A status code of 200 will either indicate that either we found an existing Graph Subscription matching the configured subscription id from the SharePoint List, or that the list is blank and the Get Graph Subscription will return an empty array or any other Graph Subscriptions you might have. In the first case, we will just update the existing subscription, in the latter case we will create a new subscription. Lets start by adding another compose action:

Adding the Flow to the Hue Power App

Back in the Hue Power App, we can now link this Flow to the toggle control. With the sync toggle control selected, go to the Action menu, and then click on Power Automate. From there you should see the “Hue – Create Update Remove Graph Subscription” Flow, click to add it. On the OnChange event, add the Run parameters where the lightnumber value is read from the dropdown list and selected items lightnumber, and the toggle button value like this:

Blog Series – Power’ing up your Home Office Lights: Part 9 – Using Microsoft Graph to get Teams Presence and show state in PowerApp.

This blog post is part of the Blog Series: Power’ing up your Home Office Lights with Power Platform. See introduction post for links to the other articles in the series:

In this part 9 we will use Microsoft Graph to get the logged in user Teams Presence, and show that state in the PowerApp.

I have previously written another post on Teams Presence, Microsoft Graph and requirements here: Subscribing to Teams Presence with Graph API using Power Platform | GoToGuy Blog. If you want to dig deeper into that I would recommend that you read that post, but for now in this article I will show how you can get your Teams Presence into the Hue Power App.

Teams Presence is currently available in the beta endpoint of Microsoft Graph here: https://graph.microsoft.com/beta/me/presence

If you quickly want to check your own Teams Presence via the Microsoft Graph you can try the following. Just click this link that will launch in Graph Explorer: https://developer.microsoft.com/en-us/graph/graph-explorer?request=me%2Fpresence&method=GET&version=beta&GraphUrl=https://graph.microsoft.com

Just remember to consent to the Presence.Read permission as shown below:

As always when calling Microsoft Graph, we need to authenticate to Azure AD and authorize to Graph API to get an access token for quierying resources. And if we want to do that from Power Platform we need to create an app registration for that in Azure AD.

App Registration in Azure AD

This step might be dependent on if your tenant administrator has restricted the users’ right to create app registrations. If so, you will need to log into your tenant as a Global Administrator or Application Administrator, or get help from your IT admin to create the following App Registration in Azure AD.

If not, the following operations don’t require admin consent or permissions, so you can go ahead and create the App Registration. At the Azure AD Portal, go to https://aad.portal.azure.com, App Registrations and add a new like below:

Just leave the Redirect URI blank for now and click register.

Next, click on API Permissions, and click add a permission and select Microsoft Graph at the top, click on Delegated permissions, and add the Presence.Read permission as shown below:

You should now have the following permissions:

Next, go to Certificates & secrets, add a new client secret with a description, and select your chosen expiry:

Click Add and copy the secret value which will showed only this once. Save this secret for now, we will need it later. Also, go back to overview and copy the Application (Client) Id for later. We will need that as well.

There is just one thing left in this app registration, but for now we need to switch over to Power Platform for creating the Custom Connector.

Custom Connector in Power Platform for Microsoft Graph

We will now create a custom connector in Power Platform to reference this App Registration and get the Presence. Log either into make.powerapps.com, or flow.microsoft.com, for this next step.

Under the Data menu, select Custom Connectors. Select to add new connector from blank, and give it a name:

Select Continue, and on the General page, type graph.microsoft.com as host. You can also upload an icon and a description:

On the Security page, select OAuth 2.0 as type, and Azure Active Directory for Identity Provider. Client Id and Secret is the App Id and Secret from the App Registration earlier. Resource Url is https://graph.microsoft.com, and specify the scope to be Presence.Read:

After that, click on “Create Connector”, and the the “Redirect URL” will be populated:

Copy this URL and add it as a Web platform Redirect URI back in the Azure AD App Registration:

Back in the Custom Connector, go to Step 3. Definition, and click New Action. Type in a Summary “Get Presence” and Operation ID “GetPresence”, and under Request click Import from sample. Specify Get as verb, and URL to https://graph.microsoft.com/beta/me/presence, like below, and click Import:

Go to the Response section, and click on the Default response. Click on Import from sample and specify Content-Type application/json for Header response, and for Body, paste in the response you got when you tried the presence query in Graph Explorer in the beginning of this blog post:

The action should now look like this:

We can now proceed to Test. Click on Update Connector and under 4. Test click on “New connection”, and then Create:

Sign in and then accept the application to read your presence information and profile as shown below:

I can now test the GetPresence action with the signed in connection, and verify a successful response. In my case my availability just now is “Away”:

With the Custom Connector now ready, I can proceed to add this status to my PowerApp.

Customizing the Hue Power App to get Presence

Back in my Power App i created in earlier parts of this blog series, I want this icon to reflect my Teams Presence status. I will start simple by adding an OnSelect event to this icon, that will get my Presence status using the Custom Connector.

Under View menu, and Data, select to add the custom connector as a new connection to the PowerApp:

On the OnSelect event for the presence icon, I will use Set function and a variable called MyPresence, where I run the Custom connector and GetPresence operation like below:


This is how it looks:

Holding down ALT button, I can now click on the Icon to run the OnSelect event, and after that I can go to the View menu again, then under variables I will find the MyPresence variable. When looking into that record, I can verify that I indeed have received my presence status:

The next part would be to update the color of the Icon to reflect the status. I also, for now at least want an extra label that specifies the status as a text value. Lets start by that. I add a label next to the Icon and then set the Text property to “MyPresence.availability”, as shown under:

You should now be able to change the Teams Presence and then click on the Icon in the Hue Power App to update presence status text:

From the Graph Documentation, presence resource type – Microsoft Graph beta | Microsoft Docs, the following values are possible for presence availability, and I have added the suggested colors for these statuses:

  • Away (Yellow)
  • Available (Green)
  • AvailableIdle (Green)
  • Busy (Red)
  • BusyIdle (Red)
  • BeRightBack (Yellow)
  • DoNotDisturb (Red)
  • Offline (Light Grey)
  • PresenceUnknown (White)

So what remaining is that I want to update the color of the Teams Presence Icon also to reflect the status. And for this I chose to use the Switch function, where I evaluate the MyPresence.availability variable, and have different results:

Switch( MyPresence.availability, "Away", "Result1", "Available", "Result2", "AvailableIdle", "Result3", "Busy", "Result4", "BusyIdle", "Result5", "BeRightBack", "Result6", "DoNotDisturb", "Result7", "Offline", "Result8", "PresenceUnknown", "Result9", "DefaultResult" )

I will use that Switch formula to set the Fill property of the Icon, which now is manually set to Red like this:

So after picking the colors, I end up with this formula:

Switch( MyPresence.availability, "Away", RGBA(253, 185, 19, 1), "Available", RGBA(146, 195, 83, 1), "AvailableIdle", RGBA(146, 195, 83, 1), "Busy", RGBA(196, 49, 75, 1), "BusyIdle", RGBA(196, 49, 75, 1), "BeRightBack", RGBA(253, 185, 19, 1), "DoNotDisturb", RGBA(196, 49, 75, 1), "Offline", RGBA(128, 130, 133, 1), "PresenceUnknown", RGBA(255, 255, 255, 1), RGBA(0, 0, 0, 0) )

Adding this to the Fill property of the Icon:

After this you should be able to change your Teams Presence status, and then click on the Icon to update the status in the PowerApp:

One last ting remains before I conclude this blog post, and that is that I want to update the presence status everytime I navigate to this screen in my PowerApp. I’ll just add the following line to the OnSelect event for the Control Lights button on the main screen:

Summary & Next Steps

In this blog post I have shown how you can get the Teams Presence status into the Hue Power App, and for now the status is manually updated either by clicking on the status Icon, or when navigating to the lights screen.

