What's new in BIG-IP v21.0?
Introduction In November of 2025 F5 released the latest version of BIG-IP software, v21.0. This release is packed with fixes and new features that enhance the F5 Application Delivery and Security Platform (ADSP). These changes complement the Delivery, Security and Deployment aspects of the ADSP. Demo Video: New SSL Orchestrator Features SNI Preservation SNI (Server Name Indication) Preservation is now supported for Inbound Gateway Mode. This preserves the client’s original SNI information as traffic passes through the reverse proxy, allowing backend TLS servers to access and use this information. This enables accurate application routing and supports security workflows like threat detection and compliance enforcement. Previous software versions required custom iRules to enable this functionality. Note: SNI preservation is enabled by default. However, if you have existing Inbound Gateway Topologies, you must redeploy them for the change to take effect. iRule Control for Service Entry and Return Previously, iRules were only available on the entry (ingress) side, limiting customization to traffic entering the Inspection Service. iRule control is now extended to the return-side traffic of Inspection Services. You can now apply iRules on both sides of an Inspection Service (L2, L3, HTTP). This enhancement provides full control over traffic entering and leaving the Inspection Service, enabling more flexible, powerful, and fine-grained traffic handling. The Services page will now include configuration for iRules on service entry and iRules on service return. A typical use-case for this feature is what we call Header Enrichment. In this case, iRules are used to add headers to the payload before sending it to the Inspection Service. The headers could contain the authenticated username/group membership of the person who initiated the connection. This information can be useful for Inspection Services for either logging, policy enforcement, or both. The benefit of this feature is that the authenticated username/group membership header can be removed from the payload on egress, preventing it from being leaked to origin servers. New Access Policy Manager (APM) Features Expanded Exclusion Support for Locked Client Mode Previously, APM-locked client mode allowed a maximum of 10 exclusions, preventing administrators from adding more than 10 destinations. This limitation has now been removed, and the exclusion list can contain more than 10 entries. OAuth Authorization Server Max Claims Data Support The max claim data size is set to 8kb by default, but a large claim size can lead to excessive memory consumption. You must allocate the right amount of memory dynamically as required based on claims configuration. New Features in BIG-IP v21.0.0 Control Plane Performance and Scalability Improvements The BIG-IP 21.0.0 release introduces significant improvements to the BIG-IP control plane, including better scalability and support for large-scale configurations (up to 1 million objects). This includes MCPD efficiency enhancements and eXtremeDB scale improvements. AI Data Delivery Optimize performance and simplify configuration with new S3 data storage integrations. Use cases include secure ingestion for fine-tuning and batch inference, high-throughput retrieval for RAG and embeddings generation, policy-driven model artifact distribution with observability, and controlled egress with consistent security and compliance. F5 BIG-IP optimizes and secures S3 data ingress and egress for AI workloads. Model Context Protocol (MCP) support for AI traffic Accelerate and scale AI workloads with support for MCP that enables seamless communication between AI models, applications, and data sources. This enhances performance, secures connections, and streamlines deployment for AI workloads. F5 BIG-IP optimizes and secures S3 data ingress and egress for AI workloads. Migrating BIG-IP from Entrust to Alternative Certificate Authorities Entrust is soon to be delisted as a certificate authority by many major browsers. Following a variety of compliance failures with industry standards in recent years, browsers like Google Chrome and Mozilla made their distrust for Entrust certificates public last year. As such, Entrust certificates issued on or after November 12, 2024, are deemed insecure by most browsers. Conclusion Upgrade your BIG-IP to version 21.0 today to take advantage of these fixes and new features that enhance the F5 Application Delivery and Security Platform (ADSP). These changes complement the Delivery, Security and Deployment aspects of the ADSP. Related Content SSL Orchestrator Release Notes BIG-IP Release Notes BLOG F5 BIG-IP v21.0: Control plane, AI data delivery and security enhancements Press Release F5 launches BIG-IP v21.0 Introduction to BIG-IP SSL Orchestrator
