New Microsoft Certified: SQL AI Developer Associate Certification
AI is transforming how data-driven applications are built, and SQL professionals are at the center of this new era. Whether you're a database developer, administrator, analyst, or architect, your SQL expertise is more critical than ever. With the rise of AI, quality data and secure, optimized queries are foundational to building intelligent, scalable solutions. We’re introducing the Microsoft Certified: SQL AI Developer Associate Certification to help you validate your ability to integrate AI capabilities directly into SQL-based solutions without needing to move your data, learn entirely new platforms, or move away from the T-SQL skills you already use every day. To earn this new Certification, you need to pass Exam DP‑800: Developing AI‑Enabled Database Solutions, currently in beta. Is this the right Certification for you? The Microsoft Certified: SQL AI Developer Associate Certification is designed for SQL professionals who build and maintain SQL-based applications and who want to integrate AI capabilities directly into their data solutions. As you collaborate closely with application developers, database administrators, architects, AI engineers, and DevSecOps teams, skills validated by this certification support the delivery of scalable, secure, and high-performance AI‑enabled applications. This Certification demonstrates your ability to: Design and build database solutions using structured and semi-structured data. Use AI-assisted tools to accelerate SQL development and database management. Secure, optimize, and deploy enterprise-grade SQL solutions. Implement vectors, embeddings, and retrieval-augmented generation (RAG) patterns within SQL database architectures. As a candidate for this Certification, you should have experience writing T-SQL, developing databases on Microsoft SQL platforms, and working with continuous integration and continuous deployment (CI/CD) workflows in GitHub. We also recommend familiarity with AI concepts, such as embeddings, vectors, and models, in addition to AI-assisted development tools. Skills measured by the exam include: Applying advanced T-SQL techniques for AI-ready database solutions. Building vector and semantic search experiences directly in SQL. Implementing RAG workflows to ground large language model (LLM) outputs and reduce hallucinations. Integrating LLMs into SQL-based applications without migrating data. Designing secure, compliant, and scalable AI-enabled data solutions. Exposing SQL data through APIs by using Data API builder. Building and monitoring data APIs by using Data API builder and event-driven change patterns. These capabilities power use cases like semantic and hybrid search, chatbots, personalized recommendations, fraud detection, and predictive analytics. Ready to prove your skills? The first 300 candidates can save 80% Take advantage of the discounted beta exam offer. The first 300 people who take Exam DP-800 (beta) on or before April 3, 2026, can get 80% off. To receive the discount, when you register for the exam and are prompted for payment, use code DP800Belzoni. This is not a private access code. The seats are offered on a first-come, first-served basis. As noted, you must take the exam on or before April 3, 2026. Please note that this discount is not available in Turkey, Pakistan, India, or China. How to prepare Get ready to take Exam DP-800 (beta): Review the Exam DP-800 (beta) exam page for details. The Exam DP-800 study guide explores key topics covered in the exam. Work through the self-paced skilling Plan on Microsoft Learn: Become a SQL AI Developer: Prepare for Certification Exam DP-800. Connect with Microsoft Training Services Partners in your area for in-person offerings. Need other preparation ideas? Check out Just How Does One Prepare for Beta Exams? Ready to get started? Remember, the number of spots is limited to the first 300 candidates taking Exam DP-800 (beta) on or before April 3, 2026. Beta exam rescoring begins when the exam goes live, with final results released approximately 10 days later. For more details, read Creating high-quality exams: The path from beta to live. Stay tuned for general availability of this Certification in May 2026. Additional information You can take Certification exams online, from your home or office. Learn what to expect in Online proctored exams: What to expect and how to prepare. For more cloud and AI Certification updates, read our recent blog post, The AI job boom is here. Are you ready to showcase your skills? Get involved: Help shape future Microsoft Credentials. Join our Microsoft Worldwide Learning SME Group for Credentials on LinkedIn for beta exam alerts and opportunities to help shape future Microsoft learning and assessments. Explore Microsoft Credentials on AI Skills Navigator.
FPGA vs ASIC for AI at the Edge: What factors influence your hardware choice?