In the next, and last part, of this blog series, I will show how you can subscribe to Microsoft Graph changes, so that you can automatically get status updates.

Thanks for reading so far, see you in the last part 10 of this blog series!

Blog Series – Power’ing up your Home Office Lights using Power Platform – Introduction

Microsoft Power Platform can be used in a variety of creative ways to both learn and create awesome automation solutions, and you can even use this platform for your home automation. In this series of blog posts and introductory videos I will show you how you can control your Home Office Lights (in my case Phillips Hue) via API and Power Platform components like PowerApps, Power Automate, Logic Apps and more.

As an introduction, lets start with the “birds overview” over the solution I’ve built:

The main idea was to be able to both interactively, and triggered based on events, to be able to control my Philips Hue Lights using Power Platform components like PowerApps and Power Automate. Why you say? Well, it’s cool isn’t it! And fun, and a well worth project to invest time in because of the great learning potential. I have learnt tons of new stuff, about Power Platform, Microsoft Graph, SharePoint Lists, and Azure resources like Key Vault, Logic Apps etc. And not to forget, I’ve learnt a lot about the Hue Remote API and implementation of Oauth!

I will get into the chosen solutions and why I elected to use the technologies mentioned, and how they interact as shown in the diagram above, but first I wanted to provide you with this short introduction video from me on the concept:

This blog post is the introduction to the series of blog posts, and also a part of my contribution to the Festive Tech Calendar 2020 https://festivetechcalendar.com/. As soon as the schedule is published, I will at the allocated date later in December do a live stream broadcast where I will talk about this solution and do a Q/A where I will try to answer all your questions. But before that, I will publish the all parts of the blog series and accompanying videos as shown below. Links will become alive as soon as I have published. This way you can follow along and by the time of the live stream, you could have your own solution up and running!

The blog series will consist of the following parts, links will be available as soon as the parts are published:

  1. Power’ing up your Home Office Lights: Part 1 – Get to know your Hue Remote API and prepare for building your solution.
  2. Power’ing up your Home Office Lights: Part 2 – Prepare Azure Key Vault for storing your API secrets.
  3. Power’ing up your Home Office Lights: Part 3 – Using Logic Apps to Authorize and Get Access Token using Oauth and Hue Remote API.
  4. Power’ing up your Home Office Lights: Part 4 – Using Logic Apps to Get Access Token and Renew Access Token if needed.
  5. Power’ing up your Home Office Lights: Part 5 – Using Power Automate Flow to Get Access Token and Config.
  6. Power’ing up your Home Office Lights: Part 6 – Using Power Automate Flow to Link Button and Whitelist user.
  7. Power’ing up your Home Office Lights: Part 7 – Building the PowerApp for Hue to Get Config and Link user.
  8. Power’ing up your Home Office Lights: Part 8 – Using Power Automate Flows to Get and Set Lights State.
  9. Power’ing up your Home Office Lights: Part 9 – Using Microsoft Graph to get Teams Presence and show state in PowerApp.
  10. Power’ing up your Home Office Lights: Part 10 – Subscribe to Graph and Teams Presence to automatically set Hue Lights based on my Teams Presence!

Well, I certainly have my work cut out, so I better get started. Thanks for reading, please follow the progress and join me on the later live stream!

Subscribing to Teams Presence with Graph API using Power Platform

Since the support for getting Teams Presence via Microsoft Graph API came into public preview earlier this year, https://docs.microsoft.com/en-us/graph/api/presence-get?view=graph-rest-beta&tabs=http, many where seeing interesting scenarios for automating Microsoft 365 using this presence status. In fact many, myself included, created different solutions for setting light bulbs etc to reflect the Teams presence. If busy, then red lights, if available green lights, and so on. I have this setup myself using Philips Hue lights, and have created a PowerApp using Flows to control my lights:

There has been one problem though, getting Teams Presence has only been possible by continuously querying the API to check if the status has changed. This can be scheduled of course, but running this every minute or so seems like an excessive way to achieve the goal: being able to see if the Teams Presence has changed!

Until just a few days ago that is, where I noticed that Teams Presence now is in Preview for subscribing to change notifications in Microsoft Graph: https://docs.microsoft.com/en-us/graph/webhooks#supported-resources

In this blog post I wlll show how to create a subscription for change notifications for Teams Presence for a specified user, and the requirements for doing this. And I will use Power Platform and Power Automate Flows to achieve this.

Let’s start with the Requirements..

First of all, to be able to set up a change notification for a resource, you need the same API permission as the resource require itself, for Teams Presence this is one of the following:

  • Presence.Read, for being able to read your own users presence status.
  • Presence.Read.All, for being able to read all users in your organization’s presence status.

Currently in the Beta endpoint, getting presence is only supported for Delegated permissions using work account, so you will have to to this with a logged in user.

The other important requirement is that you need a webhook uri for where the change notification can send a POST request for the resource that has been changed. This webhook uri can be on your preferred platform, many are using Azure Functions for this, but it can also be a third party platform. I will do it using Power Automate, another alternative could be using Azure Logic Apps also.

This webhook uri need to be able to:

  • Process the initial creation of the change notification subscription. Microsoft Graph expects a text response with a validation token for it to be successful.
  • Process every change to the resource that you subscribe to, in this example a Teams Users Presence Status.

We will get into the details on this, but for now, we will start explore using Graph Explorer.

Explore Presence and Subscriptions with Graph Explorer

Go to the Microsoft Graph Docs site and find Graph Explorer there, or just go to https://aka.ms/ge, and log in with your work account.

Type the following GET query: https://graph.microsoft.com/beta/me/presence

You need to be a Teams user to run this, but if permissions are consented, you should be able to see your own presence status like my example below. If you are getting a permission error, make sure that one of the permissions for Presence.Read or Presence.Read.All er consented. This can already been done by your administrator, if not you need to consent to them yourself.

Great, let’s check another users’ presence status. PS! The permissions don’t require admin consent, and using delegated permissions every user can check other users presence status, but you need Presence.Read.All to do that.

You need the other users id property, so you can check that first using for example <a href=”https://graph.microsoft.com/v1.0/users/https://graph.microsoft.com/v1.0/users/<someotherusersUpn>/?$select=id.

And then query for the other user’s presence: <a href=”https://graph.microsoft.com/beta/users/https://graph.microsoft.com/beta/users/<userid>/presence

Another way to query for your or other users presences, that are more aligned to the change notifications is using the /beta/communications/presences endpoint: <a href=”https://graph.microsoft.com/beta/communications/presences/https://graph.microsoft.com/beta/communications/presences/<userid&gt;:

If you can run all these queries successfully, then you are ready to proceed to change notifications subscriptions.