Bypass Azure Login Page with OAuth login_hint on F5 BIG-IP APM
Overview This article demonstrates how to enhance the user experience between F5 BIG-IP APM (OAuth Client) and Azure AD (OAuth Authorization Server) by implementing the login_hint parameter. This approach eliminates the need for users to enter their credentials twice, once on the F5 login page and again on the Azure login page. Problem Statement When users access applications protected by F5 APM that authenticate against Azure AD using OAuth/OIDC, they often encounter a suboptimal experience: User enters credentials on the F5 login page (often using their familiar sAMAccountName) F5 redirects to Azure AD for OAuth authentication Azure AD presents another login page asking for the same credentials (expecting UPN/email format) This creates additional friction because users may not know their User Principal Name (UPN) and typically use their sAMAccountName for domain authentication. The login_hint parameter solves this by allowing F5 APM to translate the user's sAMAccountName to their UPN and pre-populate the Azure login page, effectively bypassing the redundant login prompt. Alternative approach The same functionality can be achieved using SAML, as described here. However, I find the OAuth approach cleaner, as it eliminates the need for an iRule and also allows you to include the prompt parameter. This can be useful when you want to force authentication in Azure instead of relying on an existing session. See herefor details. Prerequisites F5 BIG-IP with APM Azure AD tenant with application registration Basic OAuth/OIDC configuration between F5 and Azure AD (as outlined in https://my.f5.com/manage/s/article/K53313351) Implementation Steps Step 1: Complete Basic OAuth Setup Follow the standard F5 APM OAuth configuration with Azure AD: Configure OAuth Server Object Navigate to Access ›› Federation ›› OAuth Client/Resource Server ›› OAuth Server Create a new OAuth server configuration for Azure AD Set the provider type to "Microsoft Identity Platform 2.0" Configure Access Profile Create an access profile with OAuth Client agent Configure authentication redirect and token requests Step 2: Create Custom Authentication Redirect Request The key modification involves creating a custom authentication redirect request that includes the login_hint parameter: Navigate to Request Configuration Access ›› Federation ›› OAuth Client/Resource Server ›› Request Clone the Default Request Find the existing /Common/MSIdentityPlatform2.0AuthRedirectRequest Create a copy Name it something descriptive like MSIdentityPlatform2.0AuthRedirectRequest_LoginHint and the same parameters as /Common/MSIdentityPlatform2.0AuthRedirectRequest Add login_hint Parameter Parameter Name: login_hint Parameter Type: custom Parameter Value: %{session.ad.last.attr.userPrincipalName} or any other variable containing user’s UPN based on your environment and Authentication configuration In the Parameters section, click Add Configure the new parameter: Step 3: Update VPE OAuth Configuration Access the Visual Policy Editor Go to Access ›› Profiles/Policies ›› Access Profiles (Per-Session Policies) Edit your access profile Click Edit to open the VPE Modify OAuth Client Agent Locate the OAuth Client agent in your policy Edit the OAuth Client agent properties In the Authentication Redirect Request dropdown, select your new custom request: MSIdentityPlatform2.0AuthRedirectRequest_LoginHint Apply Access Policy Click Apply Access Policy to save changes Step 4: Session Variable Configuration and UPN Translation The key to successful login_hint implementation is ensuring the proper session variable is populated with a UPN-formatted email address. F5 APM can automatically translate sAMAccountName to UPN during AD authentication. Complete Policy Flow Example Start ↓ Logon Page (user enters: DOMAIN\john.doe or john.doe) ↓ AD Auth (authenticate and populate session variables) ↓ AD Query (to fetch user attributes) ↓ OAuth Client (with custom redirect request including login_hint=john.doe@company.com) ↓ Azure AD (pre-populated with UPN, bypasses login prompt) ↓ Application Access Troubleshooting Common Issues login_hint Parameter