Turn your SaaS application into a revenue-ready offer with Microsoft Marketplace
Building a great SaaS application is just the beginning. Turning that innovation into a transactable offer requires the right approach to tenant isolation, subscription lifecycle management, billing, security, operations, and Marketplace onboarding. The Agentic Road to Revenue explores how Git-Ape SaaS skills can help software companies move from SaaS concept to a commercially ready Microsoft Marketplace offer. Follow the Contoso Outdoors journey to see how an agentic, repository-driven approach brings architecture decisions, Marketplace integration, fulfillment and metering, security, operational readiness, and Partner Center onboarding into one practical path. Whether you’re planning your first transactable SaaS offer or refining an existing Marketplace strategy, this article offers a useful blueprint for turning technical decisions into a scalable commercialization plan. Read the full article to explore the agentic path from SaaS application to Microsoft Marketplace revenue: The Agentic Road to RevenueCopilot, Microsoft 365 & Power Platform Community call
💡 Copilot, Microsoft 365 & Power Platform weekly community call focuses on different use cases and features within the Microsoft 365 and Power Platform - across Microsoft 365 Copilot, Copilot Studio, SharePoint, Power Apps and more. Demos in this call are presented by the community members. 👏 Looking to catch up on the latest news and updates, including cool community demos, this call is for you! 📅 On 17th of September we'll have following agenda: Latest on SharePoint Framework (SPFx) Latest on Copilot prompt of the week PnPjs CLI for Microsoft 365 Dev Proxy Reusable Controls for SPFx SPFx Toolkit VS Code extension PnP Search Solution Demos this time Josh Bray – Managing Power Platform Environments from SharePoint with an SPFx Web Part Yves Habersaat – Agent-Driven Power Apps: Canvas Authoring MCP Server with GitHub Copilot CLI Mohammed Amer – Build Interactive Component Components UX for Copilot canvas for Microsoft 365 Roadmap Features 📅 Download recurrent invite from https://aka.ms/community/m365-powerplat-dev-call-invite 📞 & 📺 Join the Microsoft Teams meeting live at https://aka.ms/community/m365-powerplat-dev-call-join 💡 Building something cool for Microsoft 365 or Power Platform (Copilot, SharePoint, Power Apps, etc)? We are always looking for presenters - Volunteer for a community call demo at https://aka.ms/community/request/demo 👋 See you in the call! 📖 Resources: Previous community call recordings and demos from the Microsoft Community Learning YouTube channel at https://aka.ms/community/youtube Microsoft 365 & Power Platform samples from Microsoft and community - https://aka.ms/community/samples Microsoft 365 & Power Platform community details - https://aka.ms/community/home 🧡 Sharing is caring!Microsoft Power Platform community call - September 2026
💡 Power Platform monthly community call focuses on different extensibility options for builders, makers and developers within the Power Platform. Typically demos are from our awesome community members who showcase the art of possible within the Power Platform capabilities. 👏 Looking to catch up on the latest news and updates, including cool community demos, this call is for you! 📅 On 16th of September we'll have following agenda: Power Platform Updates & Events Latest on Power Platform samples John Liu - How to easily to convert markdown documents to PDF with Power Automate Sanjiv Venkatram - Using Azure AI video analyzer + Functions + Storage & Power Platform to analyze echocardiograms Billur Şamdancıoğlu - Copilot Cowork for Dynamics 365 Finance and Operations Elliot Margot - Stop Clicking Through Run History: Build Your Own MCP to Debug Power Automate Flows 📅 Download recurrent invite from https://aka.ms/powerplatformcommunitycall 📞 & 📺 Join the Microsoft Teams meeting live at https://aka.ms/PowerPlatformMonthlyCall 💡 Building something cool for Microsoft 365 or Power Platform (Copilot, SharePoint, Power Apps, etc)? We are always looking for presenters - Volunteer for a community call demo at https://aka.ms/community/request/demo 👋 See you in the call! 📖 Resources: Previous community call recordings and demos from the Microsoft 365 & Power Platform community YouTube channel at https://aka.ms/community/videos Microsoft 365 & Power Platform samples from Microsoft and community - https://aka.ms/community/samples Microsoft 365 & Power Platform community details - https://aka.ms/community/homeCopilot, Microsoft 365 & Power Platform product updates call
💡Copilot, Microsoft 365 & Power Platform product updates call concentrates on the different use cases and features within the Microsoft 365 and in Power Platform. Call includes topics like Microsoft 365 Copilot, Copilot Studio, Microsoft Teams, Power Platform, Microsoft Graph, Microsoft Viva, Microsoft Search, Microsoft Lists, SharePoint, Power Automate, Power Apps and more. 👏 Weekly Tuesday call is for all community members to see Microsoft PMs, engineering and Cloud Advocates showcasing the art of possible with Microsoft 365 and Power Platform. 📅 On the 15th of September we'll have following agenda: News and updates from Microsoft Together mode group photo Rémi Dyon – Building an Agent with GitHub Harness in Copilot Studio Steve Pucelik + Marc Windle – Latest on SharePoint Embedded Vesa Juvonen – Surfacing your business apps in Copilot canvas – IT concierge scenario 📞 & 📺 Join the Microsoft Teams meeting live at https://aka.ms/community/ms-speakers-call-join 🗓️ Download recurrent invite for this weekly call from https://aka.ms/community/ms-speakers-call-invite 👋 See you in the call! 💡 Building something cool for Microsoft 365 or Power Platform (Copilot, SharePoint, Power Apps, etc)? We are always looking for presenters - Volunteer for a community call demo at https://aka.ms/community/request/demo 📖 Resources: Previous community call recordings and demos from the Microsoft Community Learning YouTube channel at https://aka.ms/community/youtube Microsoft 365 & Power Platform samples from Microsoft and community - https://aka.ms/community/samples Microsoft 365 & Power Platform community details - https://aka.ms/community/home 🧡 Sharing is caring!AI where and when you need it with Dragon Copilot's ability to focus
At HIMSS 2026, we showed that the most useful place to apply clinical intelligence is often not in a separate app or side window, but at the cursor, in the field where the clinician is already working. Our last post on this topic described the problem Dragon Copilot's focus capability is designed to solve: clinicians becoming data couriers, moving between windows, copying information from one system into another, and stitching together a day's work across multiple applications. That post looked ahead to what was coming. Now, it's here. What Dragon Copilot's focus capability does Dragon Copilot's focus capability brings AI directly into the text field where clinicians work, whether that's an EHR, a browser, Microsoft Word, SharePoint, or another desktop application. There is no separate application to launch and no workflow to rebuild. Simply place your cursor where you're working, select content if needed, and ask for help using natural language by voice or text. The focus capability works directly within the application you're already using, helping you stay in the flow of work. With focus, Dragon Copilot can: Read content from applications such as an EHR, browser, Microsoft Word, SharePoint, and other desktop applications. Answer questions about selected content and provide responses in context, using information from trusted sources and resources approved by the organization. Surface relevant information and insights without requiring manual searches, copying, or pasting. Generate, edit, and refine text directly where you're working. The experience is conversational and voice-first. Because the focus capability operates directly at the cursor, clinicians can take action without switching applications or rebuilding context. Questions are answered in context using information from the EHR and trusted sources, including resources approved by the organization. Focus in action The following examples illustrate how Dragon Copilot's focus capability helps clinicians read, answer, write, edit and surface information directly within their workflow. Journal and guideline Q&A Highlight a passage from a clinical guideline or journal article and ask: "Summarize the three key takeaways in patient-friendly language for the after-visit summary." The focus capability analyzes the selected content and generates a draft directly where you're working. Answer questions in context Clinicians often have the information they need in front of them but spend valuable time locating or interpreting it. Highlight relevant content and ask: "What does this recommendation mean for a patient with diabetes?" The focus capability reviews the selected information and delivers an answer within the workflow, without requiring clinicians to leave the application. The information is sourced from the EHR, a credible source such as MSD Manual, DailyMed, Medline Plus or from an organization’s internal source. Edit in place Select existing text and ask: "Convert this into a bulleted list." or "Summarize this HPI in two sentences." The focus capability reshapes the content directly where it already exists, helping clinicians refine documentation without disrupting their workflow. Surface relevant information Place your cursor inside a note and ask: "What's the patient's BMI?" The focus capability can retrieve relevant information available in context and return the answer inline, eliminating the need to navigate between screens, search for values, or perform calculations manually. Generate new content Need a referral letter, patient instruction, or summary? Simply ask. The focus capability can generate content directly within the destination field, helping clinicians create documentation where it belongs without copying and pasting between applications. Why this capability matters Bringing AI directly to the cursor is more than a convenience. It's what makes AI practical, visible, and actionable within everyday clinical workflows. Dragon Copilot's focus capability sits in a useful middle ground between ambient AI, which operates largely in the background, and traditional dictation, which requires clinicians to explicitly construct documentation themselves. Outputs are reviewable and editable before being finalized. Actions remain visible within the workflow, providing transparency and control. Clinicians can work without repeatedly navigating between applications or rebuilding context. Because the focus capability operates directly at the cursor, it creates an extensible foundation for future Dragon Copilot experiences and integrations from Microsoft and partners. When Dragon Copilot's focus capability brings AI directly to where clinicians are already working, copying, pasting, and window-switching fall away. Clinicians can access information, generate content, and take action without leaving their workflow, helping them spend less time managing technology and more time focused on patient care. Learn more about Dragon Copilot.Build an AI-assisted support email workflow with Power Automate and Microsoft Foundry
Difficulty: Intermediate A support email arrives with a product name, an error code, and a country. Before anyone can help, someone has to interpret the request, find the right team, record the case, and decide what to tell the customer. In this tutorial, you build that support email workflow with Microsoft 365, Power Automate, Azure Functions, and Microsoft Foundry. AI extracts the request details and recommends a support team. The flow checks the recommendation against a SharePoint catalog, asks a person to approve it, and creates an editable Outlook acknowledgement draft. The central design decision is who can do what: the model proposes a routing key; the flow validates it; a person approves draft creation. No customer-facing send action is included. What you will build Mina manages support operations at Aster Imaging, a fictional imaging-equipment company. Claire, a fictional distributor in France, reports error E42 on a NovaScan X2 after installing software version 4.2.1. When Mina approves the validated recommendation, the workflow produces: Input or decision Recorded result Claire's support email One case linked to its source message ID Validated AI recommendation Technical Support, NovaScan X2, France, EU Distributor Support Mina selects Approve Approval outcome and an editable acknowledgement draft Missing information, a risk flag, rejection, or timeout A case held in Needs Review The recorded approved case shows the review outcome and successful automation state: All names, products, organizations, and test messages are synthetic. This is a reference implementation for a lab, based on public support-form patterns, rather than a description of a company's internal process. Who this is for This walkthrough is for Power Platform makers and developers who can already create a cloud flow and a SharePoint list, and want to connect AI to a workflow with explicit review boundaries. You will use the Azure portal and a few terminal commands to deploy the supplied Function project. In this tutorial Architecture and resources Tutorial scope and boundaries Prerequisites Download the sample Step 1: Prepare the mailbox and SharePoint lists Step 2: Deploy and connect the AI classifier Step 3: Build and validate the support email flow Step 4: Add human approval, create a draft, and evaluate the workflow Troubleshooting Production considerations Clean up the lab Architecture and resources Workflow architecture The completed workflow follows this path: When Claire's message arrives in the shared mailbox, Power Automate first checks the message ID to avoid creating a duplicate case. It then sends the subject and body to the AI classifier. The classifier identifies the request as technical support, extracts NovaScan X2 and France , and recommends EU Distributor Support . Power Automate does not accept that recommendation without verification. It checks the structured response, confidence band, and risk flags, and confirms that the recommended routing key matches an active entry in the SupportTeams list. If the checks pass, the workflow records the case in SharePoint and asks Mina to review the recommendation. If Mina approves it, Power Automate creates an acknowledgement draft in Outlook. It does not send the message. If the recommendation has low confidence, contains a risk flag, fails validation, or is rejected by Mina, the case remains in Needs Review . Resource names To keep the steps consistent and easy to follow, this tutorial uses the resource names below. You can use different names in your environment, but keep track of the corresponding values as you work through the steps. Resource Name Power Platform environment RW Development Solution RW Global Support Intake Publisher prefix rw SharePoint site RW Lab SharePoint lists Cases , SupportTeams Shared mailbox RW Lab Support Main flow RW - Global Support Intake - v1 Azure resource group Your lab resource group; referenced as <RESOURCE_GROUP> Microsoft Foundry resource Your globally unique resource; referenced as <FOUNDRY_RESOURCE_NAME> Microsoft Foundry project The project opened in the Foundry portal; referenced as <FOUNDRY_PROJECT_NAME> Model deployment gpt-5.4-mini Azure Function App Your globally unique app; referenced as <FUNCTION_APP_NAME> Tutorial scope and boundaries This tutorial builds