Announcing general availability for the Azure SRE Agent
Today, we’re excited to announce the General Availability (GA) of Azure SRE Agent— your AI‑powered operations teammate that helps organizations improve uptime, reduce incident impact, and cut operational toil by accelerating diagnosis and automating response workflows.Gemma 4 on Azure Container Apps Serverless GPU
Every prompt you send to a hosted AI service leaves your tenant. Your code, your architecture decisions, your proprietary logic — all of it crosses a network boundary you don't control. For teams building in regulated industries or handling sensitive IP, that's not a philosophical concern. It's a compliance blocker. What if you could spin up a fully private AI coding agent — running on your own GPU, in your own Azure subscription — with a single command? That's exactly what this template does. One azd up , 15 minutes, and you have Google's Gemma 4 running on Azure Container Apps serverless GPU with an OpenAI-compatible API, protected by auth, and ready to power OpenCode as your terminal-based coding agent. No data leaves your environment. No third-party model provider sees your code. Full control. Why Self-Hosted AI on ACA? Azure Container Apps serverless GPU gives you on-demand GPU compute without managing VMs, Kubernetes clusters, or GPU drivers. You get a container, a GPU, and an HTTPS endpoint — Azure handles the rest. Here's what makes this approach different from calling a hosted model API: Complete data privacy — your code and prompts never leave your Azure subscription. No PII exposure, no data leakage, no third-party processing. For teams navigating HIPAA, SOC 2, or internal IP policies, this is the simplest path to compliant AI-assisted development. Predictable costs — you pay for GPU compute time, not per-token. Run as many prompts as you want against your deployed model. No rate limits — the GPU is yours. No throttling, no queue, no waiting for capacity. Model flexibility — swap models in minutes. Start with the 4B parameter Gemma 4 for fast iteration, scale up to 26B for complex reasoning tasks. This isn't a tradeoff between convenience and privacy. ACA serverless GPU makes self-hosted AI as easy to deploy as any SaaS endpoint — but the data stays yours. What You're Building The template deploys two containers into an Azure Container Apps environment: Ollama + Gemma 4 — running on a serverless GPU (NVIDIA T4 or A100), serving an OpenAI-compatible API Nginx auth proxy — a lightweight reverse proxy that adds basic authentication and exposes the endpoint over HTTPS The Ollama container pulls the Gemma 4 model on first start, so there's nothing to pre-build or upload. The nginx proxy runs on the free Consumption profile — only the Ollama container needs GPU. After deployment, you get a single HTTPS endpoint that works with curl , any OpenAI-compatible SDK, or OpenCode — a terminal-based AI coding agent that turns the whole thing into a private GitHub Copilot alternative. Step 1: Deploy with azd up You need the Azure CLI and Azure Developer CLI (azd) installed. git clone https://github.com/simonjj/gemma4-on-aca.git cd gemma4-on-aca azd up The setup walks you through three choices: GPU selection — T4 (16 GB VRAM) for smaller models, or A100 (80 GB VRAM) for the full Gemma 4 lineup. Model selection — depends on your GPU choice. The defaults are tuned for the best quality-to-speed ratio on each GPU tier. Proxy password — protects your endpoint with basic auth. Region availability: Serverless GPUs are available in various regoins such as australiaeast , brazilsouth , canadacentral , eastus , italynorth , swedencentral , uksouth , westus , and westus3 . Pick one of these when prompted for location. That's it. Provisioning takes about 10 minutes — mostly waiting for the ACA environment to create and the model to download. Choose Your Model Gemma 4 ships in four sizes. The right choice depends on your GPU and workload: Model Params Architecture Context Modalities Disk Size gemma4:e2b ~2B Dense 128K Text, Image, Audio ~7 GB gemma4:e4b ~4B Dense 128K Text, Image, Audio ~10 GB gemma4:26b 26B MoE (4B active) 256K Text, Image ~18 GB gemma4:31b 31B Dense 256K Text, Image ~20 GB Real-World Performance on ACA We benchmarked every model on both GPU tiers using Ollama v0.20 with Q4_K_M quantization and 32K context in Sweden Central: Model GPU Tokens/sec TTFT Notes gemma4:e2b T4 ~81 ~15ms Fastest on T4 gemma4:e4b T4 ~51 ~17ms Default T4 choice — best quality/speed gemma4:e2b A100 ~184 ~9ms Ultra-fast gemma4:e4b A100 ~129 ~12ms Great for lighter workloads gemma4:26b A100 ~113 ~14ms Default A100 choice — strong reasoning gemma4:31b A100 ~40 ~30ms Highest quality, slower 51 tokens/second on a T4 with the 4B model is fast enough for interactive coding assistance. The 26B model on A100 delivers 113 tokens/second with noticeably better reasoning — ideal for complex refactoring, architecture questions, and multi-file changes. The 26B and 31B models require A100 — they don't fit in T4's 16 GB VRAM. Step 2: Verify Your Endpoint After azd up completes, the post-provision hook prints your endpoint URL. Test it: curl -u admin:<YOUR_PASSWORD> \ https://<YOUR_PROXY_ENDPOINT>/v1/chat/completions \ -H "Content-Type: application/json" \ -d '{ "model": "gemma4:e4b", "messages": [{"role": "user", "content": "Hello!"}] }' You should get a JSON response with Gemma 4's reply. The endpoint is fully OpenAI-compatible — it works with any tool or SDK that speaks the OpenAI API format. Step 3: Connect OpenCode Here's where it gets powerful. OpenCode is a terminal-based AI coding agent — think GitHub Copilot, but running in your terminal and pointing at whatever model backend you choose. The azd up post-provision hook automatically generates an opencode.json in your project directory with the correct endpoint and credentials. If you need to create it manually: { "$schema": "https://opencode.ai/config.json", "provider": { "gemma4-aca": { "npm": "@ai-sdk/openai-compatible", "name": "Gemma 4 on ACA", "options": { "baseURL": "https://<YOUR_PROXY_ENDPOINT>/v1", "headers": { "Authorization": "Basic <BASE64_OF_admin:YOUR_PASSWORD>" } }, "models": { "gemma4:e4b": { "name": "Gemma 4 e4b (4B)" } } } } } Generate the Base64 value: echo -n "admin:YOUR_PASSWORD" | base64 Now run it: opencode run -m "gemma4-aca/gemma4:e4b" "Write a binary search in Rust" That command sends your prompt to Gemma 4 running on your ACA GPU, and streams the response back to your terminal. Every token is generated on your infrastructure. Nothing leaves your subscription. For interactive sessions, launch the TUI: opencode Select your model with /models , pick Gemma 4, and start coding. OpenCode supports file editing, code generation, refactoring, and multi-turn conversations — all powered by your private Gemma 4 instance. The Privacy Case This matters most for teams that can't send code to external APIs: HIPAA-regulated healthcare apps — patient data in code, schema definitions, and test fixtures stays in your Azure subscription Financial services — proprietary trading algorithms and risk models never leave your network boundary Defense and government — classified or CUI-adjacent codebases get AI assistance without external data processing agreements Startups with sensitive IP — your secret sauce stays secret, even while you use AI to build faster With ACA serverless GPU, you're not running a VM or managing a Kubernetes cluster to get this privacy. It's a managed container with a GPU attached. Azure handles the infrastructure, you own the data boundary. Clean Up When you're done: azd down This tears down all Azure resources. Since ACA serverless GPU bills only while your containers are running, you can also scale to zero replicas to pause costs without destroying the environment. Get Started 📖 gemma4-on-aca on GitHub — clone it, run azd up , and you're live 🤖 OpenCode — the terminal AI agent that connects to your Gemma 4 endpoint 📌 Gemma 4 docs — model architecture and capabilities 📌 ACA serverless GPU — GPU regions and workload profile detailsAzure Functions Ignite 2025 Update
Azure Functions is redefining event-driven applications and high-scale APIs in 2025, accelerating innovation for developers building the next generation of intelligent, resilient, and scalable workloads. This year, our focus has been on empowering AI and agentic scenarios: remote MCP server hosting, bulletproofing agents with Durable Functions, and first-class support for critical technologies like OpenTelemetry, .NET 10 and Aspire. With major advances in serverless Flex Consumption, enhanced performance, security, and deployment fundamentals across Elastic Premium and Flex, Azure Functions is the platform of choice for building modern, enterprise-grade solutions. Remote MCP Model Context Protocol (MCP) has taken the world by storm, offering an agent a mechanism to discover and work deeply with the capabilities and context of tools. When you want to expose MCP/tools to your enterprise or the world securely, we recommend you think deeply about building remote MCP servers that are designed to run securely at scale. Azure Functions is uniquely optimized to run your MCP servers at scale, offering serverless and highly scalable features of Flex Consumption plan, plus two flexible programming model options discussed below. All come together using the hardened Functions service plus new authentication modes for Entra and OAuth using Built-in authentication. Remote MCP Triggers and Bindings Extension GA Back in April, we shared a new extension that allows you to author MCP servers using functions with the MCP tool trigger. That MCP extension is now generally available, with support for C#(.NET), Java, JavaScript (Node.js), Python, and Typescript (Node.js). The MCP tool trigger allows you to focus on what matters most: the logic of the tool you want to expose to agents. Functions will take care of all the protocol and server logistics, with the ability to scale out to support as many sessions as you want to throw at it. [Function(nameof(GetSnippet))] public object GetSnippet( [McpToolTrigger(GetSnippetToolName, GetSnippetToolDescription)] ToolInvocationContext context, [BlobInput(BlobPath)] string snippetContent ) { return snippetContent; } New: Self-hosted MCP Server (Preview) If you’ve built servers with official MCP SDKs and want to run them as remote cloud‑scale servers without re‑writing any code, this public preview is for you. You can now self‑host your MCP server on Azure Functions—keep your existing Python, TypeScript, .NET, or Java code and get rapid 0 to N scaling, built-in server authentication and authorization, consumption-based billing, and more from the underlying Azure Functions service. This feature complements the Azure Functions MCP extension for building MCP servers using the Functions programming model (triggers & bindings). Pick the path that fits your scenario—build with the extension or standard MCP SDKs. Either way you benefit from the same scalable, secure, and serverless platform. Use the official MCP SDKs: # MCP.tool() async def get_alerts(state: str) -> str: """Get weather alerts for a US state. Args: state: Two-letter US state code (e.g. CA, NY) """ url = f"{NWS_API_BASE}/alerts/active/area/{state}" data = await make_nws_request(url) if not data or "features" not in data: return "Unable to fetch alerts or no alerts found." if not data["features"]: return "No active alerts for this state." alerts = [format_alert(feature) for feature in data["features"]] return "\n---\n".join(alerts) Use Azure Functions Flex Consumption Plan's serverless compute using Custom Handlers in host.json: { "version": "2.0", "configurationProfile": "mcp-custom-handler", "customHandler": { "description": { "defaultExecutablePath": "python", "arguments": ["weather.py"] }, "http": { "DefaultAuthorizationLevel": "anonymous" }, "port": "8000" } } Learn more about MCPTrigger and self-hosted MCP servers at https://aka.ms/remote-mcp Built-in MCP server authorization (Preview) The built-in authentication and authorization feature can now be used for MCP server authorization, using a new preview option. You can quickly define identity-based access control for your MCP servers with Microsoft Entra ID or other OpenID Connect providers. Learn more at https://aka.ms/functions-mcp-server-authorization. Better together with Foundry agents Microsoft Foundry is the starting point for building intelligent agents, and Azure Functions is the natural next step for extending those agents with remote MCP tools. Running your tools on Functions gives you clean separation of concerns, reuse across multiple agents, and strong security isolation. And with built-in authorization, Functions enables enterprise-ready authentication patterns, from calling downstream services with the agent’s identity to operating on behalf of end users with their delegated permissions. Build your first remote MCP server and connect it to your Foundry agent at https://aka.ms/foundry-functions-mcp-tutorial. Agents Microsoft Agent Framework 2.0 (Public Preview Refresh) We’re excited about the preview refresh 2.0 release of Microsoft Agent Framework that builds on battle hardened work from Semantic Kernel and AutoGen. Agent Framework is an outstanding solution for building multi-agent orchestrations that are both simple and powerful. Azure Functions is a strong fit to host Agent Framework with the service’s extreme scale, serverless billing, and enterprise grade features like VNET networking and built-in auth. Durable Task Extension for Microsoft Agent Framework (Preview) The durable task extension for Microsoft Agent Framework transforms how you build production-ready, resilient and scalable AI agents by bringing the proven durable execution (survives crashes and restarts) and distributed execution (runs across multiple instances) capabilities of Azure Durable Functions directly into the Microsoft Agent Framework. Combined with Azure Functions for hosting and event-driven execution, you can now deploy stateful, resilient AI agents that automatically handle session management, failure recovery, and scaling, freeing you to focus entirely on your agent logic. Key features of the durable task extension include: Serverless Hosting: Deploy agents on Azure Functions with auto-scaling from thousands of instances to zero, while retaining full control in a serverless architecture. Automatic Session Management: Agents maintain persistent sessions with full conversation context that survives process crashes, restarts, and distributed execution across instances Deterministic Multi-Agent Orchestrations: Coordinate specialized durable agents with predictable, repeatable, code-driven execution patterns Human-in-the-Loop with Serverless Cost Savings: Pause for human input without consuming compute resources or incurring costs Built-in Observability with Durable Task Scheduler: Deep visibility into agent operations and orchestrations through the Durable Task Scheduler UI dashboard Create a durable agent: endpoint = os.getenv("AZURE_OPENAI_ENDPOINT") deployment_name = os.getenv("AZURE_OPENAI_DEPLOYMENT_NAME", "gpt-4o-mini") # Create an AI agent following the standard Microsoft Agent Framework pattern agent = AzureOpenAIChatClient( endpoint=endpoint, deployment_name=deployment_name, credential=AzureCliCredential() ).create_agent( instructions="""You are a professional content writer who creates engaging, well-structured documents for any given topic. When given a topic, you will: 1. Research the topic using the web search tool 2. Generate an outline for the document 3. Write a compelling document with proper formatting 4. Include relevant examples and citations""", name="DocumentPublisher", tools=[ AIFunctionFactory.Create(search_web), AIFunctionFactory.Create(generate_outline) ] ) # Configure the function app to host the agent with durable session management app = AgentFunctionApp(agents=[agent]) app.run() Durable Task Scheduler dashboard for agent and agent workflow observability and debugging For more information on the durable task extension for Agent Framework, see the announcement: https://aka.ms/durable-extension-for-af-blog. Flex Consumption Updates As you know, Flex Consumption means serverless without compromise. It combines elastic scale and pay‑for‑what‑you‑use pricing with the controls you expect: per‑instance concurrency, longer executions, VNet/private networking, and Always Ready instances to minimize cold starts. Since launching GA at Ignite 2024 last year, Flex Consumption has had tremendous growth with over 1.5 billion function executions per day and nearly 40 thousand apps. Here’s what’s new for Ignite 2025: 512 MB instance size (GA). Right‑size lighter workloads, scale farther within default quota. Availability Zones (GA). Distribute instances across zones. Rolling updates (Public Preview). Unlock zero-downtime deployments of code or config by setting a single configuration. See below for more information. Even more improvements including: new diagnostic settingsto route logs/metrics, use Key Vault App Config references, new regions, and Custom Handler support. To get started, review Flex Consumption samples, or dive into the documentation to see how Flex can support your workloads. Migrating to Azure Functions Flex Consumption Migrating to Flex Consumption is simple with our step-by-step guides and agentic tools. Move your Azure Functions apps or AWS Lambda workloads, update your code and configuration, and take advantage of new automation tools. With Linux Consumption retiring, now is the time to switch. For more information, see: Migrate Consumption plan apps to the Flex Consumption plan Migrate AWS Lambda workloads to Azure Functions Durable Functions Durable Functions introduces powerful new features to help you build resilient, production-ready workflows: Distributed Tracing: lets you track requests across components and systems, giving you deep visibility into orchestration and activities with support for App Insights and OpenTelemetry. Extended Sessions support in .NET isolated: improves performance by caching orchestrations in memory, ideal for fast sequential activities and large fan-out/fan-in patterns. Orchestration versioning (public preview): enables zero-downtime deployments and backward compatibility, so you can safely roll out changes without disrupting in-flight workflows Durable Task Scheduler Updates Durable Task Scheduler Dedicated SKU (GA): Now generally available, the Dedicated SKU offers advanced orchestration for complex workflows and intelligent apps. It provides predictable pricing for steady workloads, automatic checkpointing, state protection, and advanced monitoring for resilient, reliable execution. Durable Task Scheduler Consumption SKU (Public Preview): The new Consumption SKU brings serverless, pay-as-you-go orchestration to dynamic and variable workloads. It delivers the same orchestration capabilities with flexible billing, making it easy to scale intelligent applications as needed. For more information see: https://aka.ms/dts-ga-blog OpenTelemetry support in GA Azure Functions OpenTelemetry is now generally available, bringing unified, production-ready observability to serverless applications. Developers can now export logs, traces, and metrics using open standards—enabling consistent monitoring and troubleshooting across every workload. Key capabilities include: Unified observability: Standardize logs, traces, and metrics across all your serverless workloads for consistent monitoring and troubleshooting. Vendor-neutral telemetry: Integrate seamlessly with Azure Monitor or any OpenTelemetry-compliant backend, ensuring flexibility and choice. Broad language support: Works with .NET (isolated), Java, JavaScript, Python, PowerShell, and TypeScript. Start using OpenTelemetry in Azure Functions today to unlock standards-based observability for your apps. For step-by-step guidance on enabling OpenTelemetry and configuring exporters for your preferred backend, see the documentation. Deployment with Rolling Updates (Preview) Achieving zero-downtime deployments has never been easier. The Flex Consumption plan now offers rolling updates as a site update strategy. Set a single property, and all future code deployments and configuration changes will be released with zero-downtime. Instead of restarting all instances at once, the platform now drains existing instances in batches while scaling out the latest version to match real-time demand. This ensures uninterrupted in-flight executions and resilient throughput across your HTTP, non-HTTP, and Durable workloads – even during intensive scale-out scenarios. Rolling updates are now in public preview. Learn more at https://aka.ms/functions/rolling-updates. Secure Identity and Networking Everywhere By Design Security and trust are paramount. Azure Functions incorporates proven best practices by design, with full support for managed identity—eliminating secrets and simplifying secure authentication and authorization. Flex Consumption and other plans offer enterprise-grade networking features like VNETs, private endpoints, and NAT gateways for deep protection. The Azure Portal streamlines secure function creation, and updated scenarios and samples showcase these identity and networking capabilities in action. Built-in authentication (discussed above) enables inbound client traffic to use identity as well. Check out our updated Functions Scenarios page with quickstarts or our secure samples gallery to see these identity and networking best practices in action. .NET 10 Azure Functions now supports .NET 10, bringing in a great suite of new features and performance benefits for your code. .NET 10 is supported on the isolated worker model, and it’s available for all plan types except Linux Consumption. As a reminder, support ends for the legacy in-process model on November 10, 2026, and the in-process model is not being updated with .NET 10. To stay supported and take advantage of the latest features, migrate to the isolated worker model. Aspire Aspire is an opinionated stack that simplifies development of distributed applications in the cloud. The Azure Functions integration for Aspire enables you to develop, debug, and orchestrate an Azure Functions .NET project as part of an Aspire solution. Aspire publish directly deploys to your functions to Azure Functions on Azure Container Apps. Aspire 13 includes an updated preview version of the Functions integration that acts as a release candidate with go-live support. The package will be moved to GA quality with Aspire 13.1. Java 25, Node.js 24 Azure Functions now supports Java 25 and Node.js 24 in preview. You can now develop functions using these versions locally and deploy them to Azure Functions plans. Learn how to upgrade your apps to these versions here In Summary Ready to build what’s next? Update your Azure Functions Core Tools today and explore the latest samples and quickstarts to unlock new capabilities for your scenarios. The guided quickstarts run and deploy in under 5 minutes, and incorporate best practices—from architecture to security to deployment. We’ve made it easier than ever to scaffold, deploy, and scale real-world solutions with confidence. The future of intelligent, scalable, and secure applications starts now—jump in and see what you can create!