Not Working Verify the session variable contains a valid email address Check that the custom request is selected in the OAuth Client agent Ensure the parameter type is set to "custom" Session Variable Empty or Wrong Format Verify AD authentication and query occurs before OAuth redirect Check AD attribute mapping configuration Confirm the userPrincipalName attribute exists in your AD schema Ensure domain suffix matches Azure AD tenant domain Azure AD Still Prompts for Login Verify the email format matches Azure AD expectations Check Azure AD application configuration for login_hint support Ensure the user exists in the Azure AD tenant Debugging Tips Enable APM debug logging: tmsh modify sys db log.apm.level value debug Use browser developer tools to inspect the OAuth redirect URL Verify session variables using Variable Assign agents in VPE Security Considerations The login_hint parameter only pre-populates the username field; users still must provide valid credentials This is a user experience enhancement, not a security bypass Ensure session variables don't contain sensitive information beyond the username/email Conclusion Implementing login_hint with OAuth on F5 BIG-IP APM significantly improves user experience by eliminating redundant login prompts. The key advantage is that F5 APM can seamlessly translate users' familiar sAMAccountName credentials to the UPN format required by Azure AD, allowing users to authenticate once with their domain credentials while Azure AD receives the properly formatted UPN for the login_hint. This approach maintains security while providing a seamless user experience, particularly beneficial in environments where: Users are more familiar with their sAMAccountName than their UPN Organizations want to minimize authentication friction Azure itself is also federated to another IDP and you want transparent rederiction The solution leverages F5 APM's AD integration capabilities to handle the username format translation automatically, making it transparent to end users.Sharing User Credentials Between SAML IDP and SP Policies in F5 APM
In F5 APM environments with one SAML Identity Provider (IDP) and multiple Service Providers (SPs), SP policies may need access to user credentials (like passwords) for SSO mechanisms such as NTLM or RDP. Since SAML doesn't transmit passwords, this solution enables secure credential sharing by storing the password in a custom session variable on the IDP side and passing the IDP session ID to the SP as a SAML attribute. An iRule on the SP side then uses this session ID to retrieve the password from the IDP session, making it available for SSO credential mapping. This approach maintains security by avoiding password exposure in the SAML assertion and leverages internal session sharing between policies.F5 BIG-IP APM with Omnissa Workspace ONE Access
This article discusses the collaboration between Omnissa and F5 to integrate Workspace ONE Access Cloud with F5 Access Policy Manager (APM). Workspace ONE Access unifies applications and desktops into a single, aggregated workspace, allowing employees to access resources from anywhere while simplifying IT administration through fewer management points and flexible access. The deployment of Workspace ONE Access in the cloud centralizes assets, devices, and applications, enabling secure management of users and data. Organizations benefit from instant upgrades without maintenance outages. The document provides detailed instructions for configuring Workspace ONE Access Cloud as an Identity Provider (IDP) in front of F5 APM as a Service Provider (SP), utilizing APM as a gateway for Omnissa Horizon. This integration aims to offer a comprehensive view of the workspace, ensuring robust DMZ security and scalability with the F5 PCoIP/Blast Proxy in conjunction with Omnissa Horizon.F5 BIG-IP Zero Trust Access