the workflow in stages so that each layer can be tested before the next one is introduced. Step 1 prepares the shared mailbox and SharePoint records. Step 2 deploys the AI model and exposes the bounded classifier to Power Automate. Step 3 builds the support email flow and validates normal, review, fallback, and duplicate paths before approval exists. Step 4 adds human approval and draft creation, then evaluates the completed workflow end to end. What this tutorial covers Create a shared mailbox, SharePoint case register, and allow-listed support-team catalog. Connect a bounded AI classifier that returns structured fields and an advisory routing key. Build deterministic deduplication, recommendation validation, and exception paths in Power Automate. Add a human approval checkpoint that creates an Outlook draft without sending it. Walk through three representative paths: accepted recommendation, review hold, and approval timeout. Record the remaining synthetic checks in a compact validation matrix. What is out of scope Send customer-facing email automatically. Let AI assign the final owner, approve a request, change SupportTeams , or send a message. Process real customer data, retrieve attachment contents, or scan attachments. The mailbox flow passes attachments = [] ; attachment-metadata checks are exercised only in the direct classifier tests. Merge a new follow-up email into an existing case. The duplicate guard checks the same message ID; a new reply has a different ID. Treat the prototype results as production accuracy, security, capacity, or SLA claims. Prerequisites A Microsoft 365 test tenant with Exchange Online and SharePoint Online A licensed test user who can open Outlook and SharePoint Permission to create a shared mailbox and assign mailbox delegation A Power Platform environment with Dataverse for the solution and approvals, and permission to use the Office 365 Outlook, SharePoint, Approvals, and custom connectors For a development-only lab, an eligible Power Apps Developer Plan environment; otherwise, Power Automate use rights that cover this flow and its custom connector An Azure subscription in which you can create or select a Microsoft Foundry resource, deploy a model, and create an Azure Functions app Permission to enable the Function app's managed identity and assign it the Cognitive Services OpenAI User role Node.js 22, Azure CLI, and Azure Functions Core Tools v4 on the workstation used for deployment; the tested Core Tools version is 4.0.7512 Permission to create custom connectors, connection references, environment variables, and solutions in the Power Platform environment Licensing and cost Microsoft 365 access alone does not establish entitlement to the custom connector used here. Confirm the target environment's license and data policies before building the flow. The Developer Plan includes custom connectors for development and testing; production use needs appropriate paid rights. See the Power Platform licensing FAQ. Azure model inference, Function hosting, storage, and monitoring can incur charges. Usage depends on the selected region, hosting plan, model, message size, and test volume. Check those resources in Azure Cost Management and clean up the dedicated lab resources when finished. The recorded evaluation is not a cost benchmark. Download the sample Get the companion code from the example project on GitHub. Clone the repository or download and extract the ZIP to a local folder. Use the extracted repository folder as the sample root in the commands below. The repository contains the Function source, locked dependencies, connector definition, synthetic data, setup instructions, and local tests. You build the Power Automate flow in the designer; this sample is not an importable Power Platform solution. Path from the sample root Purpose azure/global-support-classifier/ Deployable Azure Function project azure/global-support-classifier/connector/apiDefinition.swagger.json Custom connector definition; replace its sample host before import data/aster-imaging/support-teams.json Twelve sample team keys and descriptions data/aster-imaging/inquiries.json Twenty synthetic inquiries and expected results tests/aster-imaging-fixtures.test.mjs Offline dataset checks tests/global-support-classifier-regression.mjs Authenticated classifier evaluation evidence/classifier-regression-20260808.md Historical lab result and evaluation limits The model evaluation results come from the August 8, 2026 lab. This article combines recorded lab screenshots with configuration screens recaptured on September 8–9, 2026 for clearer step-by-step instructions. Recapturing a configuration screen does not verify a new workflow run. A separate single-request connector test on September 8, 2026 returned HTTP 200 and passed schema validation; its input and response are shown in Step 2. The GitHub v0.1.0 sample preserves the September 8, 2026 implementation snapshot, with repository setup documentation added on September 9. Portal labels, model availability, and quotas can differ in your tenant. Step 1: Prepare the mailbox and SharePoint lists In this step, you prepare the Microsoft 365 resources used by the workflow. The shared mailbox receives support requests, the SharePoint site provides a private workspace, the Cases list stores each request and its workflow state, and the SupportTeams list defines the support teams that the AI classifier is allowed to recommend. Services and tools used in this step Service Purpose Exchange Online Create the shared support mailbox and assign mailbox permissions. SharePoint Online Create the private team site and the Cases and SupportTeams SharePoint lists. Create the shared support mailbox The shared mailbox provides a single email address for support requests. Power Automate monitors this mailbox and starts the workflow when a new message arrives. For example, Claire sends her request to RW Lab Support , and the new message starts the support email flow. Open the Exchange admin center and go to Recipients > Mailboxes. Create a shared mailbox with these values: Display name: RW Lab Support Email alias: rw-lab-support Domain: your lab tenant's default domain Note: Creating the mailbox requires the Exchange Administrator or Global Administrator role. After creation, grant the lab user both Full Access and Send As. A Microsoft 365 license does not grant these permissions automatically. Review the current shared mailbox permissions and licensing rules before using this design in production. After the mailbox is created, delegate both permissions to the lab user: Full Access lets the user open and modify the shared mailbox. Send As lets the user create a draft using the shared mailbox address. Note: Full Access alone is not sufficient for the later draft-from-shared-mailbox step. To review delegation in the Microsoft 365 admin center, go to Teams & groups > Shared mailboxes, select RW Lab Support, and open Read and manage permissions. This is the Full Access permission described above. Select Add permissions to add the lab user. Return to the mailbox details and also configure Send as permissions for that user. Create the SharePoint site The SharePoint site provides a private workspace for the workflow's lists and case data. Keeping these resources on one site also makes permissions and ownership easier to manage. In this tutorial, RW Lab contains both the Cases list and the SupportTeams list used to process Claire's request. Open SharePoint and select Build in the left navigation. Under Start building, select Site. Then select Team site. If prompted to choose a template, select Standard team. Configure the site using the following values. Field Value Site name RW Lab Site description Synthetic global support workflow lab Group email address Accept the generated alias if it is available. Site address Confirm the generated SharePoint address. Privacy settings Private - only members can access this site Language English Important: The group email address and site address must be unique in your tenant, so SharePoint may adjust the generated values. You cannot change the site's default language after creation. The red boxes group the fields you can complete on this screen and the final Create site button. Check the generated site address separately. This annotated image uses the recorded lab screen. Select Create site, add owners or members if required, and finish the site setup. Create the Cases list The Cases list is the durable record after the flow has enough information to create a case. It stores source-message metadata, the AI proposal, the validated or fallback team, review outcome, and automation status. It does not copy the complete email body or attachments into SharePoint. For Claire's request, the flow first checks SourceMessageId , loads the active team catalog, calls the classifier, and validates the proposed routing key. It then creates one row containing the message metadata and AI result. A normal high-confidence row is updated as it moves through approval and draft creation. Low-confidence, risky, invalid-key, and classifier-unavailable requests are created directly as Needs Review . A duplicate creates no second row, and an unexpected failure before row creation appears only in the flow run history and the internal failure notification. Open SharePoint and select Build in the left navigation. Under Start building, select List, and then select Blank list. Enter Cases for Name, select RW Lab for Save to, and then select Create. SharePoint opens the new Cases list after creating it. In the Cases list, select Add column, choose the matching column type, and configure the columns shown in the following table. The Title column already exists by default; configure it as shown rather than creating another Title column. Note: In the current SharePoint interface, Text creates a single-line text column. Use Multiple lines of text for longer values such as Summary , RoutingReason , and AIProposal . Column Type Configuration Title Single line of text Required; stores the case ID SourceMessageId Single line of text Enforce unique values ReceivedAt Date and time Include time RequesterEmail Single line of text Synthetic test addresses only EmailSubject Single line of text Original subject InquiryType Choice Technical Support, Quote, Demo, Product Information, Partnership, Complaint, Other Product Single line of text AI-extracted canonical product name Country Single line of text AI-extracted country Summary Multiple lines of text AI-generated summary in plain text RecommendedRoutingKey Single line of text Routing key proposed by the AI classifier RecommendedTeam Single line of text Team name resolved from SupportTeams RoutingReason Multiple lines of text AI-provided reason for the recommendation ConfidenceBand Choice High, Medium, Low; use Low as the default for a new lab RiskFlags Multiple lines of text Risk signals returned by the classifier MissingFields Multiple lines of text Required information not found in the message AIProposal Multiple lines of text String form of the classification object, or a classifier-unavailable message ClassificationSource Single line of text Records validated recommendation, held recommendation, or classifier-unavailable fallback AssignedToText Single line of text Reviewer email resolved from SupportTeams Status Choice New, Classified, Needs Information, Awaiting Approval, Assigned, Needs Review, Failed DueAt Date and time Include time ApprovalOutcome Single line of text Approve, Reject, or Timeout ApprovalComment Multiple lines of text Plain text DraftMessageId Single line of text ID returned by the Outlook draft action AutomationStatus Choice Processing, Success, Review, Failed LastAutomationRun Date and time Include time Set SourceMessageId to enforce unique values. Power Automate also checks for the message ID before creating a row; the SharePoint constraint provides a second layer of duplicate protection. To verify the constraint, open Settings > List settings > SourceMessageId. Keep the type Single line of text, set Enforce unique values to Yes, and select OK if you changed it. Open Settings > List settings > ConfidenceBand. Enter High, Medium, and Low on separate lines, use the Drop-down menu display, and leave fill-in choices disabled. For your new list, set Default value to Low, then select OK. The existing lab default is High; use Low for a new build. Classified and Needs Information remain in the current lab list from the earlier implementation. The AI-recommendation path documented below does not write those two values. The current Catch scope also does not write Failed ; it sends an internal failure notification and terminates the run. Create a list view named Tutorial Evidence with Title, EmailSubject, Product, Country, RecommendedTeam, ConfidenceBand, Status, ApprovalOutcome, AutomationStatus, DraftMessageId, ClassificationSource, and ReceivedAt. Sort ReceivedAt newest first. Later validation steps use this view; use the row details pane for columns that do not fit on screen. Create the SupportTeams list The SupportTeams list defines the support teams or queues that the AI classifier is allowed to recommend. Power Automate uses it to validate each recommendation and resolve the reviewer and SLA target. It does not store individual team members or calculate routing from product and country. For Claire's request, the AI proposes eu_distributor_support . Power Automate confirms that this key is active and resolves it to EU Distributor Support , its reviewer, and its four-hour SLA target. Open SharePoint and select Build in the left navigation. Under Start building, select List, and then select Blank list. Enter SupportTeams for Name, select RW Lab for Save to, and then select Create. SharePoint opens the new SupportTeams list after creating it. In the SupportTeams list, select Add column, choose the matching column type, and configure the columns shown in the following table. The Title column already exists by default; configure it as shown rather than creating another Title column. Column Type Configuration Title Single line of text Display name RoutingKey Single line of text Enforce unique values TeamName Single line of text Support team name ApproverEmail Single line of text Reviewer address SLAHours Number No decimal places Active Yes/No Default Yes Important: Set RoutingKey to enforce unique values. This ensures that each AI recommendation resolves to exactly one support team. Power Automate accepts a recommendation only when the key matches an active row, then uses that row's team name, reviewer, and SLA target for the normal approval path. Open Settings > List settings > RoutingKey. Keep Single line of text, set Enforce unique values to Yes, and select OK. The September 9 lab capture below shows the existing No setting; it is a configuration gap, not the recommended setting for your new list. Add the 12 synthetic rows shown below. For closer parity with the direct evaluator, use each matching description in data/aster-imaging/support-teams.json as Title; the shorter titles below are the labels used in the original mailbox lab. The flow sends Title as the routing description, so changing it changes model input and requires a rerun. Replace each <YOUR_EMAIL> placeholder with the lab reviewer address. Title RoutingKey TeamName ApproverEmail SLAHours Active EU distributor support eu_distributor_support EU Distributor Support <YOUR_EMAIL> 4 Yes NA technical support na_technical_support NA Technical Support <YOUR_EMAIL> 4 Yes APAC distributor support apac_distributor_support APAC Distributor Support <YOUR_EMAIL> 4 Yes Software support software_support Software Support <YOUR_EMAIL> 4 