You can check if you have any active subscriptions for change notifications using a GET query to: https://graph.microsoft.com/v1.0/subscriptions or https://graph.microsoft.com/beta/subscriptions, depending on if you are working with preview resources. If you have no active subscriptions this should return a successful but empty response like below:

The next part would be to create a subscription for change notifications for presence, but first we need to prepare the Flow for receiving the webhook uri.

Create a Power Automate Flow for Change Notification Webhook

Log in with your work account to flow.microsoft.com, and create a new flow of type automated and blank, skip the first part of using pre-selected triggers. Search for the Request type trigger that is called “When a HTTP request is received”:

Next add a Initialize Variable action for setting the ClientState which we will use later for the creating the subscription. Set the variable to anything you want, give a name to the Flow and then save. When saved the HTTP POST URL will show the value you later will use as the webhook uri for the change notifications:

The next part is the most important one, and that require a little knowledge of the creation process for change notifications subscriptions. This is documented here https://docs.microsoft.com/en-us/graph/webhooks#managing-subscriptions, but the high level steps are:

  1. When the Subscription is created, a POST request is sent with Content-Type text/plain and a query parameter that contains a validationToken. Microsoft Graph expects a 200 OK response and a text/plain body that contains the validationToken to be able to successfully create the subscription.
  2. Immediately after creation, and for every change notification, a POST request is sent with Content-Type application/json. Microsoft Graph expects a 202 Accepted response to this, if not it will continuously try to send the same change notification. You should also check the ClientState for verification, and of course include your own business logic for what to do in the Flow for when changes occur.

So your Flow needs to address these requirements, and there can be different ways to achieve this, but this is how I did it in my setup:

After the initialize variable, I created a Switch control action, using Content-Type from the HTTP Request trigger. In this way I can separate the logic in my flow for the initial creation and validation, and for the updates.

Validating the Subscription

If the Content-Type is text/plain; charset=utf-8, I will try to get the validation token sent by Microsoft Graph, and create a response that returns status 200 OK and the validation token back in a text/plain body.

I used the Compose data operation, and a custom expression that retrieves the validationToken from the query parameters. The expression I use is: @triggerOutputs()[‘queries’][‘validationToken’].

The Request Response action returns a status code of 200, set the Content-Type to text/plain and for Body select the Output from the Compose Validation Token.

The above steps should be sufficient for creating the subscription, it is recommended to validate the ClientState also, in my case I have done that in the next step.

Processing and Responding to Change Notifications

The change notifications will come as Content-Type “application/json; charset=utf-8”, so I add a case for that under my Switch. Microsoft Graph expects a 202 Accepted Response, it is recommended to respond this early in your flow, so that any later actions or your own business logic generates errors that prevents this response.

In the Response action I just return 202 Accepted. I have then added a Parse Json action to make it easier to reference the values later in the flow:

You can generate the schema from an existing sample, from the Microsoft Graph docs, referred above, or you can just use the following sample from me here:

{  “value”: [    
{      “subscriptionId”: “<subscriptionid>”,      
“clientState”: “MyGraphExplorerSecretClientState”,      
“changeType”: “updated”,      
“resource”: “communications/presences(‘<userid>’)”,      
“subscriptionExpirationDateTime”: “2020-07-11T20:04:40.9743268+00:00”,      
“resourceData”: {        
“@odata.type”: “#Microsoft.Graph.presence”,        
“@odata.id”: “communications/presences(‘<userid>’)”,        
“id”: null,        
“activity”: “Away”,        
“availability”: “Away”      },      
“tenantId”: “<tenantid>”    }  

Now I can begin my business logic. As the value from the notification body is of type array, an Apply to each block will be needed, it will be automatically added if you select any of the attributes in the resulting actions. I will first verify that the clientState is matching the variable i defined in the beginning of the flow. This is a safestep that only the Graph subscription I created can call this Flow.

In the next part I have added a new Switch control, where I retrieve the presence status that have changed.

And this is where you add your own business logic, so I will stop here. In my own example (see PowerApp for Hue Lights above) I will control my lights based on presence updates, but this is a theme for a upcoming blog post.

With the Flow ready, we can now create the Subscription.

Creating Microsoft Graph Change Notification for Teams Presence

I will now create the Subscription in Graph Explorer, using a POST request to https://graph.microsoft.com/beta/subscriptions. In this POST request you will need a request body that contains the following:

Here is a quick explanation of the above values:

  • changeType: can be “updated”, “created”, “deleted”. Only “updated” is relevant for presence changes.
  • clientState: For verification in the webhook that the call is coming from the expected source, consider this a sensitive value.
  • notificationUrl: This is the webhook uri, and for my Flow this will be HTTP POST URL shown earlier.
  • resource: This is the user I want to get presence updates from. Note that you can get multiple user presences also using /communications/presences?$filter=id in ({id},{id}…) (https://docs.microsoft.com/en-us/graph/api/resources/webhooks?view=graph-rest-beta)
  • expirationDateTime: Every subscription only lasts for a specific time depending on resource type. The subscription needs to be renewed before expiry. For Teams Presence subscriptions only last one hour, same as chatMessage. See details for different types of resources: https://docs.microsoft.com/en-us/graph/api/resources/subscription?view=graph-rest-beta#properties. If you select an expiry time that is larger than supported, it will reset to one hour max.

Let’s run this query to create the subscription, if everything works, I will now get a 201 response that the subscription is created. Note the expiration time that is one hour from now:

This wouldn’t work if my Flow had failed, so let’s look into the run history on that. I see that I have 2 recent successful runs:

Let’s look into the first one. I see that the request is coming in as a text/plain with a validationToken, which I then return to Microsoft Graph:

Let’s look into the second run. This returns the first presence update, I can see that the user is “away”:

Now, let’s test this. With my user I go to Teams client, it should automatically change my presence from away to available or busy depending on my calendar, or I can set the status manually myself:

Checking the Flow runs again, I can indeed see that the Flow has been triggered via the Change Notification:

If I look into the details, the status update is Available:

If I bring up the Flow in a bigger picture I can indeed see that my logic ends up where the switch case checks for available status:

My Flow will now be triggered for every change as long as the subscription don’t expire.


In this blog post I have shown how you can create a Microsoft Graph Subscription for Change Notifications to selected users Teams Presence, using Power Automate to validate subscriptions and process the changes.

There are more work to do, as I need some logic for renewing and managing my subscriptions. But that will be the topic for the next blog post coming soon!

Thanks for reading, hope it has been useful 🙂

Oauth Authentication to Microsoft Graph with PowerShell Core

In this short blog post I will show you a really simple way to get started authenticating with Oauth to Microsoft Graph using PowerShell Core.

As you might know, PowerShell Core is the open-source, cross-platform (Windows, macOS, and Linux) edition of PowerShell, with the latest version today being PowerShell 7.0 ( https://docs.microsoft.com/en-us/powershell/scripting/whats-new/what-s-new-in-powershell-70?view=powershell-7). The latest version of Windows PowerShell is 5.1, and runs side-by-side with PowerShell Core.