Introduction F5 BIG-IP Zero Trust Access, a key component of the F5 Application Delivery and Security Platform (ADSP), helps teams secure apps that are spread across hybrid, multi-cloud and AI environments. In this article, I’ll highlight some of the key features and use cases addressed by BIG-IP Zero Trust Access. F5 BIG-IP Zero Trust Access improves security and the user experience while managing access to your portfolio of corporate applications. Demo Video What is Zero Trust? Key Zero Trust Concepts Zero Trust is a cybersecurity framework built on the following core concepts: Never Trust Similar to human concepts that trust is not given freely, it is earned Always Verify Authenticate and authorize based on all available data points Continuously Monitor Zero Trust is an ongoing security framework that requires monitoring F5 enables zero-trust architectures that optimize your investments and extend zero-trust security across your entire portfolio. Why is this important? Securing apps is complex because apps are spread across a hybrid, multi-cloud environment. Apps themselves have become hybrid in nature, too. This creates 2 problems: Legacy and custom applications can complicate access security. Apps residing anywhere increases the attack surface. F5 BIG-IP Zero Trust Access secures hybrid application access. Securely managing access to corporate applications is critical to preventing data breaches. Doing it well can also increase efficiencies in business processes and user productivity. A Zero Trust security model can deliver this business value by enabling users to seamlessly and securely access their applications from anywhere regardless of where the application resides. In today’s world of hybrid, multicloud and AI applications, Zero Trust is a must. Application access control is key to any Zero Trust architecture. How does F5 address Zero Trust? F5 Zero Trust Begins with Secure Access to All Apps. The F5 Application Delivery and Security Platform (ADSP) is the foundation for Zero Trust Architectures. F5 ADSP delivers visibility, enforcement, and intelligence where it matters most: the application layer. While there are many important components to Zero Trust, we will be focusing on Zero Trust Application Access: Identity-Aware Proxy - Secure access to apps with a fine-grained approach to user authentication and authorization that enables only per-request context- and identity-aware access. Single Sign-On (SSO) and Access Federation - Integrating with existing SSO and identity federation solutions, users can access all their business apps via a single login, regardless of if the app is SAML enabled or not. OAuth 2.0 and OIDC Support - Enable social login to simplify access authorization from trusted third-party identity providers like Google, LinkedIn, Okta, Azure AD, and others. Identity Aware Proxy (IAP) – A Key Component of Zero Trust Use the Guided Configuration to configure the Identity Aware Proxy. From the BIG-IP UI, go to Access > Guided Configuration > Zero Trust. Select the Identity Aware Proxy You will see a configuration example of Identity Aware Proxy Click Next at the bottom For the Config Properties, give it a name, “IAP_DEMO” in this example Set the below options to On Click Save & Next Enable the F5 Client Posture Check Select your CA Trust Certificate Click Add Give it a Name, “FW_Check” in this example Under Windows, select Firewall and Domain Managed Devices Enter your domain name, “f5lab.local” in this example Click Done Click Save & Next Configure the Virtual Server Properties Switch Advanced Settings to On Set the Destination Address, “10.1.10.100” in this example For the Client SSL Profile, select the Client SSL Certificate, Private Key and Trusted Certificate Authorities For the Server SSL Profile, select your Server SSL Certificate and Private Key Click Save & Next Click Add under Authentication Give it a Name, “AD” in this example Set the Authentication Type to “AAA” Set the Authentication Server Type to Active Directory Choose your Authentication Server, “ad-servers” in this example Check the box for Active Directory Query Properties Under Required Attributes, find “memberOf” and click the arrow to move it to Selected Click MFA Click Add Double click Radius Under Choose Radius Server, select Create New Give it a name, “radius_pool” in this example Enter the Server IP Address, “10.1.20.8” in this example Enter the Secret in the two fields Click Save Click Save & Next Click Add Give it a name, “basic_sso” in this example For the SSO Configuration Object, click Create New The Username Source and Password Source should be set like the following Click Save Click Save & Next Under Applications click Add Give it a name, “iap1.acme.com” in this example Under Application Properties, set the FQDN and Caption to “basic.acme.com” Set the Pool IP Address to 10.1.20.7, Port 443, HTTPS Click Save For the Auth Domain, enter “iap1.acme.com” Click Save & Next Set Primary Authentication to “AD” Click Save & Next Click Add under Contextual Access For the Contextual Access Properties, give it a name, “basic.acme.com” in this example Set the Resource to iap1.acme.com Set Device