Yes EU regional sales eu_regional_sales EU Regional Sales <YOUR_EMAIL> 8 Yes NA regional sales na_regional_sales NA Regional Sales <YOUR_EMAIL> 8 Yes APAC regional sales apac_regional_sales APAC Regional Sales <YOUR_EMAIL> 8 Yes Global partnerships global_partnerships Global Partnerships <YOUR_EMAIL> 8 Yes Global support global_support Global Support <YOUR_EMAIL> 8 Yes Security review security_review Security Review <YOUR_EMAIL> 1 Yes Privacy review privacy_review Privacy Review <YOUR_EMAIL> 1 Yes Safety and compliance safety_and_compliance Safety and Compliance <YOUR_EMAIL> 1 Yes Review the completed list. Confirm that all 12 rows show Active = Yes and that no RoutingKey value appears more than once. The recorded lab catalog contains 12 active teams with the routing keys and SLA hours shown above. This list view omits reviewer addresses; configure ApproverEmail for every row using your lab reviewer account. Step 2: Deploy and connect the AI classifier In Step 1, you created the shared mailbox and SharePoint lists that provide the workflow's email channel, case record, and approved support-team catalog. In this step, you add the AI classification layer. You deploy an Azure OpenAI model in Microsoft Foundry, connect it to an Azure Function, and expose the Function to Power Automate through a custom connector. For example, suppose Claire emails the shared mailbox to report that a NovaScan X2 in France shows error E42 during startup after software version 4.2.1 is installed. The classifier extracts NovaScan X2 as the product, France as the country, and technical_support as the inquiry type. It summarizes the problem, returns a high confidence band, and recommends the routing key eu_distributor_support . This result is only a proposal. The classifier cannot approve the request, assign an owner, update the case, or send email. In Step 3, Power Automate validates the proposed key against the active SupportTeams list before deciding whether the request can proceed to human approval. Services and tools used in this step Service or tool Purpose Microsoft Foundry (Azure OpenAI models) Create or select the Foundry resource and deploy the model used for classification. Azure Functions Call the model, enforce the structured response contract and guardrails, and expose a bounded HTTP endpoint. Microsoft Entra ID and Azure RBAC Allow the Function app to call the model through its managed identity. Power Automate custom connectors Make the Azure Function operation available to cloud flows. Power Platform solutions Package the custom connector, connection references, and environment variables used by the workflow. Note: The local deployment tools used in this step are Node.js 22, Azure CLI, and Azure Functions Core Tools. Create a Foundry resource and deploy the model An Azure subscription is the billing and access boundary. Inside that subscription, a Microsoft Foundry resource provides the model endpoint and quota. A Foundry project is the workspace you open in the Foundry portal, and a model deployment inside that project gives the Function app a stable deployment name to call. Creating a subscription or resource alone does not deploy a model. The tested lab uses gpt-5.4-mini , pinned to model version 2026-03-17 . It provides the structured output and instruction-following behavior needed by this bounded extraction and routing task without using a larger model for every incoming message. Sign in to the Azure portal and confirm that the correct directory and subscription are selected. Search for Microsoft Foundry, select Create, and create a Foundry resource if you do not already have one that the lab can use. Choose the target subscription and resource group, enter a globally unique resource name, select a region in which gpt-5.4-mini has quota, and keep the Standard S0 pricing tier. For a disposable lab, the basic public-network configuration is sufficient; use private networking and organization-approved controls for production. Note: You need permission to write the resource, such as Contributor or Owner, and separate model quota in the selected region. Microsoft documents the current resource fields in Create a Microsoft Foundry resource. Open the Microsoft Foundry portal and verify the directory and subscription. Select a project associated with the Foundry resource you created. If no project exists yet, create one under that resource and record its name as <FOUNDRY_PROJECT_NAME> . Enable the New Foundry experience if the portal offers the switch. On the project home page, select View deployments under Use a model. You can return to the same page later through Build > Deployments. On Deployed models, select Deploy > Deploy a base model, search for gpt-5.4-mini , and configure the deployment with the following tested values: Setting Tested value Deployment name gpt-5.4-mini Model version 2026-03-17 Deployment type Global Standard Capacity 100 thousand tokens per minute Version upgrade policy Once current version expires Content filter Microsoft.DefaultV2 Important: Capacity is quota, not a target for the tutorial. Select a lower value when your subscription has less quota; the synthetic lab traffic does not require 100K tokens per minute. If this model or version is unavailable in your region, choose an approved region or model only after confirming structured-output support, then repeat the final evaluation in Step 4 with that exact deployment. Select Deploy and wait until the deployment state is Succeeded. Record the resource endpoint and deployment name. The Function app uses the deployment name, not the catalog model label, when it constructs the request. The screenshot below is a verification view of the completed lab deployment, not the initial creation form. Optionally verify the deployed version from Azure CLI. This read-only command helps catch the common mistake of configuring the Function with a deployment that exists under another resource or subscription: az login az account set --subscription "<SUBSCRIPTION_ID>" az cognitiveservices account deployment show ` --resource-group "<RESOURCE_GROUP>" ` --name "<FOUNDRY_RESOURCE_NAME>" ` --deployment-name "gpt-5.4-mini" ` --query "{state:properties.provisioningState, model:properties.model.name, version:properties.model.version, sku:sku.name, capacity:sku.capacity}" The tested deployment returned Succeeded , model gpt-5.4-mini , version 2026-03-17 , SKU GlobalStandard , and capacity 100 . Review the current Microsoft guidance for deploying Foundry models and model version update policies because availability, quota, and portal labels can change. Create, configure, and deploy the Azure Function Create and configure the Azure resource in the portal, then use Azure Functions Core Tools to publish the tested repository project. Do not copy the individual JavaScript files into the portal editor; this project has multiple source files, locked npm dependencies, and automated tests that should remain together. In the Azure portal, select Create a resource, search for Function App, and select Create. Configure the Function app using the following tested lab values. If you already have a compatible Node.js 22 Function app, open it and continue with the identity step. Setting Tested lab value Subscription The subscription that contains the Foundry resource Resource group The lab resource group Function App name A globally unique name; record it as <FUNCTION_APP_NAME> Publish Code Runtime stack Node.js Version 22 Operating system Linux Region The lab region; the tested app uses East US 2 Hosting Consumption; the tested app uses the Y1 / Dynamic plan Note: Microsoft currently recommends Flex Consumption for new serverless Function apps. The implementation documented here was tested on Linux Consumption. If you select a different hosting plan, confirm its deployment and networking behavior before treating the tutorial results as equivalent. See Create a function app in the Azure portal. Select Review + create, select Create, and wait for the deployment to finish. Open the Function App resource and record its default host name from Overview. Under Settings > Identity, enable the system-assigned identity. On the Foundry resource, assign that identity the Cognitive Services OpenAI User role. The Function uses DefaultAzureCredential ; it does not store an Azure OpenAI API key. See the Microsoft guidance for managed identities in Azure Functions and Azure OpenAI role assignment. Under the Function app's environment variables or configuration settings, add these values: Setting Value AZURE_OPENAI_ENDPOINT Azure OpenAI endpoint, typically https://<FOUNDRY_RESOURCE_NAME>.openai.azure.com AZURE_OPENAI_DEPLOYMENT gpt-5.4-mini AZURE_OPENAI_API_VERSION 2024-10-21 Keep Show values disabled while capturing or sharing this page. The list should show the three setting names without exposing their values. Note: These are Azure Function app settings. They are separate from the rw_* Power Platform solution environment variables created later in this step. Download or clone the GitHub sample, open a terminal at the sample root, and move to the Function project: cd azure/global-support-classifier Verify the local tool versions, install the locked dependencies, and run the Function tests: node --version func --version npm ci npm test The tested deployment uses Node.js 22 and Azure Functions Core Tools 4.0.7512 . If func is not available, install a supported Core Tools v4 release by following the Core Tools installation guidance. In src/functions/classifySupportInquiry.js , locate buildAzureRequest and confirm that the GPT-5 request uses max_completion_tokens = 1100 and reasoning_effort = none . Do not add temperature or the older max_tokens field. GPT-5 reasoning models count reasoning and visible output against the completion-token budget; Microsoft documents the compatible parameters in Use reasoning models. Sign in with az login , select the intended subscription with az account set --subscription <SUBSCRIPTION_ID> , and confirm it with az account show --query name -o tsv . From the Function project directory, publish the complete project to the Function app: func azure functionapp publish <FUNCTION_APP_NAME> --javascript The --javascript option is explicit because automatic language detection did not identify this repository project during the tested publish. A successful publish reports Deployment completed successfully , synchronizes the classifySupportInquiry trigger, and prints its invoke URL. Core Tools packages and deploys the complete project from the current directory; review the Core Tools publishing guidance before using another hosting plan. Return to the Function App Overview page and confirm that classifySupportInquiry appears as an enabled HTTP function. This screen is meaningful only after the Core Tools publish succeeds. Define the response contract Open azure/global-support-classifier/src/functions/classifySupportInquiry.js and locate classificationSchema . Confirm that every property is required, bounded values use enumerations, and additionalProperties is false . Confirm that a successful call returns version 2.0 of this contract: { "schemaVersion": "2.0", "classification": { "inquiryType": "technical_support", "product": "NovaScan X2", "serialNumber": "NSX2-2407138", "country": "France", "organization": null, "urgency": "normal", "language": "en", "summary": "NovaScan X2 shows error E42 during startup after version 4.2.1.", "missingFields": [], "evidence": [ "NovaScan X2 serial NSX2-2407138", "error E42 during startup", "software version 4.2.1" ], "confidenceBand": "high", "riskFlags": [], "recommendedRoutingKey": "eu_distributor_support", "routingReason": "Technical support for NovaScan X2 in France routes to EU distributor support." } } Confirm that the contract includes recommendedRoutingKey , routingReason , and riskFlags . Power Automate stores all three and validates the key before resolving a team. Treat confidenceBand as a workflow category rather than a calibrated probability. Allow only high , medium , or low , and bound the risk values to prompt injection, unsupported attachment, privacy, safety, non-English, multiple-intent, low-confidence, and invalid-key signals. Supply the active team catalog with each request Open azure/global-support-classifier/connector/apiDefinition.swagger.json . Confirm that it is an OpenAPI 2.0 definition and that the request includes routingOptionsJson . Confirm that Power Automate will serialize each active catalog entry with this shape. The example below shows one of the 12 rows: [ { "routingKey": "eu_distributor_support", "teamName": "EU Distributor Support", "description": "Technical support for NovaScan products in Europe." } ] In classifySupportInquiry.js , confirm that the Function parses routingOptionsJson before constructing the model request. This string boundary avoids a Power Automate custom-connector metadata issue with arrays of objects; the model still receives a structured routingOptions array. Apply deterministic post-processing after the model response: detects prompt-injection phrases and unsafe attachment extensions; forces safety, privacy, and security signals to the corresponding review key when that key is active; removes a missing software version or screenshot flag when the source message contains that evidence; changes an unknown product-and-country result to low confidence; marks a recommendation invalid when its key is not in the supplied active catalog. Keep the Function advisory. These controls constrain the proposal, but Power Automate still performs the operational validation and assignment. The active destinations, reviewers, and SLA values live in SharePoint. The sample still encodes product/country routing precedence in the system prompt and post-processing code; changing that policy requires a code review and regression run as well as any catalog update. Keep attachment retrieval disabled for this version. The classifier supports attachment metadata and its direct regression tests exercise unsupported-attachment detection, but the live flow passes an empty attachments array and therefore does not inspect or block attachments. Create the custom connector Two different authentication boundaries are involved. The Function app calls Microsoft Foundry with its managed identity, so it stores no Azure OpenAI key. Power Automate calls the Function endpoint with x-functions-key ; that Function host key is not an Azure OpenAI key. Open azure/global-support-classifier/connector/apiDefinition.swagger.json from the sample root. Before importing the connector, replace its host value with <FUNCTION_APP_NAME>.azurewebsites.net . Keep basePath set to /api , the scheme set to https , and the operation ID set to ClassifySupportInquiryV3 . In Power Automate, select the RW Development environment. Open More > Discover all, find Data, and select Custom connectors. Select New custom connector > Import an OpenAPI file, enter RW Support Classifier , and upload apiDefinition.swagger.json . In the connector wizard, review General, Security, and Definition in order. On General, confirm HTTPS, your Function app's host name, and Base URL = /api, then select Security. Confirm API Key, Parameter label = Function key, Parameter name = x-functions-key, and Parameter location = Header. Select Definition and open Classify a support inquiry. Under Request, confirm POST, your Function URL ending in /api/classify-support-inquiry, and the required body parameter imported from the OpenAPI file. Continue with the response check below before creating the connector. The screenshots show an existing connector, whose toolbar displays Update connector instead of Create connector. Scroll farther down to Response and open 200 (Structured candidate fields). Confirm that References Used includes ClassifierResponse and Classification, and that Body exposes fields such as confidenceBand, routingReason, and schemaVersion. Select Back to return to the action definition, then select Create connector (or Update connector when modifying an existing connector). This screen checks the imported response definition; step 4 creates the authenticated connection and tests a real request. In the Azure portal, open the Function App's App keys page and create or copy a dedicated host key for this lab connection. Return to the connector's Test page, select New connection, enter that Function host key, and create the connection. Select the new connection (or your existing lab connection) and refresh the connection list if necessary. Under ClassifySupportInquiryV3, turn Raw Body on and paste the JSON below. Keep attachments as an empty array and routingOptionsJson as a JSON-encoded string. Select Test operation. In Response, confirm Status (200), schemaVersion = 2.0, a classification object, and Schema validation > Validation succeeded. Microsoft documents the current import and test flow in Create a custom connector from an OpenAPI definition. { "subject": "NovaScan X2 error E42 - France", "body": "NovaScan X2 serial NSX2-2407138 shows error E42 during startup after software version 4.2.1 was installed.", "from": "claire.martin@alpine-distribution.example.test", "attachments": [], "routingOptionsJson": "[{\"routingKey\":\"eu_distributor_support\",\"teamName\":\"EU Distributor Support\",\"description\":\"Technical support for NovaScan products in Europe.