I’ve been using Windows PowerShell mostly previously, as I’m running Windows 10 and use a lot of PowerShell modules that variously depend on SDKs or other Windows Components, but I’m increasingly using PowerShell Core in scenarios for example with Azure Functions PowerShell ( https://docs.microsoft.com/en-us/azure/azure-functions/functions-reference-powershell). My computer now runs Visual Studio Code and Windows Terminal with different Profiles, so that I can easily change between environments and run side-by-side:

This blog post isn’t about the details of PowerShell though, so lets get back to the topic at hand. When running PowerShell against Microsoft Graph you would run requests using the command Invoke-RestMethod. The thing that caught my attention was the added parameters of specifying Authentication and Token with the request: https://docs.microsoft.com/en-us/powershell/module/microsoft.powershell.utility/invoke-restmethod?view=powershell-7#parameters.

Let’s compare the “old” way and the “new” way, but first lets get an Access Token for Microsoft Graph.

Get Access Token using Graph Explorer

If you want to learn Microsoft Graph and start with some sample queries, Graph Explorer should be your main starting point: https://developer.microsoft.com/en-us/graph/graph-explorer/preview. The new preview version of the Graph Explorer lets you get a copy of your Access Token if you sign in with your account as shown below, you can copy it to your clipboard:

This Access Token will run queries as the logged on user (yourself) using the consented permissions in Graph Explorer, so you should only use this token for your own sample queries and not share it with anyone else.

Preferably you would get an Access Token by registering your own App Registration in Azure AD and authenticate using one of the following authentication flows:

  • Authorization Code Flow (Delegated User – Web Apps and APIs)
  • Device Code Flow (Delegated User – Native Clients, recommended for PowerShell)
  • Client Credentials Flow (Application Permissions – Scripts and Background Processes that don’t require user interactivity)

But for now I would use use the Access Token from Graph Explorer for the following samples.

The “old” way, using Authorization Header with Bearer Token

This method works with both Windows PowerShell and PowerShell Core. After aquiring an Access Token you would need to specify an Authorization Header with a Bearer Token for every request. In this example I get the Access Token from the Clipboard, as I copied that from the Graph Explorer.

$accessToken = Get-Clipboard
Invoke-RestMethod -Method Get -Uri "https://graph.microsoft.com/v1.0/me" -Headers @{"Authorization"="Bearer $accessToken"}

This should return a response like below:

The “new” way, using Authentication and Token Parameters

This method only works on PowerShell Core. The Access Token needs to be a secure string, so you need to convert it first like the following:

$accessToken = ConvertTo-SecureString (Get-Clipboard) -AsPlainText -Force

Another way would be to prompt for the Access Token and paste it with the following command:

$accessToken = Read-Host -AsSecureString -Prompt "Enter/Paste Oauth2 Token"

And then you would run the request specifying the Authentication parameter to be Oauth, and the Token parameter to be the secure string:

Invoke-RestMethod -Method Get -Uri "https://graph.microsoft.com/v1.0/me" -Authentication OAuth -Token $accessToken

This should return a response like below:


So in summary you can start using the Authentication and Token parameters in PowerShell Core, it would add / override the Authorization Header and Bearer Token for you. There can also be some added security gains as the Token is submitted as a securestring, which means you can try to keep it out of code as clear text.

How to Use Azure AD Privileged Identity Management PowerShell and Graph API

A while back I wrote a blog post on how you could download, install and use a separate Azure AD PIM PowerShell Module for managing Privileged Roles, https://gotoguy.blog/2018/05/22/getting-started-with-azure-ad-pim-powershell-module/. With the recent update of the AzureADPreview Module, the cmdlets for managing Privileged Roles are now included in the module, so there is no longer required to install a separate module for this!

In this blog post I will explain and show how these commands can be used. These PowerShell CmdLets are also at parity with the Graph API, so I will also show equivalent methods for this.

Install or Update AzureADPreview Module

First you need to either install or update the AzureADPreview Module, so that you are running on version or newer.

Update November 23 2020: Latest version of AzureADPreview Module is

The AzureADPreview Module can be installed from PowerShellGallery using Install-Module or Update-Module, and you can verify which version you have installed using Get-Module <modulename> –ListAvailable like this:


With that requirement out of the way we can proceed to look at the commands.

Privileged Role Management Commands

Currently in the AzureADPreview Module, there are 13 commands related to Privileged Roles:

Get-Command -Module AzureADPreview | Where-Object {$_.Name -like “*privileged*”}


The new cmdlets in AzureADPreview Module related to PIM are documented here, https://docs.microsoft.com/en-us/powershell/module/azuread/?view=azureadps-2.0-preview#privileged_role_management.

Note that some of the above commands are not in that documentation, all the new commands have a *MS* which means it is mapped to equivalent Microsoft Graph API’s.

In the interest of this blog post, here is a quick explanation of each of the available commands:

  • Add-AzureADMSPrivilegedResource. Use this API to add a new azure AD MS privileged resource.
  • Close-AzureADMSPrivilegedRoleAssignmentRequest. Cancel a AzureADMSPrivilegedRoleAssignmentRequest.
  • Get-AzureADMSPrivilegedResource. Get azure AD MS privileged resource.
  • Get-AzureADMSPrivilegedRoleAssignment. Get role assignments for a specific provider and resource.
  • Get-AzureADMSPrivilegedRoleAssignmentRequest. Get role assignment request for a specific resource.
  • Get-AzureADMSPrivilegedRoleDefinition. Get role definitions.
  • Get-AzureADMSPrivilegedRoleSetting. Get role settings.
  • Open-AzureADMSPrivilegedRoleAssignmentRequest. Create a role assignment request.
  • Set-AzureADMSPrivilegedRoleAssignmentRequest. Update a role assignment request.
  • Set-AzureADMSPrivilegedRoleSetting. Update role setting.

The other 3 Privileged Role commands that are still available to use, but currently are not documented on the above link to docs are:

  • Get-AzureADPrivilegedRole. List all Directory Roles available for Privileged Roles assignments.
  • Get-AzureADPrivilegedRoleAssignment. List active and eligible privileged role assignments.
  • New-AzureADPrivilegedRoleAssignment. Creates a new privileged role assignment for specified role and user.

(*) As soon as your tenant is upgraded to using the updated Privileged Identity Management experience for Azure AD roles (see below) these three commands will be outdated and should not be used anymore.

Further on in this blog post I will provide some more examples and usage scenarios for the new Azure AD Privileged Role Management commands, and their equivalent Microsoft Graph API methods, but first something on the difference between Azure Resources and Azure AD, changes in management experience and current limitations in the PowerShell commands.

Azure Resources vs. Azure AD

As you might know, Azure AD PIM can be used for managing privileged role assignments to both Azure AD roles and Azure Resources:


The new PowerShell commands that follows the syntax verb-AzureADMSPrivilegedRole…. all require a parameter called ProviderId, which as per today only support “AzureResources”. This means that currently you can only use the new Azure AD PowerShell commands for managing PIM for Azure resources, not for Azure AD roles yet! I had this confirmed with the Microsoft Program Manager for Azure AD PIM, as you can see from the conversation https://twitter.com/stevemsft/status/1143977432690466816?s=20 and shown in the below image:


This is related to the following notice from the Azure AD PIM Microsoft Graph documentation, stating that Azure AD roles will move to the Azure resource API in the coming months:


Update March 19 2020: Tenants are now starting to get migrated to the new Azure AD PIM provider similar to Azure Resources! If you log in to your tenant and see the following info in the Privileged Identity Management blade, then you can also use the new Azure AD provider, as I will show in the examples below:

As the new PowerShell commands are built on Microsoft Graph, this also means that they will work for Azure AD roles depending o the move to the Azure resources API.