As AI continues to move closer to edge devices, choosing the right hardware platform has become an important design decision. While both FPGAs and ASICs have their strengths, the best choice often depends on the application's requirements. Here are some of the key factors that engineering teams typically evaluate: Performance and latency requirements Power efficiency Development cost and NRE Time-to-market Production volume Need for future hardware updates FPGAs offer flexibility for rapid prototyping and evolving workloads, making them well-suited for early-stage development. ASICs, on the other hand, can provide significant advantages in performance, power consumption, and cost efficiency for high-volume production. I recently came across a technical article that explains these trade-offs in a structured way and found it useful as a reference: https://www.signoffsemiconductors.com/asic-vs-fpga/ I'd be interested to hear how others approach this decision. Have you migrated a design from FPGA to ASIC? What factors influenced your choice? Are there workloads where you would always choose one over the other?Partner Blog | From Microsoft Build to AI implementation: Build the skills to lead Frontier Transformation
Microsoft Build showcased the next phase of AI transformation. Across AI platforms, agents, and secure development, one message came through: customers are moving from AI exploration to implementation. For partners, that shift creates a practical opportunity. Customers are looking for guidance on ways to design, deploy, manage, secure, and scale AI-powered solutions that create measurable business value. That takes skilled teams, repeatable delivery capabilities, and a clear path from learning to implementation. This month’s skilling updates focus on turning Build momentum into action. New Frontier Transformation Engineering resources, on-demand Frontier Transformation Summit content, upcoming certification preparation, Microskilling, and go-to-market assets give partners multiple ways to strengthen AI implementation capabilities and show customers they are ready to lead. Build Frontier Transformation Engineering capability Frontier Transformation describes the shift from AI pilots to embedded, governed operating models. It requires technical depth across agents, Copilot, Microsoft Foundry, Microsoft IQ, security, governance, and business process transformation. The Frontier Transformation Engineer Badge is designed for technical professionals building this capability. It validates the skills needed to design and deliver AI agents across Copilot Studio, Microsoft Foundry, and the broader Frontier stack. For partners, the badge signals readiness to move from AI vision to execution. To support that journey, all of the Frontier Transformation Engineer Summit sessions are now available on demand, giving your teams a chance to revisit key content or catch up on sessions they missed. Use the recordings to continue progressing toward badge attainment and prepare your teams for the AI implementation work customers are prioritizing now. Continue reading hereGitHub Copilot App - Canvas Is Not a UI Builder
What if your development environment didn't just help you write code, but helped you observe, steer, and evolve a living system while it runs? That's the shift GitHub Copilot App Canvas represents. Canvas redefines how developers interact with agent-driven software: not by building traditional user interfaces, but by creating interactive environments where humans and AI co-create, test, and iterate in real time. This post walks through a real Canvas extension we built, a Multi-Agent Dev Canvas that demonstrates how Canvas becomes a runtime observability and control plane for an agent-driven system. We'll cover why Canvas exists, how it differs from traditional UI development, and how you can use it to accelerate the design-test-evolve loop for any multi-agent application. The Misconception: "Canvas Is for Building UIs" The first instinct many developers have when they see Canvas is to treat it like a UI framework, a place to build dashboards, boards, or user-facing applications. That's not what Canvas is for. Here's the distinction that matters: Traditional UIs are for using software. They serve end-users who interact with a finished product. Canvas is for shaping software while it runs. It serves developers and AI agents who are actively building, testing, and evolving a system. Canvas solves problems your final UI should never try to solve in a visible way. It's the observability layer, the control plane, the validation surface — all the things you need during development that disappear before production. Think of it this way: you wouldn't ship your debugger to users, but you absolutely need it while building. What We Built: A Multi-Agent Dev Canvas To demonstrate Canvas as a development runtime, we built a Multi-Agent Dev Canvas, a standalone GitHub Copilot Canvas extension (this repo, copilot-canvas-runtime) that treats an entire multi-agent system as a living, observable environment. The same pattern applies to any agent-driven system built on services such as Microsoft Foundry. The Multi-Agent Dev Canvas: a runtime observability and control plane where developers and AI agents collaborate to design, test, and evolve an agent-driven system in real time. The canvas provides four integrated panels: System View: See Your Agents Working Five specialised agents are displayed as live cards with real-time status indicators. Each card shows the agent's name, responsibility, current status (idle, running, done, or error), task count, and last action taken. When an agent is active, its card