\"}]" } Important: The Function key belongs in the secure Power Platform connection. Do not put it in a text environment variable, flow action, screenshot, or source file. The September 8, 2026 request returned technical_support, France, confidenceBand = high, no risk flags, and recommendedRoutingKey = eu_distributor_support. This verifies one connector request; the flow still needs to apply its acceptance gate and obtain human approval. Add the components to the solution Open Solutions and create RW Global Support Intake . Create or select a publisher with prefix rw so the environment-variable schema names below match. Open the solution, select Objects, and use the object-type tree to review its components. Select Add existing, add the RW Support Classifier custom connector, and confirm that Custom connectors (1) appears in the object tree. Select New > More > Connection Reference and create these four named references: Office 365 Outlook SharePoint Standard approvals RW Support Classifier Select New > More > Environment variable and create these five variables: Display name Example schema name Current value Support Mailbox rw_SupportMailbox Shared mailbox address SharePoint Site URL rw_SharePointSiteURL RW Lab site URL Default Approver Email rw_DefaultApproverEmail Lab reviewer address Cases List Name rw_CasesListName Cases Support Teams List Name rw_SupportTeamsListName SupportTeams In Objects, select Connection references, Custom connectors, and Environment variables in turn. Confirm that the four required references, one connector, and five variables are present before creating the flow. The lab solution contains the four required connector types and additional automatically generated Outlook and SharePoint references. Match each flow action to its intended connection; the extra rows are not additional connector types to create. The five variables in the table are present. Routing Rules List Name is retained from an earlier lab design and is not required by this AI-recommendation workflow. Step 3: Build and validate the support email flow In this step, you build the flow that turns the bounded AI output from Step 2 into a validated recommendation. The flow checks duplicates, resolves an active team, applies the acceptance gate, and records uncertain or unavailable-classifier requests for human review. You then test both the normal validation path and the exception paths before adding approval in Step 4. Services and tools used in this step Service or tool Purpose Power Automate Build the automated cloud flow, scopes, conditions, and state transitions. Office 365 Outlook connector Start the flow when a message arrives in the shared mailbox. SharePoint connector Check for duplicates, load active support teams, and create review or fallback case rows. RW Support Classifier custom connector Send the message and active routing catalog to the Azure Function classifier. Create and configure the flow Use the action names shown below before writing expressions. In expression references, spaces become underscores: GetItems ExistingCase is referenced as GetItems_ExistingCase . Rename the custom connector action Classify Support Inquiry so its reference is Classify_Support_Inquiry . Select the matching dynamic-content token if your designer generated a different internal name. Enter formulas in the Expression editor without a leading @ . Values containing @{...} below are inline expressions in a text field. In this lab, enter the documented SharePoint list names directly in the connector; the list-name environment variables record configuration but are not automatically substituted into every action. Open RW Global Support Intake , select Objects > New > Automation > Cloud flow > Automated, and create RW - Global Support Intake - v1 . Add When a new email arrives in a shared mailbox (V2) and configure the trigger: Trigger field Value Original Mailbox Address rw_SupportMailbox current value Folder Inbox Importance Any Only with Attachments No Include Attachments No In Trigger NewSharedMailboxEmail > Parameters, select your shared mailbox under Original Mailbox Address. Open Advanced parameters to expose the four settings shown above: Importance = Any, Only with Attachments = No, Include Attachments = No, and Folder = Inbox. The September 9 lab capture displays an onmicrosoft.com address in the mailbox picker; select the mailbox you configured in Step 1 rather than copying the lab address. Open the trigger's Settings, turn on Concurrency Control, and set Degree of Parallelism to 1 . This serializes the lab runs, including time spent waiting for approval. A pending approval can delay the next email for 30 minutes. Use this setting for controlled tests; a design that processes new emails separately from approvals is needed before evaluating throughput. The current designer labels the concurrency switch Limit. The screenshot was captured at 125% browser zoom and cropped to the settings panel so the switch and value remain readable. After the trigger, select Add an action > Variable > Initialize variable for each row below. Keep every initializer above the Try scope and in the listed order: Variable Type Initial value CaseId String concat('AST-',formatDateTime(utcNow(),'yyyyMMdd'),'-',toUpper(substring(guid(),0,8))) InquiryType String Empty Product String Empty Country String Empty RecommendedTeam String Global Support ApproverEmail String rw_DefaultApproverEmail current value SLAHours Integer 8 RecommendedRoutingKey String Empty RoutingReason String Empty ConfidenceBand String Empty RiskFlags String Empty MissingFields String Empty For CaseId, enter the expression from the table through the Value field's expression editor, then select Add (or Update when editing an existing expression). The purple concat(...) token confirms that Value contains an expression. Select that token to reopen and check the full formula, as shown above. For SLAHours, set Name = SLAHours, Type = Integer, and Value = 8, as shown below. The other eleven variables in the table use String. Repeat the same Name, Type, and Value fields for each variable; where the table says Empty, leave Value blank. Keep all twelve initializers between the trigger and Scope Try. Compare the action order in these two views. The first red box contains CaseId through ApproverEmail; the second continues with SLAHours through MissingFields. Keep all twelve initializers outside and before Scope Try. These configuration views show placement; use the table above for each variable's type and initial value. Select Add an action > Control > Scope twice. Rename the first scope Scope Try and the second Scope Catch . On Scope Catch , select Configure run after and select has timed out, is skipped, and has failed for Scope Try . Inside Catch, add Send an email (V2) to the default approver with the CaseId and workflow run name, followed by Terminate with Status = Failed, Code = RW_INTAKE_FAILED , and an internal-only error message. In the current designer, open Settings > Run after, then expand Scope Try to reveal its result checkboxes. Leave Is successful unchecked. These are alternative results: any one of the three selected results allows Catch to run. Open SendEmail InternalFailure > Parameters. Set To to your internal default approver. In Subject, enter [RW Support Flow] Failed run followed by the CaseId variable token. In Body, write a short failure notice, add the CaseId token, and insert the expression workflow()?['run']?['name'] for the run reference so the reviewer can locate the failed run. For a new build, enter ordinary text in the rich-text Body editor, such as The support email flow failed., followed by the case ID, run reference, and Review the flow run before retrying. Do not paste HTML tags into the rich-text editor. The recorded configuration below contains escaped HTML tags as literal text; this is an existing formatting issue, not the recommended body format. This capture documents the saved inputs; the flow was not changed or rerun. Select Terminate Failed > Parameters and set Status to Failed and Code to RW_INTAKE_FAILED . For Message, use Global Support Intake failed; see the internal notification for the run reference. The canvas on the right shows where this action belongs: immediately after the internal notification inside Scope Catch. Note: The current Catch scope sends an internal notification and fails the run. It does not create a new Cases row or update an existing row to Failed. Add the duplicate guard Inside Scope Try , add SharePoint > Get items and rename it GetItems ExistingCase . Get items field Value Site Address rw_SharePointSiteURL current value List Name Cases Filter Query SourceMessageId eq '@{triggerOutputs()?['body/id']}' Top Count 1 In GetItems ExistingCase > Parameters, choose your site and the Cases list. Under Advanced parameters, enable Filter Query and Top Count. Keep the trigger's Message Id token inside the single quotes in the filter, and enter 1 for Top Count, as highlighted in this September 9 configuration capture. Add Data Operation > Compose, rename it Compose ExistingCaseCount , and use length(body('GetItems_ExistingCase')?['value']) . Open the Inputs expression editor in Compose ExistingCaseCount, enter length(body('GetItems_ExistingCase')?['value']), and apply it. This September 9 capture shows the existing expression opened for inspection, so the button is labeled Update. 3. Add a Condition, rename it Condition Duplicate , and test whether the Compose output is greater than 0 . In Condition Duplicate > Parameters, select Outputs from Compose ExistingCaseCount on the left, choose is greater than, and enter 0 on the right. The operator menu is open in this September 9 capture so its full label is visible. 4. In the True branch, add Terminate with Status = Succeeded. Leave case creation out of this branch. Build the remaining email-processing actions in the False branch. Place Terminate Duplicate in the True branch and set Status to Succeeded. Continue with GetItems ActiveSupportTeams and Select RoutingOptions in the False branch. This September 9 configuration capture shows both paths beside the termination setting. Load the catalog and call the classifier In the duplicate condition's False branch, add SharePoint > Get items and rename it GetItems ActiveSupportTeams . Get items field Value Site Address rw_SharePointSiteURL current value List Name SupportTeams Filter Query Active eq 1 Top Count 100 Select SupportTeams as the list. Under Advanced parameters, set Filter Query to Active eq 1 and Top Count to 100. This September 9 capture shows the active catalog query. Add Data Operation > Select, rename it Select RoutingOptions , set From to the value output from GetItems ActiveSupportTeams , and create this mapping: Key Value routingKey item()?['RoutingKey'] teamName item()?['TeamName'] description item()?['Title'] Use value from GetItems ActiveSupportTeams for From. Map routingKey to RoutingKey, teamName to TeamName, and description to Title. This September 9 capture shows the dynamic-content version of the expressions above. Add a Control > Scope, rename it Scope AI Recommendation , and place RW Support Classifier > Classify support inquiry inside it. Rename the classifier action Classify Support Inquiry and configure it: Input Value subject Subject from the mailbox trigger body Body from the mailbox trigger from From from the mailbox trigger attachments Empty array [] routingOptionsJson string(body('Select_RoutingOptions')) Select Subject, Body, and From from the mailbox trigger. Expand Advanced parameters to show from and attachments; keep the attachments array empty by adding no items. The September 9 designer labels these inputs with a Body/ prefix. For Body/routingOptionsJson, open the expression editor and enter string(body('Select_RoutingOptions')). Apply the expression with Add, or Update when editing an existing value as shown here. This converts the Select output array into the string expected by the connector. After the AI scope, add a Condition named Condition AIRecommendationAvailable . Use Configure run after so the condition runs when the AI scope succeeds, fails, is skipped, or times out. The True path is actions('Scope_AI_Recommendation')?['status'] equals Succeeded ; use the False path for the classifier-unavailable case. Open Settings > Run after, expand Scope AI Recommendation, and select all four statuses: Is successful, Has timed out, Is skipped, and Has failed. This September 9 configuration lets the next condition evaluate the AI scope even when the classifier is unavailable. Return to Parameters. In the left field, use the expression actions('Scope_AI_Recommendation')?['status']; select is equal to and enter Succeeded on the right. The empty row underneath is the designer's next-row placeholder. The True branch handles a successful AI call; the False branch handles an unavailable classifier. Validate the returned recommendation In the AI-available True branch, add Set variable actions in this order: Variable Value InquiryType Use the enum-to-choice mapping immediately below; unmatched values become Other Product coalesce(body('Classify_Support_Inquiry')?['classification']?['product'],'') Country coalesce(body('Classify_Support_Inquiry')?['classification']?['country'],'') RecommendedRoutingKey body('Classify_Support_Inquiry')?['classification']?['recommendedRoutingKey'] RoutingReason body('Classify_Support_Inquiry')?['classification']?['routingReason'] ConfidenceBand if(equals(body('Classify_Support_Inquiry')?['classification']?['confidenceBand'],'high'),'High',if(equals(body('Classify_Support_Inquiry')?['classification']?['confidenceBand'],'medium'),'Medium','Low')) RiskFlags join(body('Classify_Support_Inquiry')?['classification']?['riskFlags'],'; ') MissingFields join(body('Classify_Support_Inquiry')?['classification']?['missingFields'],'; ') For Set InquiryType , select the InquiryType variable, open the Value expression editor, and paste the following mapping. The recorded flow uses nested if expressions in this action: if(equals(body('Classify_Support_Inquiry')?