Bring Your Own Model (BYOM) for Azure AI Applications using Azure Machine Learning
Modern AI-powered applications running on Azure increasingly require flexibility in model choice. While managed model catalogs accelerate time to value, real-world enterprise applications often need to: Host open‑source or fine‑tuned models Deploy domain‑specific or regulated models inside a tenant boundary Maintain tight control over runtime environments and versions Integrate AI inference into existing application architectures This is where Bring Your Own Model (BYOM) becomes a core architectural capability, not just an AI feature. In this post, we’ll walk through a production-ready BYOM pattern for Azure applications, using: Azure Machine Learning as the model lifecycle and inference platform Azure-hosted applications (and optionally Microsoft Foundry) as the orchestration layer The focus is on building scalable, governable AI-powered apps on Azure, not platform lock‑in. We use SmolLM‑135M as a reference model. The same pattern applies to any open‑source or proprietary model. Reference Architecture: Azure BYOM for AI Applications At a high level, the responsibilities are clearly separated: Azure Layer Responsibility Azure Application Layer API, app logic, orchestration, agent logic Azure Machine Learning Model registration, environments, scalable inference Azure Identity & Networking Authentication, RBAC, private endpoints Key principle: Applications orchestrate. Azure ML executes the model. This keeps AI workloads modular, auditable, and production-safe. BYOM Workflow Overview Provision Azure Machine Learning Create Azure ML compute Author code in an Azure ML notebook Download and package the model Register the model Define a reproducible inference environment Implement scoring logic Deploy a managed online endpoint Use the endpoint from Microsoft Foundry Step 1: Provision Azure Machine Learning An Azure ML workspace is the governance boundary for BYOM: Model versioning and lineage Environment definitions Secure endpoint hosting Auditability Choose region carefully for latency, data residency, and networking. Step 2: Create Azure ML Compute (Compute Instance) Create a Compute Instance in Azure ML Studio. Why this matters: Managed Jupyter environment Identity integrated (no secrets in notebooks) Ideal for model packaging and testing - Enable auto‑shutdown for cost control - CPU is sufficient for most development workflows Step 3: Create an Azure ML Notebook Open Azure ML Studio → Notebooks Create a new Python notebook Select the Python SDK v2 kernel This notebook will handle the entire BYOM lifecycle. Step 4: Connect to the Azure ML Workspace # Import Azure ML SDK client from azure.ai.ml import MLClient # Import identity library for secure authentication from azure.identity import DefaultAzureCredential # Define workspace details subscription_id = "<SUBSCRIPTION_ID>" resource_group = "<RESOURCE_GROUP>" workspace_name = "<WORKSPACE_NAME>" # Create MLClient using Microsoft Entra ID # No keys or secrets are embedded in code ml_client = MLClient( DefaultAzureCredential(), subscription_id, resource_group, workspace_name ) The code above uses enterprise identity and aligns with zero‑trust practices. Step 5: Download and Package Model Artifacts from transformers import AutoModelForCausalLM, AutoTokenizer import os # Hugging Face model identifier model_id = "HuggingFaceTB/SmolLM-135M" # Local directory where model artifacts will be stored model_dir = "smollm_135m" os.makedirs(model_dir, exist_ok=True) # Download model weights model = AutoModelForCausalLM.from_pretrained(model_id) # Download tokenizer tokenizer = AutoTokenizer.from_pretrained(model_id) # Save artifacts locally model.save_pretrained(model_dir) tokenizer.save_pretrained(model_dir) 🔹 Open‑source or proprietary models follow the same packaging pattern 🔹 Azure ML treats all registered models identically Step 6: Register the Model in Azure ML Register the packaged artifacts as a custom model asset. Optionally, developers can: Enables version tracking Supports rolling upgrades Integrates with CI/CD pipelines This is the foundation for repeatable inference deployments. from azure.ai.ml.entities import Model # Create a model asset in Azure ML registered_model = Model( path=model_dir, name="SmolLM-135M", description="BYOM model for Microsoft Foundry extensibility", type="custom_model" ) # Register (or update) the model ml_client.models.create_or_update(registered_model) Step 7: Define a Reproducible Inference Environment name: dev-hf-base channels: - conda-forge dependencies: - python=3.12 - numpy=2.3.1 - pip=25.1.1 - scipy=1.16.1 - pip: - azureml-inference-server-http==1.4.1 - inference-schema[numpy-support] - accelerate==1.10.0 - einops==0.8.1 - torch==2.0.0 - transformers==4.55.2 ⚠️ Environment management is the hardest part of BYOM ✅ Treat environment changes like code changes BYOM Inference Patterns The same model can expose multiple behaviors. Pattern 1: Text Generation Endpoint This is the most common pattern for AI-powered applications: REST-based text generation Stateless inference Horizontal scaling through Azure ML managed endpoints Ideal for: Copilots Chat APIs Summarization or content generation services Scoring Script (score.py) import os import json import torch from transformers import AutoTokenizer, AutoModelForCausalLM def init(): """ Called once when the container starts. Loads the model and tokenizer into memory. """ global model, tokenizer # Azure ML injects model path at runtime model_dir = os.getenv("AZUREML_MODEL_DIR") tokenizer = AutoTokenizer.from_pretrained(model_dir) model = AutoModelForCausalLM.from_pretrained(model_dir) model.eval() def run(raw_data): """ Called for each inference request. Expects JSON input with a 'prompt' field. """ data = json.loads(raw_data) prompt = data.get("prompt", "") # Tokenize input text inputs = tokenizer(prompt, return_tensors="pt") # Generate text without tracking gradients with torch.no_grad(): outputs = model.generate(**inputs, max_new_tokens=100) # Decode output tokens into text response_text = tokenizer.decode(outputs[0], skip_special_tokens=True) return {"response": response_text} Example Request { "prompt": "Summarize the BYOM pattern in one sentence." } Example Response { "response": "Bring Your Own Model (BYOM) allows organizations to extend Microsoft Foundry with custom models hosted on Azure Machine Learning while maintaining enterprise governance and scalability." } Pattern 2: Predictive / Token Rank Analysis The same model can expose non-generative behaviors, such as: Token likelihood analysis Ranking or scoring Model introspection services This enables AI-backed analytics capabilities, not just chat. import torch from transformers import AutoModelForCausalLM, AutoTokenizer class PredictiveAnalysisModel: """ Computes the rank of each token based on the model's next-token probability distribution. """ def init(self, model, tokenizer): self.model = model self.tokenizer = tokenizer self.model.eval() def analyze(self, text): tokens = self.tokenizer.tokenize(text) token_ids = self.tokenizer.convert_tokens_to_ids(tokens) # Start with BOS token input_sequence = [self.tokenizer.bos_token_id, *token_ids] results = [] for i in range(len(token_ids)): context = input_sequence[: i + 1] model_input = torch.tensor([context]) with torch.no_grad(): outputs = self.model(model_input) logits = outputs.logits[0, -1] sorted_indices = torch.argsort(logits, descending=True) actual_token = token_ids[i] rank = (sorted_indices == actual_token).nonzero(as_tuple=True)[0].item() results.append({ "token": tokens[i], "rank": rank }) return results @classmethod def from_disk(cls, model_path): model = AutoModelForCausalLM.from_pretrained(model_path) tokenizer = AutoTokenizer.from_pretrained(model_path) return cls(model, tokenizer) Scoring Script (score.py) import os from predictive_analysis import PredictiveAnalysisModel def init(): """ Loads predictive analysis model from disk. """ global model model_dir = os.getenv("AZUREML_MODEL_DIR") model = PredictiveAnalysisModel.from_disk(model_dir) def run(text: str): """ Accepts raw text input and returns token ranks. """ return { "token_ranks": model.analyze(text) } Example Request { "text": "This is a test." } Example Response { "token_ranks": [ { "token": "This", "rank": 518 }, { "token": " is", "rank": 2 }, { "token": " a", "rank": 0 }, { "token": " test", "rank": 33 }, { "token": ".", "rank": 77 } ] } Consuming the BYOM Endpoint from Azure Applications Azure ML endpoints are external inference services consumed by apps. Option A: Application-Controlled Invocation App calls Azure ML endpoint directly IAM, networking, and retries controlled by the app Recommended for most production systems import requests import os AML_ENDPOINT = os.environ["AML_ENDPOINT"] AML_KEY = os.environ["AML_KEY"] headers = { "Authorization": f"Bearer {AML_KEY}", "Content-Type": "application/json" } payload = { "prompt": "Summarize BYOM in one sentence." } response = requests.post(AML_ENDPOINT, json=payload, headers=headers) print(response.json()) Option B: Tool-Based Invocation Expose the ML endpoint as an OpenAPI interface Allow higher-level orchestration layers (such as agents) to invoke it dynamically Both patterns integrate cleanly with Azure App Services, Container Apps, Functions, and Kubernetes-based apps. Operational Considerations Dependency management is ongoing work Model upgrades require redeployment Private networking must be planned early Use managed Foundry models where possible Use BYOM when business or regulatory needs require it Security and Governance by Default BYOM on Azure ML integrates natively with Azure platform controls: Entra ID & managed identity RBAC-based permissions Private networking and VNET isolation Centralized logging and diagnostics This makes BYOM suitable for regulated industries and production‑critical AI workloads. When Should You Use BYOM? BYOM is the right choice when: You need model choice independence You want to deploy open‑source or proprietary LLMs You require enterprise‑grade controls You are building AI APIs, agents, or copilots at scale For experimentation, higher‑level tooling may be faster. For production, BYOM provides the control and durability enterprises require. Conclusion Azure applications increasingly depend on AI, but models should not dictate architecture. With Azure Machine Learning as the execution layer and Azure Apps as the orchestration layer, organizations can: combine managed and custom models Enforce security and compliance Scale AI workloads reliably Avoid platform and vendor lock-in Bring Your Own Model (BYOM) is no longer a niche requirement. It is a foundational pattern for enterprise AI platforms. Azure Machine Learning enables BYOM across open‑source models, fine‑tuned variants, and proprietary LLMs, allowing organizations to innovate without being locked into a single model provider. You build the application. Azure delivers the platform. You own the model. That is the essence of BYOM on Azure.Announcing a flexible, predictable billing model for Azure SRE Agent