pulses blue. When it fails, it glows red. You see the system breathe. decompose_system — Breaks requirements into agent tasks execute_workflow — Coordinates agents to perform tasks validate_output — Runs evaluation tests and returns structured results update_system_design — Modifies architecture based on feedback track_state — Persists and updates system state over time Task Flows: Watch Work Move Through the Pipeline Below the agents, a flow graph visualises how tasks route between agents. When you decompose a system requirement like "Build an AI-powered code review agent," the canvas shows five components (pr-ingestion, code-analysis, feedback-generator, learning-loop, notification-service) flowing from the decomposer to the executor and designer agents. Each flow carries a status badge, pending, pass, or fail. Validation Panel: Continuous Testing, Not Afterthought Testing The validation panel displays structured test results with pass/fail badges and reasoning. When you run validation, each test case evaluates against specific criteria: ✅ "PR ingestion handles large diffs" — Meets criteria: process diffs over 5,000 lines without timeout ❌ "Feedback is actionable" — Failed: does not satisfy criteria that each suggestion includes a code fix ✅ "Learning loop converges" — Meets criteria: accept rate improves over 10 iterations ✅ "Notifications are non-blocking" — Meets criteria: delivery latency under 500ms This isn't a test runner you invoke separately, it's a validation surface embedded in the development loop. You see failures the moment they happen, in context, alongside the agents and flows that produced them. Live State Timeline: Every Mutation, Visible The right panel tracks every state change with timestamps. Decomposition events, workflow executions, validation runs, failure injections — all appear chronologically. This is the system's memory, visible to both the human developer and the AI agents working alongside them. Canvas as a Runtime: The Key Capabilities What makes Canvas a runtime rather than a display layer is that the agent can act through it. The canvas exposes seven agent-callable actions: Action What It Does decompose_system Accept requirements and components, generate task flows, update the system design execute_workflow Run pending tasks through the agent pipeline, produce artifacts validate_output Evaluate test cases against criteria, return structured pass/fail with reasoning update_system_design Modify the architecture description, constraints, or component list live track_state Read the full system state — agents, flows, validations, history, artifacts inject_failure Force an agent into an error state to test system adaptation pause_resume Toggle execution on and off The human developer can click Decompose, Execute, or Validate directly in the canvas. The AI agent can invoke the same actions programmatically. Both parties operate on the same surface, the same state, the same system, that's what makes Canvas collaborative in a way traditional tooling is not. Why This Matters: Canvas vs. Figma vs. Traditional UIs It helps to position Canvas against tools developers already know: Figma is Human-to-Human collaboration on design. Multiple people interact with the same visual surface, but nothing executes. It's a design tool. Traditional UIs are Human-to-System. Users interact with finished software through a polished interface. Canvas is Human-to-AI-to-System. It's a shared space where things actually execute. The developer steers, the AI acts, and the system evolves, all visible, all in real time. Canvas is collaborative in the Figma sense — it's a shared space, it's visual, multiple participants interact with the same surface. But unlike Figma, the participants include AI agents, and the surface isn't a mockup — it's a live system. How the Extension Works: Under the Hood A Canvas extension is a standard GitHub Copilot CLI extension, a single extension.mjs file that speaks JSON-RPC over stdio. The key components: 1. State Management Each canvas instance maintains its own system state: agents, task flows, validations, a state history timeline, artifacts, and the current system design. State is held in-memory per instance and pushed to the iframe via Server-Sent Events whenever it changes. function createInitialState() { return { agents: [ { id: "decomposer", name: "decompose_system", status: "idle", responsibility: "Break requirements into agent tasks" }, { id: "executor", name: "execute_workflow", status: "idle", responsibility: "Coordinate agents to perform tasks" }, // ... three more agents ], taskFlows: [], validations: [], stateHistory: [], artifacts: [], systemDesign: { description: "", constraints: [], components: [] }, execution: { paused: false, stepCount: 0 }, }; } 2. Real-Time Updates via Server-Sent Events The canvas runs a loopback HTTP server per instance. The iframe connects to an /events endpoint and receives state updates as they happen — no polling, no websocket complexity. if (req.url === "/events") { res.writeHead(200, { "Content-Type": "text/event-stream", "Cache-Control": "no-cache" }); clients.add(res); // Push current state immediately on connect res.write(`data: ${JSON.stringify(getState(instanceId))}\n\n`); } 3. Dual Interaction Model Every action is available through two paths. The human clicks a button in the iframe, which POSTs to the local server. The AI agent calls invoke_canvas_action through the SDK. Both paths mutate the same state and trigger the same SSE broadcast. Neither is privileged over the other. 