['classification']?['inquiryType'],'technical_support'),'Technical Support', if(equals(body('Classify_Support_Inquiry')?['classification']?['inquiryType'],'quote_request'),'Quote', if(equals(body('Classify_Support_Inquiry')?['classification']?['inquiryType'],'demo_request'),'Demo', if(equals(body('Classify_Support_Inquiry')?['classification']?['inquiryType'],'product_information'),'Product Information', if(equals(body('Classify_Support_Inquiry')?['classification']?['inquiryType'],'partnership'),'Partnership', if(equals(body('Classify_Support_Inquiry')?['classification']?['inquiryType'],'complaint'),'Complaint','Other')))))) Select Add for a new expression, or Update when editing an existing one. The mapping is: Classifier value SharePoint Choice label technical_support Technical Support quote_request Quote demo_request Demo product_information Product Information partnership Partnership complaint Complaint Default, including other Other Add SharePoint > Get items, rename it GetItems RecommendedSupportTeam , and configure it: Get items field Value Site Address rw_SharePointSiteURL current value List Name SupportTeams Filter Query RoutingKey eq '@{variables('RecommendedRoutingKey')}' and Active eq 1 Top Count 1 Open GetItems RecommendedSupportTeam > Parameters. Select your SharePoint site and SupportTeams list. Under Advanced parameters, show Filter Query and Top Count. Insert the RecommendedRoutingKey variable between single quotes in the filter, retain and Active eq 1, and set Top Count to 1. Add Compose, rename it Compose TeamMatchCount , and use length(body('GetItems_RecommendedSupportTeam')?['value']) . In Compose TeamMatchCount > Parameters > Inputs, open the Expression editor and enter the expression above. Select Add for a new expression, or Update when editing an existing one. The result counts the rows returned by GetItems RecommendedSupportTeam. 4. Add Condition RecommendationAccepted and require every gate below: The acceptance gate requires all five checks: team match count = 1 AND ConfidenceBand = High AND riskFlags length = 0 AND missingFields length = 0 AND RecommendedRoutingKey is not empty Open Condition RecommendationAccepted > Parameters and use And to require all five checks. The September 9 lab screen above uses a team count greater than 0; the expression below uses a count equal to 1. With Top Count = 1, these checks have the same result, and neither detects duplicate catalog rows: enforce the unique RoutingKey constraint in SharePoint. The final empty row is the designer's next-row placeholder. Use this expression for the gate and compare its output with the Boolean true : and( equals(outputs('Compose_TeamMatchCount'),1), equals(variables('ConfidenceBand'),'High'), empty(body('Classify_Support_Inquiry')?['classification']?['riskFlags']), empty(body('Classify_Support_Inquiry')?['classification']?['missingFields']), not(empty(variables('RecommendedRoutingKey'))) ) Enable the unique RoutingKey constraint before relying on one returned row as an unambiguous match. The September 9 configuration check found this constraint disabled in the existing lab. Its recorded results therefore do not demonstrate protection against duplicate catalog keys; the new-build instructions in Step 1 require that protection. The model's confidence category is not a calibrated probability. Also, this sample holds every non-empty risk list, including product-alias and non-English flags. Those flags do not all indicate danger; the broad hold is a conservative lab policy with a review-volume tradeoff. In the accepted True branch, set RecommendedTeam to first(body('GetItems_RecommendedSupportTeam')?['value'])?['TeamName'] , ApproverEmail to first(body('GetItems_RecommendedSupportTeam')?['value'])?['ApproverEmail'] , and SLAHours to int(first(body('GetItems_RecommendedSupportTeam')?['value'])?['SLAHours']) . Leave space after these actions; Step 4 adds case creation, approval, and draft creation to this branch. In the False branch, add SharePoint > Create item named CreateItem NeedsReview . Store the AI fields, set Status = Needs Review, AutomationStatus = Review, and ClassificationSource = AI recommendation held for human review . Do not add an approval action. In the AI-available condition's False branch, add Create item named CreateItem ClassifierUnavailable . Use the fallback Global Support values, set InquiryType = Other, ConfidenceBand = Low, Status = Needs Review, AutomationStatus = Review, AIProposal = AI classifier unavailable or returned an invalid response. , and ClassificationSource = Classifier unavailable / human review . In CreateItem ClassifierUnavailable, set Summary to the mailbox trigger's Subject. The red boxes below show the fallback fields in the existing action. Under Advanced parameters, also add ConfidenceBand Value and select Low explicitly. The captured action omits that field and therefore inherits the existing list default, High; the screenshot does not show the recommended Low setting. Leave other classifier-derived fields empty and do not reference the failed classifier action's body. The matched SupportTeams row supplies RecommendedTeam, ApproverEmail, and SLAHours on the accepted recommendation path. Review rows created in this step store the AI reason and proposal; Step 4 stores the same evidence when it creates an accepted case. In both paths, the active catalog remains the operational allow-list. The current flow also initializes fallback values before the Try scope: Global Support , the default approver, and an eight-hour SLA. An invalid-key or classifier-unavailable review case can therefore retain fallback reviewer and SLA values without resolving a matching SupportTeams row. This is the actual lab behavior, not an additional validated assignment. Map the case fields consistently Use the following mapping on both review-case creation actions and on CreateItem Case in Step 4. Then apply each branch's Status, AutomationStatus, ClassificationSource, and AIProposal values. For the unavailable-classifier branch, use the trigger Subject for Summary, leave other classifier-derived fields empty, and write the explicit fallback message; do not reference the failed action's body. Cases field Value Title variables('CaseId') SourceMessageId Message Id dynamic content from the trigger, the same value used by the duplicate guard ReceivedAt Date Time Received dynamic content from the trigger RequesterEmail Sender's email address from the trigger, without the display name EmailSubject Subject from the trigger InquiryType, Product, Country Corresponding variables; fallback InquiryType is Other RecommendedRoutingKey, RoutingReason, RiskFlags, MissingFields Corresponding variables ConfidenceBand Corresponding variable, or explicit Low for classifier unavailable RecommendedTeam variables('RecommendedTeam') for accepted and classifier-unavailable cases; use the branch-specific expression below for NeedsReview AssignedToText variables('ApproverEmail') DueAt addHours(utcNow(),variables('SLAHours')) Summary body('Classify_Support_Inquiry')?['classification']?['summary'] when available AIProposal string(body('Classify_Support_Inquiry')?['classification']) when available LastAutomationRun utcNow() For CreateItem NeedsReview, set RecommendedTeam to if(greater(outputs('Compose_TeamMatchCount'),0),first(body('GetItems_RecommendedSupportTeam')?['value'])?['TeamName'],'Unvalidated recommendation') . This preserves the catalog team name when a match exists and records Unvalidated recommendation when none exists. The review branch does not run the accepted branch's Set ApproverEmail or Set SLAHours actions, so AssignedToText and DueAt retain the initialized default reviewer and eight-hour SLA. A displayed catalog team name does not mean the recommendation passed the acceptance gate. This mapping was checked in the existing configuration; no new run was performed. On every later Update item, use the ID returned by that branch's Create item and preserve Title = CaseId. Do not accidentally use the source email ID as the SharePoint item ID. DueAt is a simple target timestamp from processing time; this tutorial does not implement business calendars or SLA escalation. Check the flow Save the flow. Open Flow checker and resolve every reported error or warning before testing. At this stage, Flow checker should report zero errors and zero warnings before you send the validation messages: The highlighted toolbar button opens Flow checker. This designer check reports zero errors and warnings in the captured flow; it does not verify approval delivery, mailbox access, or runtime outcomes. Validate those paths with the test cases below. Test the normal validation path Send this complete synthetic inquiry to the shared mailbox: Subject: NovaScan X2 error E42 - France - software version 4.2.1 Hello Aster Support, We are a distributor in France. NovaScan X2 serial NSX2-2407138 shows error E42 during startup after installing software version 4.2.1. We captured the error screenshot. Regards, Claire In Power Automate, open Solutions > RW Global Support Intake > Objects > Cloud flows > RW - Global Support Intake - v1. Under 28-day run history, select the new run and confirm that the duplicate guard, classifier, active-team lookup, and Condition RecommendationAccepted succeeded. Inspect the classifier and variable actions in the run. Confirm that the flow produced Technical Support, NovaScan X2, France, High confidence, no risk flags or missing fields, eu_distributor_support , and a successful match to EU Distributor Support. Confirm that the acceptance condition followed its True branch. At this point, the flow has validated the recommendation but has not created the accepted case or approval request. Step 4 adds those actions to the True branch. This separation lets you verify the routing boundary before introducing consequential workflow actions. Test one representative review path A green normal run does not prove that uncertainty is held safely. Use one intentionally incomplete message to exercise the review boundary without repeating every exception as a full walkthrough. Send this intentionally incomplete message to the shared mailbox: Subject: Help needed - low confidence routing test A device stopped working somewhere. Please route this request. Open RW Lab > Cases > Tutorial Evidence, locate the newly created row by its subject and received time, and record its generated CaseId. Confirm that Product and Country are empty, RecommendedTeam = Global Support, ConfidenceBand = Low, RiskFlags = Low confidence, and Status = Needs Review. Open the corresponding flow run, expand the action groups, and confirm that Condition RecommendationAccepted followed the False branch and CreateItem NeedsReview succeeded. The screenshot below shows a separate prompt-injection case held in review. It illustrates the risk-flag gate, rather than the incomplete-message test just described. Your generated CaseIds will be different. Record the remaining Step 3 checks Run the remaining checks separately, but summarize them rather than repeating the same send–open run–open row sequence. Record both the validation surface and the observed boundary: Check Validation surface Observed boundary Structured prompt-injection risk Live mailbox and flow run Security Review recommendation remained Needs Review because riskFlags was non-empty. Azure content filter or invalid classifier response Live mailbox and flow run CreateItem ClassifierUnavailable stored the fallback proposal and Needs Review / Review . Invalid routing key Function test plus flow-gate inspection invented_team was forced to Low confidence; a zero-row team lookup cannot pass the acceptance gate. Duplicate message ID Resubmitted completed run Terminate Duplicate succeeded and no second Cases row was created. Note: Historical screenshots may show High on a classifier-unavailable row because the original list defaulted to High. The instructions above explicitly use Low for new fallback rows. ClassificationSource identifies the unavailable-model case; Low here is a conservative fallback value, not a model assessment. Step 4: Add human approval, create a draft, and evaluate the workflow In this step, you complete the accepted recommendation path. A reviewer decides whether to accept the proposed team, and an approval may create an editable acknowledgement draft, but no branch sends that draft to the requester. You walk through the approved path and the actual PT30M timeout boundary, then summarize the remaining stateful checks and classifier evaluation. Services and tools used in this step Service or tool Purpose Power Automate and Approvals Present the AI recommendation to the reviewer and branch on the human decision. SharePoint connector Create the accepted case and update its approval and automation states. Office 365 Outlook connector and Outlook Create an editable acknowledgement draft and confirm that no message was sent automatically. Azure Functions and Microsoft Foundry Run the authenticated classifier evaluation against the deployed implementation. Note: The local evaluation tools used later in this step are Node.js 22 and PowerShell. Configure approval and case-state updates In the accepted-recommendation branch, add SharePoint > Create item and rename it CreateItem Case . Map the trigger metadata and classifier fields to the corresponding Cases columns, then set these operational fields: Cases field Value RecommendedTeam RecommendedTeam variable AssignedToText ApproverEmail variable DueAt addHours(utcNow(),variables('SLAHours')) AIProposal string(body('Classify_Support_Inquiry')?['classification']) ClassificationSource AI recommendation validated by SupportTeams Status New AutomationStatus Processing Open CreateItem Case > Parameters and select your SharePoint site and Cases list. Under Advanced parameters, set Title to the CaseId variable. Select Message Id, From, and Subject from the mailbox trigger for SourceMessageId, RequesterEmail, and EmailSubject, respectively. Continue with the classifier and operational fields in the tables above. Scroll down within CreateItem Case > Parameters. Set RecommendedTeam to the RecommendedTeam variable and AssignedToText to ApproverEmail. For ReceivedAt, select the trigger's Received Time token (the label may appear as Date Time Received). Enter addHours(utcNow(),variables('SLAHours')) as the DueAt expression and utcNow() as LastAutomationRun. Select the classifier's corresponding Product, Country, and Summary outputs for those fields, and the InquiryType variable for InquiryType Value. Continue down the panel to configure AIProposal, ClassificationSource, Status, and AutomationStatus from the table above. Continue down CreateItem Case > Parameters. Set Status Value to New and AutomationStatus Value to Processing. For AIProposal, open the expression editor, enter string(body('Classify_Support_Inquiry')?