Billing for Azure SRE Agent will start on September 1, 2025. Announced at Microsoft Build 2025, Azure SRE Agent is a pre-built AI agent for root cause analysis, uptime improvement, and operational cost reduction. Learn more about the billing model and example scenarios.The Durable Task Scheduler Consumption SKU is now Generally Available
Today, we're excited to announce that the Durable Task Scheduler Consumption SKU has reached General Availability. Developers can now run durable workflows and agents on Azure with pay-per-use pricing, no storage to manage, no capacity to plan, and no idle costs. Just create a scheduler, connect your app, and start orchestrating. Whether you're coordinating AI agent workflows, processing event-driven pipelines, or running background jobs, the Consumption SKU is ready to go. GET STARTED WITH THE DURABLE TASK SCHEDULER CONSUMPTION SKU Since launching the Consumption SKU in public preview last November, we've seen incredible adoption and have incorporated feedback from developers around the world to ensure the GA release is truly production ready. “The Durable Task Scheduler has become a foundational piece of what we call ‘workflows’. It gives us the reliability guarantees we need for processing financial documents and sensitive workflows, while keeping the programming model straightforward. The combination of durable execution, external event correlation, deterministic idempotency, and the local emulator experience has made it a natural fit for our event-driven architecture. We have been delighted with the consumption SKUs cost model for our lower environments.”– Emily Lewis, CarMax What is the Durable Task Scheduler? If you're new to the Durable Task Scheduler, we recommend checking out our previous blog posts for a detailed background: Announcing Limited Early Access of the Durable Task Scheduler Announcing Workflow in Azure Container Apps with the Durable Task Scheduler Announcing Dedicated SKU GA & Consumption SKU Public Preview In brief, the Durable Task Scheduler is a fully managed orchestration backend for durable execution on Azure, meaning your workflows and agent sessions can reliably resume and run to completion, even through process failures, restarts, and scaling events. Whether you’re running workflows or orchestrating durable agents, it handles task scheduling, state persistence, fault tolerance, and built-in monitoring, freeing developers from the operational overhead of managing their own execution engines and storage backends. The Durable Task Scheduler works across Azure compute environments: Azure Functions: Using the Durable Functions extension across all Function App SKUs, including Flex Consumption. Azure Container Apps: Using the Durable Functions or Durable Task SDKs with built-in workflow support and auto-scaling. Any compute: Azure Kubernetes Service, Azure App Service, or any environment where you can run the Durable Task SDKs (.NET, Python, Java, JavaScript). Why choose the Consumption SKU? With the Consumption SKU you’re charged only for actions dispatched, with no minimum commitments or idle costs. There’s no capacity to size or throughput to reserve. Create a scheduler, connect your app, and you’re running. The Consumption SKU is a natural fit for workloads with unpredictable or bursty usage patterns: AI agent orchestration: Multi-step agent workflows that call LLMs, retrieve data, and take actions. Users trigger these on demand, so volume is spiky and pay-per-use avoids idle costs between bursts. Event-driven pipelines: Processing events from queues, webhooks, or streams with reliable orchestration and automatic checkpointing, where volumes spike and dip unpredictably. API-triggered workflows: User signups, form submissions, payment flows, and other request-driven processing where volume varies throughout the day. Distributed transactions: Retries and compensation logic across microservices with durable sagas that survive failures and restarts. What's included in the Consumption SKU at GA The Consumption SKU has been hardened based on feedback and real-world usage during the public preview. Here's what's included at GA: Performance Up to 500 actions per second: Sufficient throughput for a wide range of workloads, with the option to move to the Dedicated SKU for higher-scale scenarios. Up to 30 days of data retention: View and manage orchestration history, debug failures, and audit execution data for up to 30 days. Built-in monitoring dashboard Filter orchestrations by status, drill into execution history, view visual Gantt and sequence charts, and manage orchestrations (pause, resume, terminate, or raise events), all from the dashboard, secured with Role-Based Access Control (RBAC). Identity-based security The Consumption SKU uses Entra ID for authentication and RBAC for authorization. No SAS tokens or access keys to manage, just assign the appropriate role and connect. Get started with the Durable Task Scheduler today The Consumption SKU is available now Generally Available. Provision a scheduler in the Azure portal, connect your app, and start orchestrating. You only pay for what you use. Documentation Getting started Samples Pricing Consumption SKU docs We'd love to hear your feedback. Reach out to us by filing an issue on our GitHub repositoryBuilding the agentic future together at JDConf 2026
JDConf 2026 is just weeks away, and I’m excited to welcome Java developers, architects, and engineering leaders from around the world for two days of learning and connection. Now in its sixth year, JDConf has become a place where the Java community compares notes on their real-world production experience: patterns, tooling, and hard-earned lessons you can take back to your team, while we keep moving the Java systems that run businesses and services forward in the AI era. This year’s program lines up with a shift many of us are seeing first-hand: delivery is getting more intelligent, more automated, and more tightly coupled to the systems and data we already own. Agentic approaches are moving from demos to backlog items, and that raises practical questions: what’s the right architecture, where do you draw trust boundaries, how do you keep secrets safe, and how do you ship without trading reliability for novelty? JDConf is for and by the people who build and manage the mission-critical apps powering organizations worldwide. Across three regional livestreams, you’ll hear from open source and enterprise practitioners who are making the same tradeoffs you are—velocity vs. safety, modernization vs. continuity, experimentation vs. operational excellence. Expect sessions that go beyond “what” and get into “how”: design choices, integration patterns, migration steps, and the guardrails that make AI features safe to run in production. You’ll find several practical themes for shipping Java in the AI era: connecting agents to enterprise systems with clear governance; frameworks and runtimes adapting to AI-native workloads; and how testing and delivery pipelines evolve as automation gets more capable. To make this more concrete, a sampling of sessions would include topics like Secrets of Agentic Memory Management (patterns for short- and long-term memory and safe retrieval), Modernizing a Java App with GitHub Copilot (end-to-end upgrade and migration with AI-powered technologies), and Docker Sandboxes for AI Agents (guardrails for running agent workflows without risking your filesystem or secrets). The goal is to help you adopt what’s new while hardening your long lived codebases. JDConf is built for community learning—free to attend, accessible worldwide, and designed for an interactive live experience in three time zones. You’ll not only get 23 practitioner-led sessions with production-ready guidance but also free on-demand access after the event to re-watch with your whole team. Pro tip: join live and get more value by discussing practical implications and ideas with your peers in the chat. This is where the “how” details and tradeoffs become clearer. JDConf 2026 Keynote Building the Agentic Future Together Rod Johnson, Embabel | Bruno Borges, Microsoft | Ayan Gupta, Microsoft The JDConf 2026 keynote features Rod Johnson, creator of the Spring Framework and founder of Embabel, joined by Bruno Borges and Ayan Gupta to explore where the Java ecosystem is headed in the agentic era. Expect a practitioner-level discussion on how frameworks like Spring continue to evolve, how MCP is changing the way agents interact with enterprise systems, and what Java developers should be paying attention to right now. Register. Attend. Earn. Register for JDConf 2026 to earn Microsoft Rewards points, which you can use for gift cards, sweepstakes entries, and more. Earn 1,000 points simply by signing up. When you register for any regional JDConf 2026 event with your Microsoft account, you'll automatically receive these points. Get 5,000 additional points for attending live (limited to the first 300 attendees per stream). On the day of your regional event, check in through the Reactor page or your email confirmation link to qualify. Disclaimer: Points are added to your Microsoft account within 60 days after the event. Must register with a Microsoft account email. Up to 10,000 developers eligible. Points will be applied upon registration and attendance and will not be counted multiple times for registering or attending at different events. Terms | Privacy JDConf 2026 Regional Live Streams Americas – April 8, 8:30 AM – 12:30 PM PDT (UTC -7) Bruno Borges hosts the Americas stream, discussing practical agentic Java topics like memory management, multi-agent system design, LLM integration, modernization with AI, and dependency security. Experts from Redis, IBM, Hammerspace, HeroDevs, AI Collective, Tekskills, and Microsoft share their insights. Register for Americas → Asia-Pacific – April 9, 10:00 AM – 2:00 PM SGT (UTC +8) Brian Benz and Ayan Gupta co-host the APAC stream, highlighting Java frameworks and practices for agentic delivery. Topics include Spring AI, multi-agent orchestration, spec-driven development, scalable DevOps, and legacy modernization, with speakers from Broadcom, Alibaba, CERN, MHP (A Porsche Company), and Microsoft. Register for Asia-Pacific → Europe, Middle East and Africa – April 9, 9:00 AM – 12:30 PM GMT (UTC +0) The EMEA stream, hosted by Sandra Ahlgrimm, will address the implementation of agentic Java in production environments. Topics include self-improving systems utilizing Spring AI, Docker sandboxes for agent workflow management, Retrieval-Augmented Generation (RAG) pipelines, modernization initiatives from a national tax authority, and AI-driven CI/CD enhancements. Presentations will feature experts from Broadcom, Docker, Elastic, Azul Systems, IBM, Team Rockstars IT, and Microsoft. Register for EMEA → Make It Interactive: Join Live Come prepared with an actual challenge you’re facing, whether you’re modernizing a legacy application, connecting agents to internal APIs, or refining CI/CD processes. Test your strategies by participating in live chats and Q&As with presenters and fellow professionals. If you’re attending with your team, schedule a debrief after the live stream to discuss how to quickly use key takeaways and insights in your pilots and projects. Learning Resources Java and AI for Beginners Video Series: Practical, episode-based walkthroughs on MCP, GenAI integration, and building AI-powered apps from scratch. Modernize Java Apps Guide: Step-by-step guide using GitHub Copilot agent mode for legacy Java project upgrades, automated fixes, and cloud-ready migrations. AI Agents for Java Webinar: Embedding AI Agent capabilities into Java applications using Microsoft Foundry, from project setup to production deployment. Java Practitioner’s Guide: Learning plan for deploying, managing, and optimizing Java applications on Azure using modern cloud-native approaches. Register Now JDConf 2026 is a free global event for Java teams. Join live to ask questions, connect, and gain practical patterns. All 23 sessions will be available on-demand. Register now to earn Microsoft Rewards points for attending. Register at JDConf.com