4. Canvas Declaration The canvas registers with the Copilot SDK using createCanvas , declaring its identity, description, and all agent-callable actions with JSON Schema validation on inputs: createCanvas({ id: "multi-agent-dev", displayName: "Multi-Agent Dev Canvas", description: "Runtime observability and control plane for multi-agent development", actions: [ { name: "decompose_system", description: "Break requirements into agent tasks", inputSchema: { type: "object", properties: { requirements: { type: "string" }, components: { type: "array", items: { type: "string" } } }, required: ["requirements"] }, handler: async (ctx) => { /* ... */ }, }, // ... six more actions ], open: async (ctx) => { /* start server, return URL */ }, onClose: async (ctx) => { /* clean up */ }, }); Scenarios This Enables The Multi-Agent Dev Canvas supports four development scenarios that would be impossible with traditional tooling: 1. End-to-End Feature Design Tell the agent "Build an AI-powered code review system." Watch it decompose the requirement into five components, route tasks to specialist agents, execute the workflow, and validate the outputs, all visible in real time. Iterate by modifying constraints or components and re-running. 2. Live Agent Collaboration Observation See how agents hand off work to each other. The flow graph shows which agent produced what, which tasks are pending, and where bottlenecks form. This is the kind of observability you need when debugging multi-agent orchestration but would never expose in a production UI. 3. Fault Injection and Adaptation Testing Use inject_failure to force an agent into an error state. Watch how the system responds. Does the orchestrator recover? Do downstream tasks fail gracefully? This chaos-engineering approach, applied during development, visible in real time, catches integration failures before they reach production. 4. Validation-Driven Iteration Define test criteria, run validation, see which tests fail, update the system design, re-run. The validation panel isn't a separate CI pipeline, it's embedded in the development surface, creating a continuous feedback loop between design decisions and their measurable outcomes. Getting Started: Build Your Own Canvas Extension To create a Canvas extension in your own project: Read the SDK docs — Run extensions_manage({ operation: "guide" }) in GitHub Copilot CLI to get the canonical documentation paths. Scaffold — Run extensions_manage({ operation: "scaffold", kind: "canvas", name: "my-canvas", location: "project" }) to generate the boilerplate. Implement — Edit extension.mjs with your canvas logic: state model, actions, renderer HTML, and SSE updates. Reload — Run extensions_reload to activate your changes. Drive — Open with open_canvas , invoke actions with invoke_canvas_action , and iterate. The canvas extension lives in .github/extensions/your-canvas/extension.mjs for project-scoped extensions, or in your user extensions directory for personal use. No package.json needed, the github/copilot-sdk import is auto-resolved. Key Takeaways Canvas is a development runtime, not a UI framework. You don't build Canvas instead of your UI, you use Canvas to figure out, test, and evolve the UI and system before and during building it. Canvas solves problems your final UI should never expose. Agent observability, fault injection, live state mutation, validation feedback loops, these are development concerns, not user concerns. Canvas is Human-to-AI-to-System collaboration. Both the developer and the AI agent operate on the same surface, the same state, the same running system. It's Figma-like collaboration, but with AI agents, and things actually execute. Canvas turns debugging, testing, and execution into a continuous visual feedback loop. Instead of switching between an editor, a terminal, a test runner, and a monitoring dashboard, you have one surface where the system lives and evolves. Canvas extensions are lightweight. A single extension.mjs file, no dependencies, loopback HTTP server with SSE, the infrastructure gets out of the way so you can focus on the system you're building. The Bigger Picture Canvas redefines software development by shifting from writing static code to orchestrating living systems. Developers and AI co-create, observe, and evolve solutions in real time. Instead of building UIs for users, we build interactive environments for agents, turning debugging, testing, and execution into a continuous, visual feedback loop that accelerates innovation and brings ideas to production faster than ever. The Multi-Agent Dev Canvas we built here is one example. The pattern applies anywhere you're building agent-driven systems: AI orchestration, workflow automation, data pipelines, autonomous services. Anywhere you need to see, steer, and validate a complex system as it runs, that's where Canvas belongs. Resources copilot-canvas-runtime — this repository: the Multi-Agent Dev Canvas extension, scenario, and demo prompt GitHub Copilot Documentation — Official documentation for GitHub Copilot features Microsoft Foundry Documentation — Build and deploy AI agents with Microsoft Foundry
Getting Started with AI and MS Copilot - English
🚀 Ready to explore AI and Microsoft Copilot in a fun, hands-on way? Join our session: “Introduction to AI and Microsoft Copilot”—designed for educators who are just getting started! ✅ Learn the fundamentals of generative AI ✅ Master the art of creating effective prompts ✅ Discover practical ways to use these tools in your classroom ✅ Access ready-to-use teaching resources ✅ Practice with 10 interactive exercises 📅 Don’t miss this opportunity to boost your teaching with AI! #MicrosoftCopilot #Educators #Innovation #TeachingTools Getting Started with AI and MS Copilot - English | Meeting-Join | Microsoft TeamsFrontier Transformation campaign in a box now available in Partner Marketing Center