Explore Privileged Resources


There are two commands for exploring and adding Privileged Azure Resources:

  • Get-AzureADMSPrivilegedResource –ProviderId azureResources
  • Add-AzureADMSPrivilegedResource –ProviderId azureResources

If you want to explore Privileged Azure AD roles you have to change the ProviderId like this:

  • Get-AzureADMSPrivilegedResource -ProviderId aadroles
  • Add-AzureADMSPrivilegedResource –ProviderId aadroles

Their equivalent Microsoft Graph API methods for Azure Resources are (Beta endpoint only as per july 2019):

  • List: GET /privilegedAccess/azureResources/resources
  • Get: GET /privilegedAccess/azureResources/resources/{id}
  • Register: POST /privilegedAccess/azureResources/resources/register

Getting or listing Privileged Resources is based on that you have onboarded to Azure AD PIM for Azure Resources, as explained here: https://docs.microsoft.com/en-us/azure/active-directory/privileged-identity-management/pim-resource-roles-discover-resources. You can also add a privileged resource by ExternalId, which I will show an example of later.

The equivalent Graph API methods for Azure AD roles are (Beta endpoint only as per march 2020):

  • List: GET /privilegedAccess/aadRoles/resources
  • Get: GET /privilegedAccess/aadRoles/resources/{tenantid}
  • Register: POST /privilegedAccess/aadRoles/resources/register (Note per march 2020: There are currently no way to programmatically onboard tenants to PIM for Azure AD roles)

Getting or listing Privileged Azure AD roles requires that you have signed up for PIM for Azure AD roles: https://docs.microsoft.com/en-us/azure/active-directory/privileged-identity-management/pim-getting-started#sign-up-pim-for-azure-ad-roles

Examples of Exploring Privileged Azure Resources

To get a list over all privileged Azure resources, just run:

Get-AzureADMSPrivilegedResource –ProviderId AzureResources

This will return a list (capped at max 200 results), with the Id, ExternalId, Type, DisplayName and more for each resource that have been registered to Azure AD PIM:


As mentioned above the list is capped at max 200 results, which is a Microsoft Graph limitation for this privileged resource API. You can use the –Top parameter to specify a lower number of returned results, like –Top 50,  but it will just ignore and cap at 200 if you for example type –Top 300.

So to return fewer results we can use the –Filter parameter which support Odata query. I have tried some different combinations, and not all will work as expected. Some examples of working filters:

Get-AzureADMSPrivilegedResource -ProviderId AzureResources -Filter “Type eq ‘resourcegroup'”

Get-AzureADMSPrivilegedResource -ProviderId AzureResources -Filter “Type eq ‘subscription'”

Get-AzureADMSPrivilegedResource -ProviderId AzureResources -Filter “DisplayName eq ‘elvsabootdiag001”

Get-AzureADMSPrivilegedResource -ProviderId AzureResources -Filter “startswith(DisplayName,’rg-‘)”


What I found DON’T work is filters for specific resource types like:

Get-AzureADMSPrivilegedResource -ProviderId AzureResources -Filter “Type eq ‘Microsoft.Compute/virtualMachines'”

..or any other specific resource type like Microsoft.Network/loadBalancers, Microsoft.Network/networkSecurityGroups, etc., which I find is a bit strange as I would like to filter on those as well.

If you know the specific resource id you can also get that privileged resource object directly:

Get-AzureADMSPrivilegedResource -ProviderId AzureResources –Id <resource id>

Lets compare this to the Microsoft Graph API methods, using Graph Explorer. To list all managed Azure Resources I run the GET /privilegedAccess/azureResources/resources like this:


Which pretty much returns the same list of resources and attributes as I did when running the PowerShell command. There is one important change though, and I mentioned earlier that the PowerShell command would only return max 200 results. In the Graph response I will receive a skip token from where if I run that I will get the next set of potentially 200 more results, and so on.

Graph can also handle filters of course, so lets try that. Here are some variations you can try out:

GET /privilegedAccess/azureResources/resources?$filter=type eq ‘resourcegroup’&$top=5

GET /privilegedAccess/azureResources/resources?$filter=displayName eq ‘rg-auth-dc’

GET /privilegedAccess/azureResources/resources?$filter=startswith(displayName,’rg-‘)

And if you want to get a specific resource with Graph, just specify the id like this:

GET /privilegedAccess/azureResources/resources/ad7327ba-50f4-4f03-a4ee-029f310b6775

Which will return the specific resource in the response:


Last, to add a resource as a managed resource to Azure AD PIM, using PowerShell can be done like this:

Add-AzureADMSPrivilegedResource -ProviderId AzureResources -ExternalId “/subscriptions/<your-subscription-id>”

And via Graph:

POST /privilegedAccess/azureResources/resources/register

Request Body:

“externalId”: “/subscriptions/<your-subscription-id>”

These commands are just to get a list of and adding managed Azure resources for Azure AD PIM, i the next parts we will look into actually managing assignments and settings.

Examples of Exploring Privileged Azure AD role resource

To get a list over all tenants registered for privileged Azure AD roles, just run:

Get-AzureADMSPrivilegedResource –ProviderId aadRoles

This will return a list of directories that have been onboarded for PIM for Azure AD Roles, with the Id referring to tenant id, Type, DisplayName and more:

If you know the specific tenant id you can also get that privileged resource object directly:

Get-AzureADMSPrivilegedResource -ProviderId aadRoles –Id <tenantid>

Lets compare this to the Microsoft Graph API methods, using Graph Explorer. To list all managed Azure AD roles directories I run the GET /privilegedAccess/aadRoles/resources like this:

Note that you also can specify the resource for Azure AD roles directly, by specifying the tenant id like this:

GET /privilegedAccess/aadRoles/resources/{tenant-id}

These commands are just to get a list and settings for tenant onboarded to Azure AD roles management with Azure AD PIM, i the next parts we will look into actually managing assignments and settings.

Explore Role Assignments


The following command can be used for listing or getting specific role assignments for Azure resources:

  • Get-AzureADMSPrivilegedRoleAssignment –ProviderId AzureResources –ResourceId <resource id>

And for Azure AD roles, the command would be the following, where the resource id is the tenant/directory id:

  • Get-AzureADMSPrivilegedRoleAssignment –ProviderId aadRoles –ResourceId <tenant id>

The equivalent Microsoft Graph API methods for Azure Resources:

  • List: GET /privilegedAccess/azureResources/resources/{resourceId}/roleAssignments
  • List: GET /privilegedAccess/azureResources/roleAssignments?$filter=resourceId+eq+'{resourceId}’
  • List (Mine): GET /privilegedAccess/azureResources/roleAssignments?$filter=subjectId+eq+'{myId}’
  • Get: GET /privilegedAccess/azureResources/resources/{resourceId}/roleAssignments/{id}
  • Get: GET /privilegedAccess/azureResources/roleAssignments/{id}?$filter=resourceId+eq+'{resourceId}’
  • Get (Mine): GET /privilegedAccess/azureResources/roleAssignments/{id}?$filter=subjectId+eq+'{myId}’

And these are the main Graph API methods for Azure AD roles:

  • List: GET /privilegedAccess/aadRoles/resources/{tenantId}/roleAssignments
  • List (Mine): GET /privilegedAccess/aadRoles/resources/{tenantId}/roleAssignments?$filter=subjectId+eq+'{myId}’
  • List (Role): GET privilegedAccess/aadRoles/resources/{tenantId}/roleAssignments?filter=roleDefinitionId eq ‘{myRoleDefinitionId}’

Now that seems a lot of different variations for Graph calls for the one PowerShell command, but as you will see later Graph can be a little more flexible in querying in different ways.