HTTP Triggers in Azure SRE Agent: From Jira Ticket to Automated Investigation
Introduction Many teams run their observability, incident management, ticketing, and deployment on platforms outside of Azure—Jira, Opsgenie, Grafana, Zendesk, GitLab, Jenkins, Harness, or homegrown internal tools. These are the systems where alerts fire, tickets get filed, deployments happen, and operational decisions are made every day. HTTP Triggers make it easy to connect any of them to Azure SRE Agent—turning events from any platform into automated agent actions with a simple HTTP POST. No manual copy-paste, no context-switching, no delay between detection and response. In this blog, we'll demonstrate by connecting Jira to SRE Agent—so that every new incident ticket automatically triggers an investigation, and the agent posts its findings back to the Jira ticket when it's done. The Scenario: Jira Incident → Automated Investigation Your team manages production applications backed by Azure PostgreSQL Flexible Server. You use Jira for incident tracking. Today, when a P1 or P2 incident is filed, your on-call engineer has to manually triage—reading through the ticket, checking dashboards, querying logs, correlating recent deployments—before they can even begin working on a fix. Some teams have Jira automations that route or label tickets, but the actual investigation still starts with a human. HTTP Triggers let you bring SRE Agent directly into that existing workflow. Instead of adding another tool for engineers to check, the agent meets them where they already work. Jira ticket created → SRE Agent automatically investigates → Agent writes findings back to Jira The on-call engineer opens the Jira ticket and the investigation is already there—root cause analysis, evidence from logs and metrics, and recommended next steps—posted as a comment by the agent. Here's how to set this up. Architecture Overview Here's the end-to-end flow we'll build: Jira — A new issue is created in your project Logic App — The Jira connector detects the new issue, and the Logic App calls the SRE Agent HTTP Trigger, using Managed Identity for authentication HTTP Trigger — The agent prompt is rendered with the Jira ticket details (key, summary, priority, etc.) via payload placeholders Agent Investigation — The agent uses Jira MCP tools to read the ticket and search related issues, queries Azure logs, metrics, and recent deployments, then posts its findings back to the Jira ticket as a comment How HTTP Triggers Work Every HTTP Trigger you create in Azure SRE Agent exposes a unique webhook URL: https://<your-agent>.<instance>.azuresre.ai/api/v1/httptriggers/trigger/<trigger-id> When an external system sends a POST request to this URL with a JSON payload, the SRE Agent: Validates the trigger exists and is enabled Renders your agent prompt by injecting payload values into {payload.X} placeholders Creates a new investigation thread (or reuses an existing one) Executes the agent with the rendered prompt—autonomously or in review mode Records the execution in the trigger's history for auditing Payload Placeholders The real power of HTTP Triggers is in payload placeholders. When you configure a trigger, you write an agent prompt with {payload.X} tokens that get replaced at runtime with values from the incoming JSON. For example, a prompt like: Investigate Jira incident {payload.key}: {payload.summary} (Priority: {payload.priority}) Gets rendered with actual incident data before the agent sees it, giving it immediate context to begin investigating. If your prompt doesn't use any placeholders, the raw JSON payload is automatically appended to the prompt, so the agent always has access to the full context regardless. Thread Modes HTTP Triggers support two thread modes: New Thread (recommended for incidents): Every trigger invocation creates a fresh investigation thread, giving each incident its own isolated workspace Same Thread: All invocations share a single thread, building up a continuous conversation—useful for accumulating alerts from a single source Authenticating External Platforms The HTTP Trigger endpoint is secured with Azure AD authentication, ensuring only authorized callers can create agent investigation threads. Every request requires a valid bearer token scoped to the SRE Agent's data plane. External platforms like Jira send standard HTTP webhooks and don't natively acquire Azure AD tokens. To bridge this, you can use any Azure service that supports Managed Identity as an intermediary—this approach means zero secrets to store or rotate in the external platform. Common options include: Approach Best For Azure Logic Apps Native connectors for many platforms, no code required, visual workflow designer Azure Functions Simple relay with ~15 lines of code, clean URL for any webhook source API Management (APIM) Enterprise environments needing rate limiting, IP filtering, or API key management All three support Managed Identity and can transparently acquire the Azure AD token before forwarding requests to the SRE Agent HTTP Trigger. In this walkthrough, we'll use Azure Logic Apps with the built-in Jira connector. Step-by-Step: Connecting Jira to SRE Agent Prerequisites An Azure SRE Agent resource deployed in your subscription A Jira Cloud project with API token access An Azure subscription for the Logic App Step 1: Set Up the Jira MCP Connector First, let's give the SRE Agent the ability to interact with Jira directly. In your agent's MCP Tool settings, add the Jira connector: Setting Value Package mcp-atlassian (npm, version 2.0.0) Transport STDIO Configure these environment variables: Variable Value ATLASSIAN_BASE_URL https://your-site.atlassian.net ATLASSIAN_EMAIL Your Jira account email ATLASSIAN_API_TOKEN Your Jira API token Once the connector is added, select the specific MCP tools you want the agent to use. The connector provides 18 Jira tools out of 80 available. For our incident investigation workflow, the key tools include: jira-mcp_read_jira_issue — Read details from a Jira issue by issue key jira-mcp_search_jira_issues — Search for Jira issues using JQL (Jira Query Language) jira-mcp_add_jira_comment — Add a comment to a Jira issue (post investigation findings back) jira-mcp_list_jira_projects — List available Jira projects jira-mcp_create_jira_issue — Create a new Jira issue This gives the SRE Agent bidirectional access to Jira—it can read ticket details, fetch comments, query related issues, and post investigation findings back as comments on the original ticket. This closes the loop so your on-call engineers see the agent's analysis directly in Jira without switching tools. Step 2: Create the HTTP Trigger Navigate to Builder → HTTP Triggers in the SRE Agent UI and click Create. Setting Value Name jira-incident-handler Agent Mode Autonomous Thread Mode New Thread (one investigation per incident) Sub-Agent (optional) Select a specialized incident response agent Agent Prompt: A new Jira incident has been filed that requires investigation: Jira Ticket: {payload.key} Summary: {payload.summary} Priority: {payload.priority} Reporter: {payload.reporter} Description: {payload.description} Jira URL: {payload.ticketUrl} Investigate this incident by: Identifying the affected Azure resources mentioned in the description Querying recent metrics and logs for anomalies Checking for recent deployments or configuration changes Providing a structured analysis with Root Cause, Evidence, and Recommended Actions Once your investigation is complete, use the Jira MCP tools to post a summary of your findings as a comment on the original ticket ({payload.key}). After saving, enable the trigger and open the trigger detail view. Copy the Trigger URL—you'll need it for the Logic App. Step 3: Create the Azure Logic App In the Azure Portal, create a new Logic App: Setting Value Type Consumption (Multi-tenant, Stateful) Name jira-sre-agent-bridge Region Same region as your SRE Agent (e.g., East US 2) Resource Group Same resource group as your SRE Agent (recommended for simplicity) Step 4: Enable Managed Identity In the Logic App → Identity → System assigned: Set Status to On Click Save Step 5: Assign the SRE Agent Admin Role Navigate to your SRE Agent resource → Access control (IAM) → Add role assignment: Setting Value Role SRE Agent Admin Assign to Managed Identity → select your Logic App This grants the Logic App's Managed Identity the data-plane permissions needed to invoke HTTP Triggers. Important: The Contributor role alone is not sufficient. Contributor covers the Azure control plane, but SRE Agent uses a separate data plane with its own RBAC. The SRE Agent Admin role provides the required data-plane permissions. Step 6: Create the Jira Connection Open the Logic App designer. When adding the Jira trigger, it will prompt you to create a connection: Setting Value Connection name jira-connection Jira instance https://your-site.atlassian.net Email Your Jira email API Token Your Jira API token Step 7: Configure the Logic App Workflow Switch to the Logic App Code view and paste this workflow definition: { "definition": { "$schema": "https://schema.management.azure.com/providers/Microsoft.Logic/schemas/2016-06-01/workflowdefinition.json#", "contentVersion": "1.0.0.0", "triggers": { "When_a_new_issue_is_created_(V2)": { "recurrence": { "interval": 3, "frequency": "Minute" }, "splitOn": "@triggerBody()", "type": "ApiConnection", "inputs": { "host": { "connection": { "name": "@parameters('$connections')['jira']['connectionId']" } }, "method": "get", "path": "/v2/new_issue_trigger/search", "queries": { "X-Request-Jirainstance": "https://YOUR-SITE.atlassian.net", "projectKey": "YOUR_PROJECT_ID" } } } }, "actions": { "Call_SRE_Agent_HTTP_Trigger": { "runAfter": {}, "type": "Http", "inputs": { "uri": "https://YOUR-AGENT.azuresre.ai/api/v1/httptriggers/trigger/YOUR-TRIGGER-ID", "method": "POST", "headers": { "Content-Type": "application/json" }, "body": { "key": "@{triggerBody()?