Posture to FW_CHECK Set Single Sign-On to basic_sso Find the Sales Engineering Group and click Add Select the box for Additional Checks Set the Match Action to Step Up Set Step Up Authentication to Custom Radius based Authentication Click Save & Next The Remediation Page must be changed to a real host where users can download and install the EPI updates In this example, it has been changed to “https://iap1.acme.com/epi/downloads” Click Save & Next Click Save & Next Click Deploy Click Finish when the deployment completes Test the functionality by going to a client computer and accessing https://iap1.acme.com Logon with valid credentials You should see a page like the following Click basic.acme.com Login with valid credentials & click Validate You should see the basic.acme.com web page and be already logged in Note: If you disable the Windows Firewall on the client, you should get a block page similar to the following: Conclusion BIG-IP introduces a powerful access experience. BIG-IP provides a variety of Authentication, Federation, SSO and MFA protocols allowing for modern to legacy protocol translation. BIG-IP integrates with 3 rd parties to enforce identity aware decisions. BIG-IP secures identities for any apps and users anywhere in legacy and modern environments, spanning on-prem, hybrid or cloud locations. The highly scalable and proven Access Security solution that F5 customers know and trust. Related Content Zero Trust Solution Overview Secure Corporate Apps with a Zero Trust Security Model BLOG: F5 BIG-IP Zero Trust Access Zero Trust Application Access for Federal Agencies
Update an ASM Policy Template via REST-API - the reverse engineering way
I always want to automate as many tasks as possible. I have already a pipeline to import ASM policy templates. Today I had the demand to update this base policies. Simply overwriting the template with the import tasks does not work. I got the error message "The policy template ax-f5-waf-jump-start-template already exists.". Ok, I need an overwrite tasks. Searching around does not provide me a solution, not even a solution that does not work. Simply nothing, my google-foo have deserted me. Quick chat with an AI, gives me a solution that was hallucinated. The AI answer would be funny if it weren't so sad. I had no hope that AI could solve this problem for me and it was confirmed, again. I was configuring Linux systems before the internet was widely available. Let's dig us in the internals of the F5 REST API implementation and solve the problem on my own. I took a valid payload and removed a required parameter, "name" in this case. The error response changes, this is always a good signal in this stage of experimenting. The error response was "Failed Required Fields: Must have at least 1 of (title, name, policyTemplate)". There is also a valid field named "policyTemplate". My first thought: This could be a reference for an existing template to update. I added the "policyTemplate" parameter and assigned it an existing template id. The error message has changed again. It now throws "Can't use string (\"ox91NUGR6mFXBDG4FnQSpQ\") as a HASH ref while \"strict refs\" in use at /usr/local/share/perl5/F5/ASMConfig/Entity/Base.pm line 888.". An perl error that is readable and the perl file is in plain text available. Looking at the file at line 888: The Perl code looks for an "id" field as property of the "policyTemplate" parameter. Changing the payload again and added the id property. And wow that was easy, it works and the template was updated. Final the payload for people who do not want to do reverse engineering. Update POST following payload to /mgmt/tm/asm/tasks/import-policy-template to update an ASM policy template: { "filename": "<username>~<filename>", "policyTemplate": { "id": "ox91NUGR6mFXBDG4FnQSpQ" } } Create POST following payload /mgmt/tm/asm/tasks/import-policy-template to create an ASM policy template: { "name": "<name>", "filename": "<username>~<filename>" } Hint: You must upload the template before to /var/config/rest/downloads/<username>~<filename>". Conclusion Documentation is sometimes overrated if you can read Perl. Missed I the API documentation for this endpoint and it was just a exercise for me?KASM Workspaces Integration with F5 BIG-IP Access Policy Manager (APM)