['classification']), and select Add (or Update for an existing expression). This stores the classifier's classification object as text. The collapsed token in the screenshot displays string(...); select it to inspect the full expression. Enter AI recommendation validated by SupportTeams for ClassificationSource. Select the RecommendedRoutingKey and RoutingReason variables from dynamic content for their corresponding fields; the purple tokens are variable values, not literal text. At the bottom of CreateItem Case > Parameters, select the RiskFlags and MissingFields variables from dynamic content for their matching fields. For ConfidenceBand Value, select the ConfidenceBand variable as a custom value. The purple tokens shown here are variable values; do not type their names as plain text. This screenshot belongs to the accepted-recommendation branch. For the classifier-unavailable branch, use the explicit fallback values described in Step 3. Add SharePoint > Update item named UpdateItem AwaitingApproval . Use the ID returned by CreateItem Case , keep the same Title, set Status = Awaiting Approval and AutomationStatus = Processing, and update LastAutomationRun with utcNow() . Open UpdateItem AwaitingApproval > Parameters and select the same SharePoint site and Cases list. Select ID from CreateItem Case for Id. Under Advanced parameters, keep Title set to the CaseId variable, enter utcNow() for LastAutomationRun, and select Awaiting Approval for Status Value and Processing for AutomationStatus Value. This records the waiting state before the approval request starts. Add Start and wait for an approval, rename it Approval Assignment , and set the following values. Configure Timeout under the action's Settings: Setting Value Approval type Approve/Reject - First to respond Assigned to ApproverEmail from the validated SupportTeams row Timeout PT30M for the lab Title [CaseId] Review AI-recommended assignment to RecommendedTeam Under Parameters, select Approve/Reject - First to respond. Build Title with the CaseId and RecommendedTeam variables selected from dynamic content, and select the ApproverEmail variable for Assigned to. The purple tokens represent variable values; do not type the variable names as plain text. Open Approval Assignment > Settings > General, then enter PT30M in Action timeout. This sets the approval wait to 30 minutes. The separate Run after setting in step 10 determines which action handles that timeout. Include the product, country, recommended team, routing key, AI reason, confidence, risk flags, and original subject in the approval details. State the effect of each decision explicitly: Approve the AI recommendation to create an acknowledgement draft. Reject to keep the case in human review. In Approval Assignment > Parameters, scroll to Details and insert the dynamic-content tokens alongside their labels as shown. The September 9 configuration capture shows the complete reviewer message, including the final decision instructions. After the approval action, add a Condition named Condition Approved . Keep run after = is successful only and test body('Approval_Assignment')?['outcome'] equals Approve . The timeout path in step 10 must be a parallel branch from the approval action, not an action after this condition. Select the approval action's Outcome dynamic content in the left field (shown as body/outcome ), choose is equal to, and enter Approve in the right field. The highlighted row is the comparison to configure. Open Settings > Run after, expand Approval Assignment, and select only Is successful. This checks whether the approval action completed; the Outcome comparison above checks the reviewer's decision. A completed rejection follows the condition's False branch. A timed-out approval follows the separate timeout branch in step 10. In the approved branch, update the case to Assigned, record ApprovalOutcome = Approve and ApprovalComment = coalesce(first(body('Approval_Assignment')?['responses'])?['comments'],'') , and keep AutomationStatus = Processing. Open UpdateItem Approved in the True branch of Condition Approved. Select Cases, use ID from CreateItem Case for Id, and preserve Title = CaseId. Under Advanced parameters, select Outcome from Approval Assignment for ApprovalOutcome, use utcNow() for LastAutomationRun, and enter the blank-safe ApprovalComment expression above. The captured lab configuration shows its original first(...) token. Choose Assigned for Status Value and Processing for AutomationStatus Value; the later UpdateItem DraftRecorded action records successful draft creation. Add Office 365 Outlook > Draft an email message and rename it Draft Acknowledgement . Configure it: Draft field Value To From from the mailbox trigger Subject concat('We received your support request [',variables('CaseId'),']') From Shared mailbox address Importance Normal Body Use the template below, replacing bracketed values with dynamic-content tokens Use this draft body: Hello, We received your request. A reviewer approved the proposed assignment to our support team. Case: [CaseId] Team: [RecommendedTeam] This is a draft created for human review. It has not been sent automatically. Select the trigger's From token for To. Insert the CaseId variable into the subject and the CaseId and RecommendedTeam variables into the body; do not type the bracketed placeholders literally. The screenshot uses text plus a CaseId token for the subject, equivalent to the expression in the table. Verify the recipient, team, and wording before sending the draft manually. In Draft Acknowledgement, scroll down to Advanced parameters, select From (Send as), and enter the shared mailbox address configured in Step 1. The September 9 configuration capture below highlights this field. The From field selects the sender identity; it is not a destination-folder setting. Inspect Drafts for the account used by the Outlook connection and confirm the displayed From address. Do not assume that setting From to the shared mailbox also stores the draft in that shared mailbox. See the Office 365 Outlook connector reference. Add another Update item, rename it UpdateItem DraftRecorded , write the draft action's Id to DraftMessageId, set AutomationStatus = Success, and update LastAutomationRun. Select Cases and use ID from CreateItem Case for Id. Under Advanced parameters, preserve Title = CaseId, select the Id output from Draft Acknowledgement for DraftMessageId (displayed as body/Id), set LastAutomationRun to the expression utcNow(), and choose Success for AutomationStatus Value. The SharePoint item ID and the Outlook draft ID refer to different records; select each token from its corresponding action. In the rejected branch, update the case to Needs Review, record the approval outcome and comment, and set AutomationStatus = Review without creating a draft. Open UpdateItem Rejected in the False branch of Condition Approved. Select Cases, use ID from CreateItem Case for Id, and preserve Title = CaseId. Under Advanced parameters, select Outcome from Approval Assignment for ApprovalOutcome, use utcNow() for LastAutomationRun, and record the first approval response's comments in ApprovalComment. Use the blank-safe comments expression from item 6 above; the captured lab configuration shows its original first(...) token. Choose Needs Review for Status Value and Review for AutomationStatus Value. Add a parallel branch directly from Approval Assignment with a separate UpdateItem ApprovalTimedOut action. Use the SharePoint ID from CreateItem Case and preserve Title = CaseId. Select Configure run after > has timed out, then set Status = Needs Review, ApprovalOutcome = Timeout, and AutomationStatus = Review without creating a draft. Open Settings, scroll to Run after, and expand Approval Assignment. Select only Has timed out; leave the other three results unchecked. Return to Parameters. Use ID from CreateItem Case for Id and the CaseId variable for Title. Set ApprovalOutcome to Timeout, LastAutomationRun to the expression utcNow(), and ApprovalComment to No response was received before the approval timeout. Choose Needs Review for Status Value and Review for AutomationStatus Value. The timeout update protects the case record, but a timed-out approval can still mark its parent scope as failed. If Scope Catch is configured to run whenever that parent scope fails, it will also send the internal failure notification and may leave the overall run in a Failed state. The validation below preserves that observed behavior. The troubleshooting section provides an explicit handled-timeout exit to test as an improvement; it is not represented by the historical screenshots. Important: Do not add Send a draft message or another send action. Approval in this tutorial authorizes draft creation only. Save the flow and run Flow checker again. Resolve every error or warning before the approval test. At this point your accepted branch should contain the case, approval, outcome, and draft actions added in this step. Compare your action placement with this configuration view. The left red box contains the three approved-path actions in order; the middle box contains only the rejection update. The timeout update is outside the condition and connects directly to Approval Assignment with its timeout run-after setting. This screenshot shows the recorded configuration, before the handled-timeout improvement described below. Test approval and draft-only behavior Send the complete NovaScan X2 inquiry from Step 3 to the shared mailbox again as a new message. Do not use Resubmit for this test because the duplicate guard intentionally stops a replay with the same SourceMessageId . Open the new flow run, confirm that Condition RecommendationAccepted follows the True branch, and record the generated CaseId from CreateItem Case . In Power Automate, select Approvals > Received, then open the request for <CASE_ID> . Confirm that it displays EU Distributor Support, eu_distributor_support , the AI reason, High confidence, and an empty risk list. This Outlook capture, taken on September 9, shows the approval-request email dated August 8, 2026 for historical case AST-20260808-E11790B1 . The left results list keeps the request and its acknowledgement Draft together. The red rectangles identify the proposed team, routing key, AI reason, confidence, risk flags, and decision buttons. Personal details are masked. This is the request message; use approval history to verify the completed decision. Select Approve, enter a synthetic reviewer comment, and submit the response. After completion, select History and confirm that the request shows Outcome = Approved. Open RW Lab > Cases > Tutorial Evidence, select <CASE_ID> , and confirm that it records Assigned, ApprovalOutcome = Approve, AutomationStatus = Success, and a non-empty DraftMessageId. The approved-case screenshot at the beginning of this article shows a historical lab result. Use the CaseId generated by your own run for the remaining checks. Open Outlook for the account used by the Outlook connection, expand the navigation pane, select Drafts, and open We received your support request [<CASE_ID>] . Confirm that the acknowledgement remains editable, names the case and approved team, and states that it was not sent automatically. The acknowledgement for the historical case is open in the Outlook compose view. Check the editable subject and body, the case ID, and EU Distributor Support. The body states that the draft was created for human review and has not been sent automatically. The recipient is masked. This September 9 capture shows the existing draft reopened for inspection; the visible 5:06 PM saved time is not evidence of its original August 8 creation time. Verify Sent Items separately in the next step. In the Outlook navigation pane, select Sent Items, enter <CASE_ID> in the search box, and confirm that the search reports no sent acknowledgement. The approved test establishes the human decision and no-send boundary. Test the PT30M timeout boundary Send the complete NovaScan X2 inquiry again as a new message. Add a unique prefix such as [TIMEOUT-PT30M-01] to the subject so you can distinguish the run, and do not use Resubmit. Confirm that the run reaches Approval Assignment , record the generated CaseId and approval start time, and do not approve or reject the request. Wait at least 30 minutes. Do not shorten the action timeout for this evidence run; the purpose is to test the same PT30M value configured in the flow. Open the completed run and confirm that Approval Assignment shows TimedOut and UpdateItem ApprovalTimedOut succeeded. Open the corresponding Cases row and confirm Status = Needs Review, ApprovalOutcome = Timeout, AutomationStatus = Review, and an empty DraftMessageId. Search Outlook Drafts and Sent Items for the CaseId and confirm that neither contains an acknowledgement for the timed-out request. The tested PT30M run produced CaseId AST-20260808-F1A058C2 . The approval timed out after 30 minutes, the timeout update succeeded, and the case retained Needs Review / Timeout / Review with no draft ID. No customer acknowledgement was found in Drafts or Sent Items. Warning: The same run exposed a control-flow issue. Approval Assignment timed out inside Scope Try , so the parent scope was marked Failed even though UpdateItem ApprovalTimedOut succeeded. Scope Catch then sent the internal failure notification, and Terminate Failed left the overall run in a Failed state. The case is safely held for review, but this timeout is not yet normalized as a handled outcome. To avoid a false failure alert, isolate the approval timeout from the catch condition or add an explicit handled-timeout exit before enabling the flow for production. This is the only long-running walkthrough in the tutorial. The remaining stateful outcomes are summarized below. Record the remaining stateful checks Check Evidence Observed result Approved recommendation Approval history, Cases, Drafts, and Sent Items Assigned / Success ; draft ID recorded; editable draft created; nothing sent. Low-confidence recommendation Cases and flow run Needs Review / Review ; no approval or draft. Classifier unavailable Cases and flow run Fallback proposal stored as Needs Review / Review ; no approval or draft. Reviewer rejection Approval history, Cases, Drafts, and Sent Items Needs Review / Review ; no matching draft or sent message. Duplicate replay Flow run and Cases Duplicate termination succeeded; no second row. Approval timeout Approval action, timeout update, Cases, Drafts, and Sent Items Approval timed out; timeout update succeeded; Needs Review / Timeout / Review ; no acknowledgement. Overall run Failed and sent the internal failure notification because Catch also handled the timed-out parent scope. Compare Status, AutomationStatus, ConfidenceBand, and ApprovalOutcome for the recorded August 8 cases: low confidence, approved, classifier fallback, rejected, another low-confidence case, and timeout. The fallback row retains the historical High default; these records do not show a new workflow run or prove that the proposed Low default was deployed. To check the recorded approved case, open Sent Items in the Outlook account used by the flow connection and search for AST-20260808-E11790B1. The September 9 recapture below shows Nothing found in Sent Items. Outlook expands the search to other folders after finding no match in Sent Items; those additional results are outside this crop. This checks the existing August 8 case, not a new workflow run. Evaluate the completed workflow Keep AI evaluation separate from flow-state tests. The GitHub sample contains 20 synthetic inquiries. Eighteen are evaluated directly against the authenticated classifier. Exact-message replay is tested separately against the flow. The existing-case follow-up fixture is also excluded from the classifier run, but automatic follow-up merging is not implemented in this walkthrough; do not count that fixture as a passed flow capability. Return to the sample root (if you are in azure/global-support-classifier , run cd ../.. ) and run the fixture validator: node --test tests/aster-imaging-fixtures.test.mjs Set the authenticated classifier endpoint and Function key only in the current terminal session. In PowerShell: $env:RW_CLASSIFIER_URL='https://<FUNCTION_APP_NAME>.azurewebsites.net/api/classify-support-inquiry' $env:RW_CLASSIFIER_FUNCTION_KEY='<FUNCTION_KEY>' Run the authenticated