['key']}", "summary": "@{triggerBody()?['fields']?['summary']}", "priority": "@{triggerBody()?['fields']?['priority']?['name']}", "reporter": "@{triggerBody()?['fields']?['reporter']?['displayName']}", "description": "@{triggerBody()?['fields']?['description']}", "ticketUrl": "@{concat('https://YOUR-SITE.atlassian.net/browse/', triggerBody()?['key'])}" }, "authentication": { "type": "ManagedServiceIdentity", "audience": "https://azuresre.dev" } } } }, "outputs": {}, "parameters": { "$connections": { "type": "Object", "defaultValue": {} } } }, "parameters": { "$connections": { "type": "Object", "value": { "jira": { "id": "/subscriptions/YOUR-SUB/providers/Microsoft.Web/locations/YOUR-REGION/managedApis/jira", "connectionId": "/subscriptions/YOUR-SUB/resourceGroups/YOUR-RG/providers/Microsoft.Web/connections/jira", "connectionName": "jira" } } } } } Replace the YOUR-* placeholders with your actual values. To find your Jira project ID, navigate to https://your-site.atlassian.net/rest/api/3/project/YOUR-PROJECT-KEY in your browser and find the "id" field in the JSON response. The critical piece is the authentication block: "authentication": { "type": "ManagedServiceIdentity", "audience": "https://azuresre.dev" } This tells the Logic App to automatically acquire an Azure AD token for the SRE Agent data plane and attach it as a Bearer token. No secrets, no expiration management, no manual token refresh. After pasting the JSON and clicking Save, switch back to the Designer view. The Logic App automatically generates the visual workflow from the code — you'll see the Jira trigger ("When a new issue is created (V2)") connected to the HTTP action ("Call SRE Agent HTTP Trigger") as a two-step flow, with all the field mappings and authentication settings already configured What Happens Inside the Agent When the HTTP Trigger fires, the SRE Agent receives a fully contextualized prompt with all the Jira incident data injected: A new Jira incident has been filed that requires investigation: Jira Ticket: KAN-16 Summary: Elevated API Response Times — PostgreSQL Table Lock Causing Request Blocking on Listings Service Priority: High Reporter: Vineela Suri Description: Severity: P2 — High. Affected Service: Production API (octopets-prod-postgres). Impact: End users experience slow or unresponsive listing pages. Jira URL: https://your-site.atlassian.net/browse/KAN-16 Investigate this incident by: Identifying the affected Azure resources mentioned in the description Querying recent metrics and logs for anomalies ... The agent then uses its configured tools to investigate—Azure CLI to query metrics, Kusto to analyze logs, and the Jira MCP connector to read the ticket for additional context. Once the investigation is complete, the agent posts its findings as a comment directly on the Jira ticket, closing the loop without any manual copy-paste. Each execution is recorded in the trigger's history with timestamp, thread ID, success status, duration, and an AI-generated summary—giving you full observability into your automated investigation pipeline. Extending to Other Platforms The pattern we built here works for any external platform that isn't natively supported by SRE Agent. The core architecture stays the same: External Platform → Auth Bridge (Managed Identity) → SRE Agent HTTP Trigger You only need to swap the inbound side of the bridge. For example: External Platform Auth Bridge Configuration Jira Logic App with Jira V2 connector (polling) OpsGenie Logic App with OpsGenie connector, or Azure Function relay receiving OpsGenie webhooks Datadog Azure Function relay or APIM policy receiving Datadog webhook notifications Grafana Azure Function relay or APIM policy receiving Grafana alert webhooks Splunk APIM with webhook endpoint and Managed Identity forwarding Custom / Internal tools Logic App HTTP trigger, Azure Function relay, or APIM — any service that supports Managed Identity The SRE Agent HTTP Trigger and the Managed Identity authentication remain the same regardless of the source platform. You configure the trigger once, set up the auth bridge, and connect as many external sources as needed. Each trigger can have its own tailored prompt, sub-agent, and thread mode optimized for the type of incoming event. Key Takeaways HTTP Triggers extend Azure SRE Agent's reach to any external platform: Connect What You Use: If your incident platform isn't natively supported, HTTP Triggers provide the integration point—no code changes to SRE Agent required Secure by Design: Azure AD authentication with Managed Identity keeps the data plane protected while making integration straightforward through standard Azure services Bidirectional with MCP: Combine HTTP Triggers (inbound) with MCP connectors (outbound) for full round-trip integration—receive incidents automatically and post findings back to the source platform Full Observability: Every trigger execution is recorded with timestamps, thread IDs, duration, and AI-generated summaries Flexible Context Injection: Payload placeholders let you craft precise investigation prompts from incident data, while raw payload passthrough ensures the agent always has full context Getting Started HTTP Triggers are available now in the Azure SRE Agent platform: Create a Trigger: Navigate to Builder → HTTP Triggers → Create. Define your agent prompt with {payload.X} placeholders Set Up an Auth Bridge: Use Logic Apps, Azure Functions, or APIM with Managed Identity to handle Azure AD authentication Connect Your Platform: Point your external platform at the bridge and create a test event Within minutes, you'll have an automated pipeline that turns every incident ticket into an AI-driven investigation. Learn More HTTP Triggers Documentation Agent Hooks Blog Post — Governance controls for automated investigations YAML Schema Reference SRE Agent Getting Started Guide Ready to extend your SRE Agent to platforms it doesn't support natively? Set up your first HTTP Trigger today at sre.azure.com.Heroku Entered Maintenance Mode — Here's Your Next Move
Heroku has entered sustaining engineering — no new features, no new enterprise contracts. If you're running production workloads on the platform, you're probably thinking about what comes next. Azure Container Apps is worth a serious look. Scale-to-zero pricing, event-driven autoscaling, built-in microservice support, serverless GPUs, and an active roadmap — it's a container platform that handles everything from a simple web app to AI-native workloads, and you only pay for what you use. I migrated a real Heroku app to Container Apps to pressure-test the experience. Here's what I learned, what to watch out for, and how you can do it in an afternoon. Why Container Apps is the natural next chapter The philosophy carries over directly. Where Heroku had git push , Container Apps has: az containerapp up --name my-app --source . --environment my-env One command. If you have a Dockerfile, it builds and deploys your app directly. No local Docker install, no manual registry push — code in, URL out. That part didn't change. The concept mapping is tight: Heroku Azure Container Apps Dyno Container App replica Procfile process types Separate Container Apps Heroku add-ons Azure managed services Config vars Environment variables + secrets heroku run one-off dynos Container Apps Jobs Heroku Pipelines GitHub Actions Heroku Scheduler Scheduled Container Apps Jobs Container Apps also includes capabilities you'd need to piece together separately on Heroku — KEDA-powered autoscaling from any event source, Dapr for service-to-service communication, traffic splitting across revisions for safe rollouts, and scale to zero so you stop paying when nothing's running. Simplest path? If your app is a straightforward web server and you don't want containers at all, Azure App Service ( az webapp up ) is also available. But for most Heroku workloads — especially anything with workers, background jobs, or variable traffic — Container Apps is the better fit. What a real migration looks like I took a Node.js + Redis todo app from Heroku and moved it to Container Apps. The app is intentionally boring — Express server, Redis for storage, one web process. This is roughly what a lot of Heroku apps look like, and the migration took about 90 minutes end-to-end (most of that waiting for Redis to provision). Step 1: Export what you have heroku config --json --app my-heroku-app > heroku-config.json heroku apps:info --app my-heroku-app heroku addons --app my-heroku-app You want three things: your environment variables, your add-on list, and your app metadata. The config export is the most important one — it's every secret and connection string your app needs. Step 2: Create the Azure backing services For each Heroku add-on, create the Azure equivalent. Here are the common ones: Heroku add-on Azure service CLI command Heroku Postgres Azure Database for PostgreSQL az postgres flexible-server create Heroku Redis Azure Cache for Redis az redis create Heroku Scheduler Container Apps Jobs az containerapp job create SendGrid SendGrid via Marketplace (Portal) Papertrail / LogDNA Azure Monitor + Log Analytics (Enabled by default) For my todo app, I needed Redis: az redis create \ --name my-redis \ --resource-group my-rg \ --location swedencentral \ --sku Basic --vm-size c0 One thing to know: Azure Cache for Redis takes 10–20 minutes to provision. Heroku's Redis add-on takes about two minutes. Budget the time. Step 3: Containerize If you don't have a Dockerfile, write one. For a Node app this is about 10 lines: FROM node:20-slim WORKDIR /app COPY package*.json ./ RUN npm ci --omit=dev COPY . . EXPOSE 8080 CMD ["node", "server.js"] Don't have a Dockerfile? Point GitHub Copilot at the migration repo and it will generate one for your stack — Node, Python, Ruby, Java, or Go. The repo includes templates and a containerization skill that inspects your app and produces a production-ready Dockerfile. Step 4: Build, push, deploy I used Azure Container Registry (ACR) for the build. No local Docker install needed. az acr create --name myacr --resource-group my-rg --sku Basic az acr build --registry myacr --image my-app:v1 . Then create the Container App: az containerapp create \ --name my-app \ --resource-group my-rg \ --environment my-env \ --image myacr.azurecr.io/my-app:v1 \ --registry-server myacr.azurecr.io \ --target-port 8080 \ --ingress external \ --min-replicas 1 Step 5: Wire up the config This is where Heroku's config:get maps to Container Apps' secrets and environment variables. One gotcha I hit: you have to set secrets before you reference them in environment variables. If you try to do both at once, the deployment fails. # Set the secret first az containerapp secret set \ --name my-app \ --resource-group my-rg \ --secrets redis-url="rediss://:ACCESS_KEY@my-redis.redis.cache.windows.net:6380" # Then reference it az containerapp update \ --name my-app \ --resource-group my-rg \ --set-env-vars "REDIS_URL=secretref:redis-url" Step 6: Verify and cut over Hit the Azure URL, test your routes, check that data flows through the new Redis instance. When you're satisfied, update your DNS CNAME to point at the Container Apps FQDN. Total time: ~90 minutes, and most of that was waiting for Redis to provision. The actual migration work was about 30 minutes of CLI commands. Lessons from the field I want to be upfront about what to watch for — these are the things that would waste your time if you hit them unprepared. 