Examples of Exploring Role Assignments for Azure Resources

Lets see some samples for PowerShell first. Now we need to supply a resource id, that can be subscription object, a resource group object, any type of resource objects like virtual machines, virtual networks and so on, and even management group objects. So based on the commands previously shown in the blog post, we should be able to get out the resource id’s first, for example like this:

$myResource = Get-AzureADMSPrivilegedResource -ProviderId AzureResources -Filter "DisplayName eq 'NetworkWatcherRG'"

Get-AzureADMSPrivilegedRoleAssignment –ProviderId AzureResources –ResourceId $myResource.Id

So this returns a list of role assignments for the specified resource, each assignment has its own id, as well as the ResourceId, the RoleDefinitionId (which role that has been assigned, like reader, contributor, owner, etc), SubjectId (which user, service principal, group, etc has been assigned the role). In addition we can get info on any linked eligible assignements, start and end time for assignements, assignment state and if the assignment is active or not, or if the type is inherited or assigned directly to the resource.


The same results can be retrieved by first querying for the resource id:

And then querying for the role assignments belonging to this resource:

Basically the above command returns the same as this blade in the Azure Portal:


Examples of Exploring Role Assignments for Azure AD roles

If i want to look at Role Assignments for Azure AD roles via PowerShell you would specify ProviderId as aadRoles and the ResourceId to be the tenant id:

$myTenant = Get-TenantDetailsFromGraph
Get-AzureADMSPrivilegedRoleAssignment -ProviderId aadRoles -ResourceId $myTenant.TenantId

This will return all Azure AD role assignments in your tenant:

To return fewer results we can use the –Filter parameter which support Odata query. I have tried some different combinations, here are some examples of working filters:

Get-AzureADMSPrivilegedRoleAssignment -ProviderId aadRoles -ResourceId $myTenant.TenantId -Filter "SubjectId eq '<myId>'"

Get-AzureADMSPrivilegedRoleAssignment -ProviderId aadRoles -ResourceId $myTenant.TenantId -Filter "RoleDefinitionId eq '<myRoleDefinitionId>'"

Get-AzureADMSPrivilegedRoleAssignment -ProviderId aadRoles -ResourceId $myTenant.TenantId -Filter "AssignmentState eq 'Eligible'"

Get-AzureADMSPrivilegedRoleAssignment -ProviderId aadRoles -ResourceId $myTenant.TenantId -Filter "AssignmentState eq 'Active'"

Using Graph API I can explore and list the role assignments using the same filter examples like with PowerShell above:

Now that we have control over role assignments, we can look into the role definitions and settings in the next part.

Explore and Manage Role Definitions and Settings


The following commands can be used to get and manage role definitions and settings for Azure Resources:

  • Get-AzureADMSPrivilegedRoleDefinition -ProviderId AzureResources -ResourceId <myResourceId>
  • Get-AzureADMSPrivilegedRoleSetting -ProviderId AzureResources -Filter “ResourceId eq ‘<myResourceId> and RoleDefinitionId eq ‘myRoleDefinitionId””
  • Set-AzureADMSPrivilegedRoleSetting -ProviderId AzureResources -Id ‘<myRoleSettingsId>’ -ResourceId ‘<myResourceId>’ -RoleDefinitionId ‘<myRoleDefinitionId>’ -UserMemberSettings -UserEligibleSettings -AdminMemberSettings -AdminEligibleSettings <Microsoft.Open.MSGraph.Model.AzureADMSPrivilegedRuleSetting>

And following commands can be used to get and manage role definitions and settings for Azure AD roles:

  • Get-AzureADMSPrivilegedRoleDefinition -ProviderId aadRoles -ResourceId <TenantId>
  • Get-AzureADMSPrivilegedRoleSetting -ProviderId aadRoles -Filter “ResourceId eq ‘<TenantId>'”
  • Set-AzureADMSPrivilegedRoleSetting -ProviderId aadRoles -Id ‘<myRoleSettingsId>’ -ResourceId ‘<TenantId>’ -RoleDefinitionId ‘<myRoleDefinitionId>’ -UserMemberSettings -UserEligibleSettings -AdminMemberSettings -AdminEligibleSettings <Microsoft.Open.MSGraph.Model.AzureADMSPrivilegedRuleSetting>

The equivalent Microsoft Graph API methods for Azure Resources:

  • GET /privilegedAccess/azureResources/resources/{resourceId}/roleDefinitions
  • GET /privilegedAccess/azureResources/roleDefinitions?$filter=resourceId+eq+'{resourceId}’
  • GET /privilegedAccess/azureResources/resources/{resourceId}/roleDefinitions/{id}
  • GET /privilegedAccess/azureResources/roleDefinitions/{id}?$filter=resourceId+eq+'{resourceId}’
  • GET /privilegedAccess/azureResources/resources/<resourceId>/roleSettings
  • GET /privilegedAccess/azureResources/roleSettings?$filter=resourceId+eq+'<resourceId>’
  • GET /privilegedAccess/azureResources/roleSettings/{id}
  • PATCH /privilegedAccess/azureResources/roleSettings/{id}

Explore and Manage Role Assignment Requests


The following command can be used for exploring and managing role assignment requests:

  • Get-AzureADMSPrivilegedRoleAssignmentRequest. Get role assignment request for a specific resource.
  • Open-AzureADMSPrivilegedRoleAssignmentRequest. Create a role assignment
  • Set-AzureADMSPrivilegedRoleAssignmentRequest. Update a role assignment
  • Close-AzureADMSPrivilegedRoleAssignmentRequest. Cancel a

The equivalent Microsoft Graph API methods:

  • GET /privilegedAccess/azureResources/resources/{resourceId}/roleAssignmentRequests
  • GET /privilegedAccess/azureResources/roleAssignmentRequests?$filter=resourceId+eq+'{resourceId}’
  • GET /privilegedAccess/azureResources/roleAssignmentRequests?$filter=subjectId+eq+'{myId}’
  • GET /privilegedAccess/azureResources/roleAssignmentRequests/{id}
  • POST /privilegedAccess/azureResources/roleAssignmentRequests
  • POST /privilegedAccess/azureResources/roleAssignmentRequests/{id}/updateRequest
  • POST /privilegedAccess/azureResources/roleAssignmentRequests/{id}/cancel

Explore Microsoft Graph as a B2B Guest Account

The Microsoft Graph Explorer (https://aka.ms/ge) is always a great learning source and useful tool for querying the Microsoft Graph, especially as you can use your own Azure AD work account or Microsoft account to query for real data. Another advantage with the Graph Explorer is that you can use it without requiring an App Registration in your tenant, something most users are not able to do themselves as they don’t have the administrator rights for registering apps.