Introduction F5 BIG-IP Access Policy Manager (APM) is a key asset to securing containerized platforms like KASM Workspaces. In this article I’ll show you how to secure your Kasm Workspace using F5 BIG-IP APM. APM is a key component of the F5 Application Delivery and Security Platform (ADSP). APM covers both Application Delivery, Security and is a key component of Zero Trust. Kasm Workspaces Kasm Workspaces is a containerized streaming platform designed for secure, web-based access to desktops, applications, and web browsing. It leverages container technology to deliver virtualized environments directly to users' browsers, enhancing security, scalability, and performance. Commonly used for remote work, cybersecurity, and DevOps workflows, Kasm Workspaces provides a flexible and customizable solution for organizations needing secure and efficient access to virtual resources. As noted in the Kasm Documentation, the Kasm Workspaces Web App Role servers should not be exposed directly to the public. That’s where F5 BIG-IP APM can help. Demo Video Deployment Prerequisites F5 BIG-IP version 17.x Access version 10.x Kasm Workspaces version 1.17 installed and configured properly Configure using Automation Toolchain with AS3 and FAST Templates The F5 BIG-IP Automation Toolchain is a suite of tools designed to automate the deployment, configuration, and management of F5 BIG-IP devices. It enables efficient and consistent management using declarative APIs, templates, and integrations with popular automation frameworks. Application services (FAST) templates are predefined configurations that streamline the deployment and management of applications by providing consistent and repeatable setups. NOTE: The configuration using the Automation Toolchain is well-documented in this DevCentral article, which also includes demo videos: How I did it - “Delivering Kasm Workspaces three ways” Configure Manually Using a Virtual Server This article will focus on the manual configuration of the BIG-IP using a Virtual Server. Configuring it this way will give you a deeper understanding of how all the components work together to create a cohesive solution. Network Environment Linux “External” client IP: 10.1.10.4 BIG-IP “External” Self IP: 10.1.10.10 BIG-IP “Internal” Self IP: 10.1.20.10 Kasm Workspace IP: 10.1.20.23 BIG-IP Configuration Create HTTP Monitor: First, let’s create the HTTP Monitor for the Kasm Workspace server. From Local Traffic > Monitors > click the green plus sign to add a new one. Give it a name, “Kasm-Monitor” in this example Set the Type to HTTP Enter the following for the Send String: GET /api/__healthcheck\r\n Enter the following for the Receive String: OK It should look like this: Set Reverse to Yes and click Finished Create Pool: Next we’ll create the Pool From Local Traffic > Pools > Pool List > click the plus sign to add a new one Give it a name, “Kasm-Pool” in this example Select the Health Monitor you created previously and click the arrows to move it to Active Under Resources specify a Node Name, “Kasm-Server” in this example Specify the IP Address, “10.1.20.23” in this example Set the Service Port to 443, then click Add Click Finished Create Virtual Server: Next we’ll create the Virtual Server From Local Traffic > Virtual Servers > Virtual Server List > click the plus sign to add a new one Give it a Name, “vs_kasm” in this example. Keep the Type as Standard. Set the Destination to the IP Address you want the BIG-IP to listen on for connections to the Kasm server, “10.1.10.100” in this example. Set the Service Port to HTTPS, port 443. Click Finished at the bottom Click on the Virtual Server you just created Click Resources Set the Default Pool to kasm_pool, then click Update The Kasm Virtual Server Status should eventually change to Green when the Health Monitor is successful. NOTE: The Virtual Server configuration in this example has been simplified for demonstration purposes. Additional configuration options will be covered later in this article. Kasm Workspaces Configuration The Kasm Workspace will need a Zone configured with the default settings. Login as Admin and check this from Infrastructure > Zones. You will need at least one Workspace. In this example, I have a Workspace with Chrome, Firefox, Terminal and Ubuntu Jammy Click the WORKSPACES Tab at the top of the screen to see what the Workspace looks like Your view should look like this: Test Kasm Workspaces Login as a User NOTE: The IP Address used to connect to the Kasm Workspaces through the BIG-IP is the Virtual Server listening IP Address 10.1.10.100 When the Workspace loads, click Firefox Choose the option to Launch Session in a new Tab After a moment, Firefox will load Here you can see the F5.com website