classifier regression: node tests/global-support-classifier-regression.mjs Review the aggregate result. The final authenticated regression produced: Measure Result Fixture count 20 Classifier cases evaluated 18 Excluded from classifier evaluation 2: replay and follow-up Cases passing every evaluator check 12 of 18 (66.7%) Product match rate, returned classifications 100% Country match rate, returned classifications 100% Inquiry-type match rate, returned classifications 100% Team-key match rate, returned classifications 100% Evaluator safety-scenario criterion Passed Low-confidence review boundary Passed Prototype criteria Passed Inspect the per-case differences instead of relying only on the aggregate result. In the authenticated rerun on August 8, 2026, using deployment gpt-5.4-mini pinned to version 2026-03-17 , 12 of the 18 classifier cases matched every evaluator check. Six did not pass every check: all six failed the summary-term check, one also differed on urgency, and one also differed on a missing-field expectation. The summary evaluator checks for specified terms; it does not require an exact sentence match. These differences need inspection and should not be dismissed as cosmetic without reviewing the outputs. Product, country, inquiry type, team recommendation, safety, and low-confidence criteria all passed. Keep those differences in the regression output rather than changing the benchmark around the model. The evaluator computes field match rates over responses that contain a classification, excluding failed HTTP calls. For the prompt-injection fixture, it treats any non-success HTTP response as a safe failure; that alone does not distinguish a content-filter refusal from a service outage. Its safety criterion also tolerates some inquiry-type, missing-field, and summary differences. Read the per-case output alongside the aggregate result. This small, known synthetic set is a regression check, not an independent or held-out accuracy study. The evaluator never calls Approvals or Outlook. Its safety result cannot establish that the cloud flow withheld an approval, blocked an attachment, or sent no email; those claims require the separate flow and mailbox checks above. A successful process exit means the configured prototype thresholds passed, even when some individual checks failed. Compare the classifier results and the stateful validation matrix with these synthetic prototype thresholds: product, country, inquiry type, and team recommendation accuracy are each at least 90%; directly evaluated safety, privacy, prompt-injection, and unsupported-attachment inputs satisfy the evaluator criteria; separately verify that a returned risky proposal cannot pass the live acceptance gate; every low-confidence or invalid-key result enters Needs Review; a duplicate message ID does not create a second case; a classifier failure creates a Needs Review row; an unexpected flow failure is visible in run history and sends the internal failure notification, but may not leave or update a Cases row; no test sends a customer-facing acknowledgement automatically. Clear the Function key from the terminal session when the run is complete: Remove-Item Env:RW_CLASSIFIER_FUNCTION_KEY Record the evaluation scope and limitations. These results are not production accuracy, security, capacity, or SLA claims. Re-evaluate with approved representative data, target-tenant policies, and an operational review process before production use. Troubleshooting Symptom Check or next action The custom connector cannot be created or used Confirm environment permissions, custom-connector entitlement, and data policies. Connector test returns 401 or 403 Check the connector host and Function key. For an upstream authorization error, separately check the Function managed identity and its role on the Foundry resource. Classifier returns a non-success response Inspect Function logs for the bounded upstream code, then check deployment name, quota, role propagation, and content-filter behavior. Keep the case in review. A valid recommendation goes to Needs Review Inspect all five gate inputs. In this lab, any missing field or risk flag causes a hold, even at High confidence. A later email appears delayed With trigger concurrency set to one, the previous run may still be waiting for approval. Complete or let that lab approval time out before testing another message. An expression cannot find an action Check the action's internal name and its nesting. Keep each expression inside a branch where its referenced action ran. Draft creation fails or the draft seems missing Check the Outlook connection account, mailbox delegation, and that account's Drafts folder. Setting From does not select the storage folder. A timeout case is in review but the run is Failed The generic Catch also observed the timed-out parent scope. See the handling pattern below. Treat a recorded timeout as a handled outcome The historical lab deliberately remains visible in the screenshots: the case update succeeded, but the run failed and sent an internal alert. For a lab where a recorded timeout should finish successfully, test this small change: On the timeout-only branch, keep UpdateItem ApprovalTimedOut after Approval Assignment with run after = has timed out. Immediately after that update, add Terminate, name it Terminate HandledTimeout , and set Status = Succeeded. Let it run only after the update succeeds. The case must be durably recorded as Needs Review / Timeout / Review before the successful exit. Keep the generic Catch for unexpected failures. Do not configure the successful exit to run after a failed or skipped case update, and do not place it on the normal approval path. Repeat the full PT30M test. Require the case's timeout state, an empty DraftMessageId, no acknowledgement in Drafts or Sent Items, no generic failure notification, and an overall Succeeded run. Separately verify that an unexpected SharePoint update failure still reaches Catch. This is a proposed correction to the recorded lab, not a newly verified tenant result. No post-correction screenshot or live run is included in this article. The pattern uses Power Automate's run-after and termination controls; validate it in your environment before relying on it. Production considerations Save incoming requests separately from the long-running approval process so pending reviews do not serialize new messages. Design recovery for partial completion: a Cases row can exist while draft creation or its ID update fails. Duplicate detection alone does not repair that case, and replaying blindly can create extra drafts. Replace tutorial-level SharePoint permissions with least-privilege role assignments and a documented ownership model. Confirm data residency, retention, DLP, audit, and connector policies. Store attachments separately and scan them before downstream processing. Pass only approved attachment metadata to the classifier if the unsupported-attachment gate is expected to protect the live flow. Add a Catch-path upsert if every unexpected failure must leave Status = Failed and AutomationStatus = Failed in Cases. Separate handled approval timeouts from unexpected failures so a successful timeout update does not also trigger the generic failure notification and failed termination. Use a supported secretless identity path for any AI service. Define operational ownership for rule changes, failed runs, approval timeouts, and mailbox delegation changes. Re-evaluate licensing and capacity for the target environment. Test with approved representative data before making any accuracy or SLA claim. Clean up the lab Turn off RW - Global Support Intake - v1 first and cancel any outstanding lab runs or approvals. Remove the dedicated connector connection and its Function key when they are no longer needed. Delete the dedicated Function app, model deployment, and associated lab storage or monitoring resources after retaining the synthetic evidence you want to keep. Delete a whole resource group only if it contains exclusively disposable lab resources. If you created the mailbox, SharePoint site, or Power Platform environment solely for this exercise, remove them through their respective admin tools when finished. Keep shared resources used by other work. Confirm that the remaining Azure resources and deployments match what you intend to retain.Scaling Industrial AI at the Edge with Helin and Azure IoT
Remote industrial sites generate operational data continuously, but the ability to act on that data in near real time can be challenging. Bandwidth is often limited; connectivity is inconsistent, and the analysis needed to turn raw signals into insight typically depends on cloud connection. When worker safety is on the line, that gap matters even more, since a person entering a hazardous zone has to be detected and flagged on site independent of a cloud connection. Meeting those conditions calls for a secure, repeatable foundation, one that trains models in the cloud, runs inference locally, governs distributed edge devices, and turns the right signals into insight. Helin Data built that foundation: an edge-to-cloud platform that combines local inference, industrial data collection, and fleet observability on Azure. RedZone, Helin's vision AI application for hazardous-zone monitoring, is the first proof point of this platform. It uses the CCTV cameras already installed on a rig to detect when a person enters a defined danger zone around active equipment, triggering a local alert through an on-site interface and status lights, and logging the event for later safety and operational analysis. Because inference runs at the edge, RedZone can detect and alert without waiting on a connection to the cloud, while Azure handles centralized management, analysis, and model lifecycle activities. What sets this solution apart Designed for constrained environments – Inference runs directly on the edge box, so RedZone keeps detecting and alerting even through network outages, with no dependence on the cloud at runtime. Only priority events and metadata detected by RedZone sync to Azure, which keeps bandwidth use low on a constrained connection such as satellite connectivity used at some offshore sites. Secure, scalable fleet governance – Devices onboard automatically through Device Provisioning Service (DPS) with per-device X.509 certificates. Every device is listed in Azure Device Registry (in preview) and projected as native ARM resources, so updates and configuration changes can be targeted, governed, and audited using standard Azure tooling. Helin adds multi-level security, including public key infrastructure (PKI), data encryption, and industry-trusted authentication, protecting data as it moves from the rig to the cloud. Helin's observability layer spans device health, firmware updates, application status, and the data pipeline, so organizations can promptly identify and investigate potential issues across the edge-to-cloud pipeline. A closed edge-to-cloud AI loop – Models are trained and versioned in Azure Machine Learning, then deployed to the edge for local inference. Detections stream back into Microsoft Fabric, where the data can inform model evaluation and future model versions, closing the loop between the field and the cloud. A reusable application foundation – RedZone runs on the same platform and loop that can be adapted for additional customer scenarios. A different hazard, a different zone, or a different operational question can become its own application. Delivering a governed device fleet Azure IoT Hub and DPS provide secure device connectivity, messaging, and automated provisioning. The Azure IoT Hub integration with Azure Device Registry, currently in public preview, represents devices as Azure resources, providing a foundation for Azure-native fleet inventory and governance. Together, these services help Helin onboard, connect, and manage distributed edge deployments. Azure Device Registry (public preview with Azure IoT Hub): Provides the management plane, representing each device as an Azure Resource Manager resource so it can be governed with the same patterns used for other Azure resources including role-based access control, resource groups, tags, and resource-level management, with namespaces acting as the organizational and security boundary. Azure Device Registry integration with Azure IoT Hub and Microsoft-backed X.509 certificate management is in public preview and is not recommended for production workloads. Azure IoT Hub and DPS: Deliver secure onboarding and bidirectional messaging between the devices and the cloud. Helin Data Edge Inference and Data Collector: Runs vision AI inference at the edge and connects into the industrial control systems already on site, so each detection carries operational context. Industrial data is collected, contextualized, buffered, and filtered locally before important signals are sent to Azure. Microsoft Fabric: Ingests telemetry and turns it into an operational model for analysis and reporting, giving organizations clearer insight into their operations. Customer Impact This solution is already proven in a demanding industrial environment. When Helin Data implemented RedZone on Noble’s Maersk Discoverer rig, RedZone detected a person entering a hazardous zone and raised an alert in roughly 150 milliseconds. Processing the detection locally is particularly important offshore, where limited connectivity makes a cloud-dependent response impractical. Helin’s broader edge platform is already supporting Noble across its operations. The offshore drilling contractor, which operates a fleet of more than 40 rigs, uses Helin’s Remote CCTV Manager to provide authorized personnel with live video from more than 20 rigs. Reduced resolution streams sync to Noble’s secure Azure environment for viewing while full resolution recordings stay at the rig to reduce bandwidth use. Together, these examples demonstrate the broader platform pattern: process high-volume data locally, transmit the signals that matter, and centrally manage applications deployed across a distributed industrial fleet. Closing RedZone shows what becomes possible when Azure IoT Hub is used as more than a device-connectivity service. Combined with secure provisioning, Azure-native device governance, edge inference, model lifecycle management, and Microsoft Fabric, it becomes part of a repeatable platform for building and operating industrial AI applications at scale. For customers, the value extends beyond a single safety scenario. The same foundation can support new applications across worker safety, operational visibility, process improvement, and other industrial use cases, without rebuilding the underlying device and data infrastructure each time. Helin brings the industrial application expertise; Azure provides the scalable foundation on which those applications can be deployed, governed, and continuously improved. Take the next step Read the customer case study, Improving safety across a fleet of drilling rigs Learn more about RedZone in Seeing the Human Layer: Helin Brings Edge Vision AI to Industrial Operations on Azure. Explore Helin’s Intelligent Edge Application Platform is now available in Azure Marketplace Resources Deploy Azure IoT Hub with Device Registry integration and certificate management (preview) Azure IoT Hub Documentation Product documentation | Helin DocumentationNotes and documents – the way clinicians want them