However, sometimes working with Microsoft Graph, I find myself in a scenario where I want to use my own work account, but where the Microsoft Graph resources I want to query is in another Organization’s tenant. These kind of scenarios is usually where my account is invited as a B2B guest user to the resource tenant, and currently there are no way to use the Graph Explorer tool to do that.

So I need another tool, and as an IT pro I could easily write myself some PowerShell code, or as a developer I could create a Web app or Console app querying Graph, and run the queries against the other tenant from there.

On the other hand, I want to do this more inline with the Graph Explorer experience, so the most logical choice for me is to use a tool where I can just run the REST API queries I like. And the most popular tool, both by me and many others are the “Postman” client. You can get it yourself for free at https://www.getpostman.com, both Windows, Linux and Mac downloads are supported!

So in this blog post I will show how I use Postman to query Microsoft Graph in a B2B Guest User scenario.

Requirements & Preparation

So, first you will need to get invited to another tenant where the resources you wan’t to query is. You might already have this Azure AD B2B invitation accepted previously. If you aren’t an administrator in that tenant, you will have to ask someone that has the rights to invite to do that for you.

Next, you will need to get assigned permissions to the resources you want to query in the resource tenant. This is all dependent on what kind of queries you want to run, whether it is for reading, writing or deleting resources for example.

Then, you will need an Global Administrator in that resource tenant to create an App Registration. The following instructions and screenshots can be used as a guide:

First, under the Azure AD experience in the Azure Portal, go to App Registrations and create a new Registration, type a name and a redirect URI like shown below:


You can type any name you like, for example in this scenario I want to use it for querying identities. I choose to support accounts in this organizational directory only, as this app registration is for members or guests from this tenant. And since I will be using the Postman i specify the redirect URI of “https://www.getpostman.com/oauth2/callback”. This is important as when I authenticate from Postman later the response will be returned to the Postman client.

When accessing Microsoft Graph you have to authenticate using one of the Oauth2 flows, and the most common is using authorization code flow, (https://developer.microsoft.com/en-us/graph/blogs/30daysmsgraph-day-12-authentication-and-authorization-scenarios/), which is exactly this scenario is all about as I will authenticate on behalf of my guest user account in the resource tenant. That means that I will have to add some delegated Graph permissions to the app registration, and in this example I add User.ReadBasic.All, this will make me able to query users via Graph:


After granting Admin consent for the permissions, I can verify that the permissions are added correctly:


Next I will need to create a client secret to be used in the request to get an access token, go to certificates & secrets and add a client secret of chosen time expiry:


Copy and make sure you save the client secret for later next:


Then copy the application id and tenant id and save for later:


Click on endpoints (see arrow above), and note the Oauth2 authorization and token endpoints (v2), this endpoints contains the tenantid:


With these steps the requirements are complete and we can move on to the postman client.

Authenticating and Querying Graph with Postman

There are a lot of features in the Postman client that you should look into when working with REST API’s. You can organize your queries in Collections, save variables in Environments, synchronize your requests across devices and so on. But for now we will start simple and easy.

In the main canvas at your workspace, create a new query, and for example start with https://graph.microsoft.com/v1.0/me:


Don’t push Send just yet, we need to authenticate first. Go to the Authorization section under the request, and select Oauth2, then click Get New Access Token:


In the following dialog fill in your details as shown below, where:

  • Token Name: You can type what you want here, this is named reference to the Access Token you will aquire.
  • Grant Type: As earlier mentioned, running graph queries as the logged in user (delegated) use the Authorization Code Oauth2 flow.
  • Callback URL: This is the URL that you specified earlier for Redirect URI under the Azure AD App Registration.
  • Auth URL and Access Token URL: These are the URL’s you saw earlier from the Endpoints setting for the Azure AD App Registration (contains the Tenant ID).
  • Client ID: This is the Application ID for the App Registration.
  • Client Secret: This is the secret key you generated under the App Registration.
  • Scope: Provide a default scope, use the default.
  • State: Scope is used for creating application logic that prevents cross use of Access Tokens. You can type anything you want here.
  • Client Authentication: Select to Send client credentials in body when working with Graph requests.

When you click request token, you will be taken to the resource tenant for authenticating with your delegated user. Type in your username and click next. This username can either be a normal user that belongs to this resource tenant, or in this case you can log in with your B2B Guest Account:


Now dependent on any Conditional Access policies and settings you might be required to approve sign in:


After successfully authenticating I should receive a valid Access Token:


If you get an error here, please verify your App Registration settings and that the account you logged in as is correct.

Scroll down and click Use Token:


You will see that the Access Token is now filled in the Access Token textbox. Next click Preview Request down to the left, this will add the Access Token to the request as a authorization header:


If you click on Headers, you can see the Authorization header has been added with the access token as a Bearer Token value:


This Access Token is now valid for 1 hour, and you can run as many requests you like as long as you are inside the delegated permissions (for the App Registration) and the logged in users actual permissions. After 1 hour you can request a new Access Token.

PS! Postman will save the authenticated user session in cookies, if you want to log in as a different user clear those cookies, se “cookies” link right below the Send button.

So, now lets run this query, click Send at verify the response, you should get details for your guest user. From the screenshot below you can clearly see that this user is a Guest account looking at the userPrincipalName attribute:


Lets try another query, in this query I list all users that has userPrincipalName that starts with “Jan”, and showing only the displayName and userPrincipalName attributes:


As you can see from the result above, I have several guest accounts in this tenant (Microsoft Account, Google, Azure AD) as well as a normal user account. You can also see that the Postman client is helpful in specifying my parameters.

Inspecting a B2B Guest Access Token

If you copy the Access Token you got earlier, and paste it into a site like jwt.ms or jwt.io, we can take a look at the access token contents and claims:


If I scroll down a little I see the displayname of the App Registration, but the most important info is the mail claim, which for Guest users will be the external e-mail address. Idp is the source authority for the Guest account, in this case another Azure AD tenant with the Tenant Id as shown below:


Working with Environments

Chances are that you might work with several environments in Postman, and that where it’s useful to create environment variables. For example create an environment like shown below:


That way you can select which environment you want to work with when running queries, and when referencing variables use “{{ .. }}”. For example under Get New Access Token, change to this:


Now, lets finalize this blog post by logging in with another guest account, I will choose my Gmail account, I’ve already set up Google Federation and invited this user to my tenant.

First I need to clear the cookies:


Next I will click to Get a New Access Token again, and then authenticate as my Google account, which directs me to the Google login page:


After successfully authenticating, and using the new Access Token in the Authorization Header, I can run the basic /me query again, this time showing me that I’m now authenticated to Graph with my Gmail user:


And looking inside the Access Token again, I can see that the e-mail address is my gmail and the idp is now google.com:


If I had logged on with a Microsoft Account the idp value would have been “live.com”.

Next steps

So, now you know how to authenticate to and query Microsoft Graph with an Azure AD B2B Guest User. I really hope this functionality will come to Graph Explorer eventually, but for now Postman is already an awesome free tool for organizing and running your Microsoft Graph queries that I use a lot myself.

The Microsoft Graph Team has also published this source for a lot of useful collections of Graph queries:


Get and Set Automatic Replies like OOF with Microsoft Graph

Hi, a short blog post this time as Summer Vacation 2019 is here shortly! And on that note, the topic of the post is to show how you can get and set automatic replies with Microsoft Graph. Automatic replies, previously known as Out of Office (OOF) messages is a mailbox setting for each Exchange Online enabled user.