📌 Register Azure providers first. If your subscription has never used Container Apps, you need to register the resource providers before creating anything: az provider register --namespace Microsoft.App --wait az provider register --namespace Microsoft.OperationalInsights --wait This takes a minute or two. Without it, resource creation fails with confusing error messages. 📌 Set secrets before referencing them in env vars. The CLI doesn't warn you — it just fails the deployment. Always az containerapp secret set first, then az containerapp update --set-env-vars . 📌 Budget time for Azure resource provisioning. Azure Cache for Redis takes 10–20 minutes vs Heroku's ~2 minutes. Enterprise-grade infrastructure takes a bit longer to spin up — plan accordingly and provision backing services in parallel. None of these are blockers. They're the kind of things a migration guide should tell you upfront — and ours does. Migrate today, build intelligent apps tomorrow Once your app is on Container Apps, you're on a platform built for AI-native workloads too. No second migration required: Serverless GPU — attach GPU compute to your Container Apps for inference workloads. Run models alongside your app, same environment, same deployment pipeline. No separate ML infrastructure to manage. Dynamic Sessions — spin up isolated, sandboxed code execution environments on demand. Build AI agents that execute tools, run LLM-generated code safely, or offer interactive coding experiences — all within your existing Container Apps environment. These aren't separate services you bolt on — they're configuration changes on the platform you're already running on. Building AI-native? Container Apps pairs naturally with Azure AI Foundry — one place to access state-of-the-art models from both OpenAI and Anthropic, manage prompts, evaluate outputs, and deploy endpoints. Your app runs on Container Apps; your intelligence runs on Foundry. Same subscription, same identity, no glue code between clouds. The applications being migrated today won't look the same in two years. A platform that grows with you — from web app to intelligent service — means you make this move once. You don't have to figure this out alone We've built the resources to make this migration fast and repeatable: 📖 Official Migration Guide — End-to-end walkthrough covering assessment, containerization, service mapping, and deployment. Start here. 🤖 Agent-Assisted Migration Repo — An open-source repository designed to work with GitHub Copilot and other AI coding assistants. It includes an AGENTS.md file and six migration skills that walk you through the entire process — from Heroku assessment to DNS cutover — with real CLI commands, Dockerfile templates for five languages, Bicep IaC, and GitHub Actions workflows. Point Copilot at the repo alongside your app's source code, and it becomes a migration pair-programmer: running the right commands, generating Dockerfiles, setting up CI/CD, and flagging things you might miss. This isn't a magic migrate my app button. It's more like having a colleague who has done this migration twenty times sitting next to you while you do it. The cost math works Let's talk numbers. Heroku plan Monthly cost Container Apps equivalent Monthly cost Standard-1X (idle most of the day) $25/mo Consumption plan (scale to zero) ~$0–5/mo Performance-L (steady traffic) $500/mo Dedicated plan with autoscaling Meaningfully less 10 low-traffic apps across dev/staging/prod $250+/mo Consumption plan with free grants Near zero Container Apps' monthly free grant covers 180,000 vCPU-seconds and 2 million requests. For apps that idle most of the day, that's often enough to pay nothing at all. The biggest savings come from workloads that don't run 24/7. Heroku charges for every hour a dyno is running, period. Container Apps charges for actual compute consumption and scales to zero when there's no traffic. Get started Inventory — Run heroku apps and heroku addons to see what you have. Pick a pilot — Choose a non-critical app for your first migration. Migrate — Follow the official migration guide, or point GitHub Copilot at the migration repo and let it pair with you. Azure Container Apps gives you a production-grade container platform with scale-to-zero economics, an active roadmap, and a path to AI-native workloads — all from a single az containerapp up command. If you're evaluating what comes after Heroku, start here. 👉 Start your migration · Clone the migration repo · Explore Azure Container AppsThe Swarm Diaries: What Happens When You Let AI Agents Loose on a Codebase
The Idea Single-agent coding assistants are impressive, but they have a fundamental bottleneck: they think serially. Ask one to build a full CLI app with a database layer, a command parser, pretty output, and tests, and it’ll grind through each piece one by one. Industry benchmarks bear this out: AIMultiple’s 2026 agentic coding benchmark measured Claude Code CLI completing full-stack tasks in ~12 minutes on average, with other CLI agents ranging from 3 to 14 minutes depending on the tool. A three-week real-world test by Render.com found single-agent coding workflows taking 10–30 minutes for multi-file feature work. But these subtasks don’t depend on each other. A storage agent doesn’t need to wait for the CLI agent. A test writer doesn’t need to watch the renderer work. What if they all ran at the same time? The hypothesis was straightforward: a swarm of specialized agents should beat a single generalist on at least two of three pillars — speed, quality, or cost. The architecture looked clean on a whiteboard: The reality was messier. But first, let me explain the machinery that makes this possible. How It’s Wired: Brains and Hands The system runs on a brains-and-hands split. The brain is an Azure Durable Task Scheduler (DTS) orchestration — a deterministic workflow that decomposes the goal into a task DAG, fans agents out in parallel, merges their branches, and runs quality gates. If the worker crashes mid-run, DTS replays from the last checkpoint. No work lost. Simple LLM calls — the planner that decomposes the goal, the judge that scores the output — run as lightweight DTS activities. One call, no tools, cheap. The hands are Microsoft Agent Framework (MAF) agents, each running in its own Docker container. One sandbox per agent, each with its own git clone, filesystem, and toolset. When an agent’s LLM decides to edit a file or run a build, the call routes through middleware to that agent’s isolated container. No two agents ever touch the same workspace. These complex agents — coders, researchers, the integrator — run as DTS durable entities with full agentic loops and turn-level checkpointing. The split matters because LLM reasoning and code execution have completely different reliability profiles. The brain checkpoints and replays deterministically. The hands are ephemeral — if a container dies, spin up a new one and replay the agent’s last turn. This separation is what lets you run five agents in parallel without them stepping on each other’s git branches, build artifacts, or file handles. It’s also what made every bug I was about to encounter debuggable. When something broke, I always knew which side broke — the orchestration logic, or the agent behavior. That distinction saved me more hours than any other design decision. The First Run Produced Nothing After hours of vibe-coding the foundation — Pydantic models, skill prompts, a prompt builder, a context store, sixteen architectural decisions documented in ADRs — I wired up the seven-phase orchestration and hit go. All five agents returned empty responses. Every single one. The logs showed agents “running” but producing zero output. I stared at the code for an embarrassingly long time before I found it. The planner returned task IDs as integers — 1, 2, 3 . The sandbox provisioner stored them as string keys — "1", "2", "3" . When the orchestrator did sandbox_map.get(1) , it got None . No sandbox meant no middleware. The agents were literally talking to thin air — making LLM calls with no tools attached, like a carpenter showing up to a job site with no hammer. The fix was one line. The lesson was bigger: LLMs don’t respect type contracts. They’ll return an integer when you expect a string, a list when you expect a dict, and a confident hallucination when they have nothing to say. Every boundary between AI-generated data and deterministic systems needs defensive normalization. This would not be the last time I learned that lesson. The Seven-Minute Merge Once agents actually ran and produced code, a new problem emerged. I watched the logs on a run that took twenty-one minutes total. Four agents finished their work in about twelve minutes. The remaining seven minutes were the LLM integrator merging four branches — eight to thirty tool calls per merge, using the premium model, to do what git merge --no-edit does in five seconds. I was paying for a premium LLM to run git diff , read both sides of every file, and write a merged version. For branches that merged cleanly. With zero conflicts. The fix was obvious in retrospect: try git merge first. If it succeeds — great, five seconds, done. Only call the LLM integrator when there are actual conflicts to resolve. Merge time dropped from seven minutes to under thirty seconds. I felt a little silly for not doing this from the start. When Agents Build Different Apps The merge speedup felt like a win until I looked at what was actually being merged. The storage agent had built a JSON-file backend. The CLI agent had written its commands against SQLite. Both modules were well-written. They compiled individually. Together, nothing worked — the CLI tried to import a Storage class that didn’t exist in the JSON backend. This was the moment I realized the agents weren’t really a team. They were strangers who happened to be assigned to the same project, each interpreting the goal in their own way. The fix was the single most impactful change in the entire project: contract-first planning. Instead of just decomposing the goal into tasks, the planner now generates API contracts — function signatures, class shapes, data model definitions — and injects them into every agent’s prompt. “Here’s what the Storage class looks like. Here’s what Task looks like. Build against these interfaces.” Before contracts, three of six branches conflicted and the quality score was 28. After contracts, zero of four branches conflicted and the score hit 68. It turns out the plan isn’t just a plan. In a multi-agent system, the