displayed NOTE: The browser pop-up blocker can prevent the Kasm Workspace applications from successfully launching. You can disable the pop-up blocker or create an exception for the BIG-IP Virtual IP (10.1.10.100). Enable SSL Decryption Enabling SSL Decryption allows you to fully inspect the requests and payloads passing through BIG-IP. From Local Traffic > Virtual Servers > click Virtual Server List Then click the name of your Virtual Server, “vs_kasm” in this example In the Configuration section, set the Protocol Profile (Client) to http Set the SSL Profile (Client) to clientssl Set the SSL Profile (Server) to serverssl NOTE: If you have created your own Client and Server SSL Profiles, you should add them here. The instructions above are for demonstration purposes only. Scroll to the bottom and click Update You’re done! Conclusion F5 BIG-IP Access Policy Manager (APM) is a key asset to securing containerized platforms like KASM Workspaces. In this article, you learned how to secure your Kasm Workspace using F5 BIG-IP APM. Related Content How I did it - “Delivering Kasm Workspaces three ways” Download Kasm Workspaces Kasm Documentation
SOLVED: sending IsCompliant, IsKnown and IsManaged via SAML (SSO)
Background We have an EntraID (Azure/Microsoft365) SAML based VPN using the APM module and were keen to provide a different device pool to domain devices, rather than personal devices (BYOD). We noted that, in the EntraID logs, it included elements such as whether the device IsCompliant, IsKnown and/or IsManaged: Wrong step first We followed part of the exceptionally good video from Matthieu Dierick (https://www.youtube.com/watch?v=DBA84d4VJU8) in which he explains how to configure InTune to make the IsCompliant assertion and push a certificate onto the device to identify it.. and then the BIG-IP Edge client will send that certificate back to be used via an API call against InTune (even if EntraID isn't used for your APM authentication). To get the API bit to function we needed to follow the guidance in https://my.f5.com/manage/s/article/K00943512 But we aren't that far down the route with InTune and, without pushing that certificate, we got the error "Device ID was not found in session variables" (as explained in https://my.f5.com/manage/s/article/K93969130 ) To get working: Azure steps It seems exporting these variables isn't natively available through the GUI although there were some pointers available from Azure AD - SAML - Intune - ismanaged attribute - Microsoft Q&A In short, Navigate to: https://portal.azure.com/ Microsoft EntraID Under Manage > App registrations (this will default to "owned application") choose "all applications" tab Filter by the name of your SAML configuration Manage > Manifest Take a copy of the manifest incase you want to revert (note that it won't let you save it unless it can parse the input) Find the section "optional claims" and inject the following after any groups you pass back: "optionalClaims": { "accessToken": [], "idToken": [], "saml2Token": [ { "additionalProperties": [ "on_premise_security_identifier" ], "essential": false, "name": "groups", "source": null }, { "additionalProperties": [ ], "essential": true, "name": "is_device_managed", "source": null }, { "additionalProperties": [ ], "essential": true, "name": "is_device_compliant", "source": null }, { "additionalProperties": [ ], "essential": true, "name": "is_device_known", "source": null } ] }, To get working: APM steps In the visual policy editor you can now assign variables to those claims of the form: session.logon.last.isknown = mcget {session.saml.last.attr.name.http://schemas.microsoft.com/201 4/02/devicecontext/claims/isknown} session.logon.last.iscompliant = mcget {session.saml.last.attr.name.http://schemas.microsoft.com/201 4/09/devicecontext/claims/iscompliant} session.logon.last.ismanaged = mcget {session.saml.last.attr.name.http://schemas.microsoft.com/201 2/01/devicecontext/claims/ismanaged} So you can end up with a variable assignment box that looks like: (just be careful with copy/paste that it doesn't introduce spaces in the session variables) Then you can do a new general purpose > empty box with a branch rule evaluating: expr {[mcget {session.logon.last.ismanaged}] == "true"} Optionally you can record the output of these variables by adding a logging box with the entry: username=%{session.logon.last.username}, ismanaged=%{session.logon.last.ismanaged}, iscompliant=%{session.logon.last.iscompliant}, isknown=%{session.logon.last.isknown}