The Microsoft Graph API documentation for mailbox settings is located here: https://docs.microsoft.com/en-us/graph/api/user-get-mailboxsettings?view=graph-rest-1.0&tabs=http, and besides automatic replies you can also get and set locale (language and country/region), time zone, and working hours.

But for now we will only focus on automatic replies, using the automaticRepliesSetting resource type: https://docs.microsoft.com/en-us/graph/api/resources/automaticrepliessetting?view=graph-rest-1.0.

This resource type has the following settings:

   "externalAudience": "String",
   "externalReplyMessage": "string",
   "internalReplyMessage": "string",
   "scheduledEndDateTime": {"@odata.type": "microsoft.graph.dateTimeTimeZone"},
   "scheduledStartDateTime": {"@odata.type": "microsoft.graph.dateTimeTimeZone"},
   "status": "String"

Let’s look at some different samples, and I will use Graph Explorer (https://aka.ms/ge). Please note that every end user already have user permission to get or set their own mailbox settings, but you need an Exchange Admin role to get or set the settings for other users in your organization. In addition, if you create your own app registration for Microsoft Graph, you need to make sure the app has either MailboxSettings.Read or MailboxSettings.ReadWrite permission.

In Graph Explorer, after you sign in with your work account, you can modify these permissions if needed:


After signing out and in again you will be prompted to consent, if you havent already:


Get Current Mailbox Settings

To get your own current settings you can run the following:

GET /me/mailboxSettings

In Graph Explorer this would look like this, and you might have some previous values set here. In my example automatic replies have a status of disabled:


To get another users mailbox settings you can run the following (but then you must be an Exchange Admin):

GET /users/{id|userPrincipalName}/mailboxSettings

Simple Update of Status

Lets see how Microsoft Graph can be used to change the status value, there are 3 different settings:

  • disabled. No automatic replies are sent.
  • alwaysEnabled. Automatic replies are sent as specified.
  • scheduled. Automatic replies are sent if between a specific time period.

First, change the method i Graph Explorer to PATCH:


Then you need to supply a request body. This sample is just for enabling automatic replies:

    "@odata.context": "https://graph.microsoft.com/v1.0/$metadata#Me/mailboxSettings",
    "automaticRepliesSetting": {
        "status": "alwaysEnabled",

So paste that body to Graph Explorer and then Run Query:


You should then get a successful response. Likewise you can set the status to “disabled” again, or to “scheduled”. But using scheduled means that you must set some datetime values as well.

Set Scheduled Automatic Replies

To set scheduled automatic replies, in your request body include the resource types scheduledStartDateTime and scheduledEndDateTime. You can read more about that resource type here, including available time zones: https://docs.microsoft.com/en-us/graph/api/resources/datetimetimezone?view=graph-rest-1.0. This is a sample specifying a scheduled automatic replies:

    "@odata.context": "https://graph.microsoft.com/v1.0/$metadata#Me/mailboxSettings",
    "automaticRepliesSetting": {
        "status": "scheduled",
        "scheduledStartDateTime": {
            "dateTime": "2019-07-15T08:00:00.0000000",
            "timeZone": "Europe/Berlin"
        "scheduledEndDateTime": {
            "dateTime": "2019-08-09T16:00:00.0000000",
            "timeZone": "Europe/Berlin"

Customize internal and external reply messages

The last part is where we put it all together, specifying the following values:

  • internalReplyMessage: Plain text or HTML formatted message sent to all internal users in your organization as the automatic reply.
  • externalReplyMessage: Plain text or HTML formatted message sent to all external users as the automatic reply, but depending on this value:
  • externalAudience: If “none”, no external users will get automatic replies, if “contactsOnly” replies will only be sent to users in your contacts, and if “all” every external user will get a reply.

So this is a working sample of a complete request body:

    "@odata.context": "https://graph.microsoft.com/v1.0/$metadata#Me/mailboxSettings",
"automaticRepliesSetting": {
        "status": "scheduled",
        "externalAudience": "contactsOnly",
        "internalReplyMessage": "<html>\n<body>\n<div></div>\n<div>Hi, I'm enjoying summer vacation 2019. I'm back at work August 12th!</div>\n<div><br>\n</div>\n<div>Kindly Regards</div>\n<div>Jan Vidar Elven</div>\n<div></div>\n</body>\n</html>\n",
        "externalReplyMessage": "<html>\n<body>\n<div></div>\n<div>Hi, I'm enjoying summer vacation 2019. I'm back at work August 12th!</div>\n<div><br>\n</div>\n<div>I'll only read e-mails intermittently, and rarely respond before I'm back. Please contact management if anything urgent business needs follow up. Contact info on our website.</div>\n<br>\n</div>\n<div>Kindly Regards</div>\n<div>Jan Vidar Elven</div>\n</div>\n<div></div>\n</body>\n</html>\n",
        "scheduledStartDateTime": {
            "dateTime": "2019-07-15T08:00:00.0000000",
            "timeZone": "Europe/Berlin"
        "scheduledEndDateTime": {
            "dateTime": "2019-08-09T16:00:00.0000000",
            "timeZone": "Europe/Berlin"

In Graph Explorer:


And I can verify in my Outlook settings:


Summary and Usage Scenarios

Beside that it is always fun to learn something new about the Microsoft Graph, and automation, the reality is that for many users they will just click to enable or disable automatic replies directly in their Outlook client, both Office Outlook, Outlook Mobile and Outlook on the Web supoorts this. Finding out how to do it with Graph took me just under 2 hours, including writing this blog post. But then again, I learned something new! And I picked up a couple of more tips and tricks on different JSON Request Body constructs 😉

Anyway, in a bigger picture, Graph API is great for customizing, integrating, reporting and automating, so if your organization maybe have create a vacation calendar, you could use the Graph API to automatically enable or disable out of office replies, this is just one example, many more will exist. Please share with me in the comments if you have done or plan to do something with this or similar.


But first: Summer Vacation 2019! And I’m all set with automatic replies !

Speaking at Microsoft Ignite – The Tour Stockholm

It is with great pride I can announce that I will speak at Microsoft Ignite – The Tour, in Stockholm April 24-25 2019. This conference, which already is sold out and now only available on waiting list, will be held at Stockholmsmassan, and you can read more about it here: https://www.microsoft.com/sv-se/ignite-the-tour/Stockholm.

Ignite The Tour Stockholm will have over 150 different breakout sessions, theatre sessions, modules and workshops, covering 10 learning paths. Speakers will be from Microsoft, and from the MVP and Regional Director community, which I’m so fortunate and honored to be part of 😉

I will be speaking at the following sessions:

In addition to this I will participate on the following hands-on workshop as a proctor:

You will also find me at the experts area and doing booth duty, I will be at the following demo stations at the Hub and Microsoft Showcase area, covering topics on Azure and Azure AD:

  • Demo Station #5 (Azure): Day 1 1600-1800: “Getting Started with Azure Log Analytics and Azure Monitor using Azure AD Activity Logs
  • Demo Station #6 (Azure): Day 2 0800-1200: “Getting Started with Azure Log Analytics and Azure Monitor using Azure AD Activity Logs

I’m really excited for presenting these sessions and being part of the Ignite The Tour Community! Hope to see you there 🙂