plan is the product. A brilliant plan with mediocre agents produces working code. A vague plan with brilliant agents produces beautiful components that don’t fit together. The Agent Who Lied PR #4 came back with what looked like a solid result. The test writer reported three test files with detailed coverage summaries. The JSON output was meticulous — file names, function names, which modules each test covered. Then I checked tool_call_count: 0 . The test writer hadn’t written a single file. It hadn’t even opened a file. It received zero tools — because the skill loader normalized test_writer to underscores while the tool registry used test-writer with hyphens. The lookup failed silently. The agent got no tools, couldn’t do any work, and did what LLMs do when they can’t fulfill a request but feel pressure to answer: it made something up. Confidently. This happened in three of our first four evaluation runs. I called them “phantom agents” — they showed up to work, clocked in, filed a report, and went home without lifting a finger. The fix had two parts. First, obviously, fix the hyphen/underscore normalization. Second, and more importantly: add a zero-tool-call guard. If an agent that should be writing files reports success with zero tool calls, don’t believe it. Nudge it and retry. The deeper lesson stuck with me: agents will never tell you they failed. They’ll report success with elaborate detail. You have to verify what they actually did, not what they said they did. The Integrator Who Took Shortcuts Even with contracts preventing mismatched architectures, merge conflicts still happened when multiple agents touched the same files. The LLM integrator’s job was to resolve these conflicts intelligently, preserving logic from both sides. Instead, facing a gnarly conflict in models.py , it ran: git restore --source=HEAD -- models.py One command. Silently destroyed one agent’s entire implementation — the Task class, the constants, the schema version — gone. The integrator committed the lobotomized file and reported “merge resolved successfully.” The downstream damage was immediate. storage.py imported symbols that no longer existed. The judge scored 43 out of 100. The fixer agent had to spend five minutes reconstructing the data model from scratch. But that wasn’t even the worst shortcut. On other runs, the integrator replaced conflicting code with: def add_task(desc, priority=0): pass # TODO: implement storage layer When an LLM is asked to resolve a hard conflict, it’ll sometimes pick the easiest valid output — delete everything and write a placeholder. Technically valid Python. Functionally a disaster. Fixing this required explicit prompt guardrails: Never run git restore --source=HEAD Never replace implementations with pass # TODO placeholders When two implementations conflict, keep the more complete one After resolving each file, read it back and verify the expected symbols still exist The lesson: LLMs optimize for the path of least resistance. Under pressure, “valid” and “useful” diverge sharply. Demolishing the House for a Leaky Faucet When the judge scored a run below 70, the original retry strategy was: start over. Re-plan. Re-provision five sandboxes. Re-run all agents. Re-merge. Re-judge. Seven minutes and a non-trivial cloud bill, all because one agent missed an import statement. This was absurd. Most failures weren’t catastrophic — they were close. A missing model field. A broken import. An unhandled error case. The code was 90% right. Starting from scratch was like tearing down a house because the bathroom faucet leaks. So I built the fixer agent: a premium-tier model that receives the judge’s specific complaints and makes surgical edits directly on the integrator’s branch. No new sandboxes, no new branches, no merge step. The first time it ran, the score jumped from 43 to 89.5. Three minutes instead of seven. And it solved the problem that actually existed, rather than hoping a second roll of the dice would land better. Of course, the fixer’s first implementation had its own bug — it ran in a new sandbox, created a new branch, and occasionally conflicted with the code it was trying to fix. The fix to the fixer: just edit in place on the integrator’s existing sandbox. No branch, no merge, no drama. How Others Parallelize (and Why We Went Distributed) Most multi-agent coding frameworks today parallelize by spawning agents as local processes on a single developer machine. Depending on the framework, there’s typically a lead agent or orchestrator that breaks the task down into subtasks, spins up new agents to handle each piece, and combines their work when they finish — often through parallel TMux sessions or subprocess pools sharing a local filesystem. It’s simple, it’s fast to set up, and for many tasks it works. But local parallelization hits a ceiling. All agents share one machine’s CPU, memory, and disk I/O. Five agents each running npm install or cargo build compete for the same 32 GB of RAM. There’s no true filesystem isolation — two agents can clobber the same file if the orchestrator doesn’t carefully sequence writes. Recovery from a crash means restarting the entire local process tree. And scaling from 3 agents to 10 means buying a bigger machine. Our swarm takes a different approach: fully distributed execution. Each agent runs in its own Docker container with its own filesystem, git clone, and compute allocation — provisioned on AKS, ACA, or any container host. Four agents get four independent resource pools. If one container dies, DTS replays that agent from its last checkpoint in a fresh container without affecting the others. Git branch-per-agent isolation means zero filesystem conflicts by design. The trade-off is overhead: container provisioning, network latency, and the merge step add wall-clock time that a local TMux setup avoids. On a small two-agent task, local parallelization on a fast laptop probably wins. But for tasks with 4+ agents doing real work — cloning repos, installing dependencies, running builds and tests — independent resource pools and crash isolation matter. Our benchmarks on a 4-agent helpdesk system showed the swarm completing in ~8 minutes with zero resource contention, producing 1,029 lines across 14 files with 4 clean branch merges. The Scorecard After all of this, did the swarm actually beat a single agent? I ran head-to-head benchmarks: same prompt, same model (GPT-5-nano), solo agent vs. swarm, scored by a Sonnet 4.6 judge on a four-criterion rubric. Two tasks — a simple URL shortener (Render.com’s benchmark prompt) and a complex helpdesk ticket system. All runs are public — you can review every line of generated code: Task Solo Agent PR Swarm PR URL Shortener PR #1 PR #2 Helpdesk System PR #3 PR #4 URL Shortener (Simple) Helpdesk System (Complex) Quality (rubric, /5) Solo 1.9 → Swarm 2.5 (+32%) Solo 2.3 → Swarm 2.95 (+28%) Speed Solo 2.5 min → Swarm 5.5 min (2.2×) Solo 1.75 min → Swarm ~8 min (~4.5×) Tokens 7.7K → 30K (3.9×) 11K → 39K (3.4×) The pattern held across both tasks: +28–32% quality improvement, at the cost of 2–4× more time and ~3.5× more tokens. On the complex task, the quality gains broadened — the swarm produced better code organization (3/5 vs 2/5), actually wrote tests (code:test ratio 0 → 0.15), and generated 5× more files with cleaner decomposition. On the simple task, the gap came entirely from security practices: environment variables, parameterized queries, and proper .gitignore rules that the solo agent skipped entirely. Industry benchmarks from AIMultiple and Render.com show single CLI agents averaging 10–15 minutes on comparable full-stack tasks. Our swarm runs in 5–12 minutes depending on parallelizability — but the real win is quality, not speed. Specialized agents with a narrow, well-defined scope tend to be more thorough: the solo agent skipped tests and security practices entirely, while the swarm's dedicated agents actually addressed them. Two out of three pillars — with a caveat the size of your task. On small, tightly-coupled problems, just use one good agent. On larger, parallelizable work with three or more independent modules? The swarm earns its keep. What I Actually Learned The Rules That Stuck Contract-first planning. Define interfaces before writing implementations. The plan isn’t just a guide — it’s the product. Deterministic before LLM. Try git merge before calling the LLM integrator. Run ruff check before asking an agent to debug. Use code when you can; use AI when you must. Validate actions, not claims. An agent that reports “merge resolved successfully” may have deleted everything. Check tool call counts. Read the actual diff. Trust nothing. Cheap recovery over expensive retries. A fixer agent that patches one file beats re-running five agents from scratch. The cost of failure should be proportional to the failure. Not every problem needs a swarm. If the task fits in one agent’s context window, adding four more just adds overhead. The sweet spot is 3+ genuinely independent modules. The Bigger Picture The biggest surprise? Building a multi-agent AI system is more about software engineering than AI engineering. The hard problems weren’t prompt design or model selection — they were contracts between components, isolation of concerns, idempotent operations, observability, and recovery strategies. Principles that have been around since the 1970s. The agents themselves are almost interchangeable. Swap GPT for Claude, change the temperature, fine-tune the system prompt — it barely matters if your orchestration is broken. What matters is how you decompose work, how you share context, how you merge results, and how you recover from failure. Get the engineering right, and the AI just works. Get it wrong, and no model on earth will save you. By the Numbers The codebase is ~7,400 lines of Python across 230 tests and 141 commits. Over 10+ evaluation runs, the swarm processed a combined ~200K+ tokens, merged 20+ branches, and resolved conflicts ranging from trivial (package.json version bumps) to gnarly (overlapping data models). It’s built on Azure Durable Task Scheduler, Microsoft Agent Framework, and containerized sandboxes that run anywhere Docker does — AKS, ACA, or a plain docker run on your laptop. And somewhere in those 141 commits is a one-line fix for an integer-vs-string bug that took me an embarrassingly long time to find. References Azure Durable Task Scheduler — Deterministic workflow orchestration with replay, checkpointing, and fan-out/fan-in patterns. Microsoft Agent Framework (MAF) — Python agent framework for tool-calling, middleware, and structured output. Azure Kubernetes Service (AKS) — Managed Kubernetes for running containerized agent workloads at scale. Azure Container Apps (ACA) — Serverless container platform for simpler deployments. Azure OpenAI Service — Hosts the GPT models used by planner, coder, and judge agents. Built with Azure DTS, Microsoft Agent Framework, and containerized sandboxes (Docker, AKS, ACA — your choice). And a lot of grep through log files.