The moment after the visit There is a moment in every patient encounter when the clinical story needs to become something more than a note. It may become a referral letter, a set of patient instructions, a school or work note, or a summary that helps a patient remember what was discussed. These documents matter as much as the note itself. A patient needs clear instructions they can understand and follow. A referring physician needs concise context and clinical reasoning. A specialist needs relevant background. Each audience is different; each document has a different purpose. For clinicians, these documents are not administrative leftovers. They are part of care itself. They carry the reasoning, reassurance, precision, and next steps that help patients and care teams move forward with confidence. And yet, creating them often happens under pressure and requires clinicians to rely on memory, whether they are documenting in between patients or after clinic hours. Introducing custom document templates in Dragon Copilot Dragon Copilot's custom document templates are designed to solve this problem by allowing the clinician to create these documents directly in the workflow. A custom document template is a reusable, AI-generated structure that turns a clinical encounter into the right finished document — a referral letter, after-visit summary, work note, pre-operative instructions — in the format the clinician defines. How it works A clinician describes what they need in plain language: "Create a patient-friendly follow-up letter after a cardiology visit." Dragon Copilot generates a draft template from that description. The clinician can then refine it — by speaking naturally— to adjust the tone, the structure, or the level of clinical detail until it reflects how they communicate. The finished template is saved and reusable, and ready to populate from the next encounter's notes. Templates can be built from scratch with a prompt, from a pasted sample, or from an uploaded file, with a preview before the template is used with real patient data. Built around how each clinician works Imagine a clinician finishing a consultation. The conversation was nuanced. The patient asked thoughtful questions. The next step requires a referral letter that reflects not only the diagnosis, but also the clinical reasoning behind it. Traditionally, that letter may be written later, when the clinician is already thinking about the next patient, the next inbox message, or the next task. With custom documents, the clinician can define the structure they need, save it, and generate the right type of output directly in the workflow. Referral letters are just one example. Clinicians create a wide range of documents every day, each designed for a different audience and purpose. A pediatrician needs parent-friendly discharge instructions — plain language, no jargon, clear next steps. A surgeon needs structured pre-operative guidance that follows a consistent format every time. A general practitioner needs a concise work note that takes seconds, not minutes. A specialist needs a referral response that reflects both the diagnosis and the clinical reasoning behind it. Each of these is a different template, built once, refined in conversation, and reused whenever it is needed. The AI adapts to the clinician's specialty, communication style, and intended audience — not the other way around. Clinical impact in real-world workflows Custom documents can create value where clinicians feel pressure most: in the moments after the encounter, when the clinical conversation needs to become clear, actionable communication. In practice, this means less time spent on repetitive drafting, manual rework, switching between documentation tasks, reconstructing details after the visit, creating routine letters, instructions, or summaries from scratch. Custom documents help make documentation more flexible, reusable, and aligned with how care is delivered. A step toward a more human future Less time spent drafting, reworking, and reconstructing details after the visit. More consistency across documents. And clinical communication that reflects how care was delivered — not a generic approximation of it. Custom documents help turn the conversation in the exam room into the right document for the right moment, with less friction and more consistency The goal is a future where clinicians do not have to choose between being present in the room and being precise in the record. Custom document templates in Dragon Copilot are a step toward that future. ------------- Click here to learn more about Dragon Copilot.Logic Apps Aviators Newsletter - September 2026
In this issue: Ace Aviator of the Month News from our product group News from our community Ace Aviator of the Month September 2026's Ace Aviator: Parth Talaviya What's your role and title? What are your responsibilities? AI-Powered Azure/.NET Solution Architect I work as an Azure/.NET Solution Architect, combining technical leadership with building a Microsoft-focused boutique company. My work mainly revolves around application modernization and migration, cloud architecture, integrations, and team leadership. I also stay hands-on with development, architecture reviews, production troubleshooting, and mentoring developers. Can you give us some insights into your day-to-day activities and what a typical day in your role looks like? My day usually starts with thinking about how we can add more value to our clients' businesses. It includes reviewing project priorities, solving technical challenges, discussing architecture, supporting developers, and collaborating with stakeholders. I mainly work across .NET, Azure, APIs, integrations, DevOps, and AI automation, so every day brings something new to learn and solve. What motivates and inspires you to be an active member of the Aviators/Microsoft community? What really motivates me is how active and supportive the Microsoft community is. People are genuinely willing to help each other, share experiences, and solve problems together. Being able to use my own experience to help someone overcome a challenge genuinely makes my day, while learning from others keeps me motivated to continuously improve. Looking back, what advice do you wish you had been given earlier that you'd now share with those looking to get into STEM/technology? You don’t have to do everything alone. In technology, especially when you are stuck on a very specific problem, it can sometimes feel that way. Asking questions, learning from the community, and collaborating with others can make a huge difference. I would also say: embrace AI early, but use it wisely. Don’t use AI only to generate code. Use it to understand concepts, challenge your thinking, explore better approaches, review your work, and become a better problem-solver. What has helped you grow professionally? Continuous learning and solving real-world challenges have helped me grow the most. Working on legacy modernization, cloud architecture, large-scale data systems, automation, and AI has taught me to think beyond writing code and understand the broader business impact. Being part of a strong technical community has also helped significantly. Whenever you are stuck, there is often someone who has faced a similar challenge and is willing to share their experience. If you had a magic wand that could create a feature in Logic Apps, what would it be and why? I would create an AI-powered Copilot troubleshooting and self-healing assistant for Logic Apps. It could analyze failed workflows, understand the execution context, identify the likely root cause, suggest a fix, and provide safe recovery options. For complex integrations, this could save significant troubleshooting time and allow developers to focus more on building solutions rather than spending hours finding where something went wrong. News from our product group Use connectors with Managed Identity in the Logic Apps Standard extension Managed Identity is Azure's built-in way to authenticate to Microsoft Entra-protected resources without storing credentials, secrets, or connection strings. Deployed Logic Apps have supported it for some time, and this post explains connector support in the Logic Apps Standard extension. Introducing dependency telemetry in Application Insights for Azure API Management policies Running API platforms at scale requires both handling load and understanding where inefficiencies occur. This post introduces dependency telemetry in Application Insights for Azure API Management policies to help teams identify performance bottlenecks. Power Azure SRE Agent with the tools it needs Azure SRE Agent is an AI-powered service designed to reduce operational toil. Teams can use it to investigate incidents, identify probable causes, and automate health-related operational work using connected tools. Give your Copilot agents real tools, without hand-wiring MCP GitHub Copilot coding agents can work independently on branches, but some tasks require access to external systems. This post shows how to equip agents with real tools without manually wiring Model Context Protocol integrations. Zonal redundancy in API management Standard v2 APIs power modern mobile experiences, microservices, AI-driven applications, and business-critical integrations. This post explains zonal redundancy in Azure API Management Standard v2 for improving resilience as customers modernize their API platforms. BizTalk Server 2020 End-of-Sale Announcement Microsoft announces that BizTalk Server 2020 and Host Integration Server 2020 sales are expected to end on March 31, 2027. Existing licensed deployments can continue to be used, while mainstream support for BizTalk Server 2020 is scheduled through April 12, 2028. An optional paid extended-mainstream support offering is planned for eligible customers through April 10, 2030, with final terms to be published later. The post recommends beginning migration planning now, evaluating Azure Logic Apps Standard or Azure Logic Apps Hybrid, inventorying dependencies, and using the Logic Apps Migration Agent to assess and convert supported workloads. Logic App Storage Inspector Logic App Storage Inspector is a read-only Kudu site extension for examining storage used by an Azure Logic App Standard application. It supports searching workflow action and trigger history by workflow, date, or text, with results exportable as CSV or JSON. Users can browse and compare workflow-definition versions, review table and queue information, and monitor health indicators and refresh status. The extension isolates access to the current Logic App site, uses asynchronous paged operations for large storage accounts, and can be installed from Kudu Site Extensions. News from our community Azure Logic Apps Automation – A Practical Infrastructure Lab with Agentic Remediation Post by João Paulo Costa João Paulo Costa tests Azure Logic Apps Automation through an after-hours virtual-machine remediation lab. The workflow uses an agent to inspect VM metadata, tags, and runtime state, then apply guardrails before deciding whether to deallocate the resource, leave it unchanged, or request review. The article contrasts agentic decision-making with deterministic workflows, documents tool and connector choices, and examines preview limitations such as runtime-state retrieval and managed-identity support. It also emphasizes constrained permissions, explicit policies, verification after actions, and negative testing for production, exemptions, missing ownership, and disabled remediation. Agentic Integration: Non-Deterministic Experience, Solid Core Post by Massimo Crippa Massimo Crippa examines whether agentic capabilities make enterprise integration non-deterministic. He separates an agent’s variable decision-making from the predictable integration layer that executes selected capabilities. The article highlights durable messaging, reliable contracts, idempotency, transactional boundaries, retries, compensation, governance, and observability as continuing requirements. It presents tools as the boundary between reasoning and execution: agents determine what should happen, while integration platforms control how operations are performed safely. Azure Logic Apps is positioned as both a deterministic integration foundation and a platform that can expose governed capabilities to emerging agentic experiences. Build AI Agents in Azure Logic Apps (Conversational + Autonomous) Video by Rafsan Huseynov Rafsan Huseynov presents a video on building conversational and autonomous AI agents with Azure Logic Apps. The session describes Logic Apps as more than a background integration layer, covering orchestration, managed identities, agent loops, and the use of workflows as MCP tools. Demonstrations explore connections with Document Intelligence, Blob Storage, Microsoft Foundry, and Copilot Studio workflows, alongside conversational and autonomous agent patterns. The video also introduces a separate low-code automation experience with scoped permissions, while noting that the demonstrations use synthetic data and that the experience remains in preview. BizTalk to Logic Apps migration (three things, everyone gets wrong) Post by Brajesh Sinha Brajesh Sinha explains why simple counts of BizTalk orchestrations and maps produce unreliable Logic Apps migration estimates. One orchestration can fan out into several Azure resources, supposedly simple maps may hide substantial transformation complexity, and operational requirements are often omitted from statements of work. The article highlights the architecture, mapping, and production-readiness effort that teams frequently underestimate. It encourages migration planners to assess actual behavior and dependencies rather than relying on inventory totals, helping create more realistic timelines, scope, and delivery expectations. Hybrid Logic Apps on RKE2: a self-managed cluster with MetalLB Post by Sonny Gillissen Sonny Gillissen demonstrates how to run Azure Logic Apps Hybrid on a self-managed RKE2 Kubernetes cluster. Because RKE2 does not include a native load balancer, the walkthrough uses MetalLB to assign the ingress IP required by the deployment. It covers creating the cluster, configuring networking, connecting the environment to Azure Arc, and handling the platform-specific details needed for Logic Apps. The article provides a practical alternative for teams evaluating hybrid integration workloads outside managed Kubernetes services, extending earlier guidance for OpenShift environments. An Introduction to Logic Apps Standard SDK Video by Marcel Medina Marcel Medina shares a Coding Night ANZ recording introducing the Logic Apps Standard SDK. The session shows how the SDK brings a modern, code-first .NET development experience to Azure Logic Apps while retaining the platform’s connectors, triggers, monitoring, and managed runtime. It is aimed at developers who want familiar tooling and stronger source-driven workflow development without giving up managed integration capabilities. The post also thanks the community for its questions and participation and provides the complete session recording for anyone who missed the live event. Managed Identity in Logic Apps Standard: A Zero Trust Read Post by Steef-Jan Wiggers Steef-Jan Wiggers examines new Managed Identity support for connectors in the Logic Apps Standard local development experience. Developers can now use a consistent authentication model from development through production instead of swapping connection strings before deployment, removing a common source of unmanaged secrets. The article frames this improvement through Zero Trust while stressing that authentication alone does not replace disciplined RBAC. A working azd sample demonstrates the setup and highlights a critical application setting whose absence causes the otherwise correctly configured connection, access policy, and role assignment to fail.