AI transformation is moving beyond isolated experimentation to organization-wide initiatives and customers are looking for partners who can help them scale. Organizations scaling AI are seeing measurable gains across productivity, efficiency, and customer engagement. To support this shift, the Frontier Transformation campaign in a box provides a ready-to-launch, co-branded marketing campaign aligned to Microsoft AI solutions. This campaign is aligned with the Frontier Success framework and engages customers as they advance in their AI maturity, with messaging that connects AI capabilities to real business context while reinforcing trust, governance, and security. Available in Partner Marketing Center Pro, the Frontier Transformation campaign in a box empowers you to go market faster, support lead generation, and build pipeline. Partner Marketing Center Pro is available to partners who have purchased a partner benefits package, attained a Solutions Partner designation or are enrolled in ISV Success. Explore Frontier Transformation campaign in a box.📣 Getting Started with AI and MS Copilot — Português
Olá, 👋 📢 Quer explorar IA e Microsoft Copilot de forma prática para o aprendizado? Participe da sessão “Introdução à IA com o uso do MS Copilot”, pensada especialmente para docentes que estão começando a usar o Copilot. Vamos aprender os fundamentos da IA generativa, como criar boas instruções e aplicar essas ferramentas na sala de aula. 📌 Sessão com exemplos práticos, materiais para utilizar e um espaço ideal para praticar e tirar dúvidas. No horário indicado, favor realizar acesso ao link.📣 MSLE Onboarding Session — Português
Olá, 👋 Espero que estejam bem! ✨Participe da sessão de introdução ao programa MSLE para Educadores! Nesta sessão: ✅ Vamos explorar os benefícios e o alcance do programa ✅ Conhecer em detalhe os dois portais principais aos quais você terá acesso ✅ Esclarecer todas as suas dúvidas em um ambiente colaborativo Este é o seu primeiro passo rumo a uma experiência enriquecedora, onde conhecimento, inovação e comunidade se unem para impulsionar você ao próximo nível. No horário indicado, favor realizar acesso ao link.Dragon Copilot and Microsoft Marketplace are transforming the way healthcare is delivered
If AI has so much promise in healthcare, why does it still feel so hard to apply in everyday workflows? That question is starting to shape much of the conversation across the industry. Healthcare teams aren’t debating whether AI matters anymore, they’re focused on how to make it work in environments that are already stretched thin. Reality: Healthcare has a capacity problem Healthcare isn’t dealing with a demand problem; it’s dealing with a capacity constraint. In fact, 79% of healthcare workers say they don’t have enough time or energy to do their work, 51% of healthcare leaders say productivity needs to increase, and 79% are confident AI will play a role in expanding organizational capacity. That pressure shows up everywhere: in documentation backlogs, fragmented and click-heavy workflows, administrative overload, and ultimately less time spent with patients. This is where the conversation around AI is shifting; not toward adding more tools but toward removing friction from the workflows that already exist and helping care teams move faster with less overhead inside the flow of care. That reality came through clearly during a recent Microsoft Marketplace Customer Office Hour on Dragon Copilot and Microsoft Marketplace: how to operationalize AI within real-world clinical workflows and enterprise healthcare environments that are experiencing a capacity problem. Instead of focusing on future-state possibilities, the conversation centered on what it takes to move from promise to practice, and where AI can start delivering value today. That distinction matters because developers, healthcare architects, and AI engineers are no longer asking whether AI can create value. The industry has largely accepted that it will play a meaningful role across healthcare. The real challenge is how to integrate into environments already burdened by operational complexity, fragmented workflows, regulatory pressures, and disconnected technologies. In practice, most healthcare organizations aren’t lacking data or systems, they’re struggling with how those systems work together. Clinicians and administrative teams operate across EHRs, reimbursement platforms, documentation tools, referral systems, messaging apps, and care coordination workflows that often function in isolation. Each additional screen, handoff, or disconnected experience introduces friction, and over time that friction compounds into inefficiencies that impact clinicians, administrators, and ultimately patients. This is why AI cannot simply sit on top of existing systems as another productivity layer; it needs to act as an orchestration layer that reduces complexity directly within the flow of care. That shift fundamentally changes how we think about healthcare AI, moving from isolated features to embedded intelligence that supports the workflows where care teams already spend their time. Dragon Copilot as a clinical workflow platform Dragon Copilot is not positioned as just another ambient listening tool or conversational assistant. It's designed as a clinical workflow platform that integrates into how care is delivered. While voice capabilities like ambient listening and natural language interaction are foundational, the real value comes from combining contextual intelligence, workflow automation, and extensibility. In practice, that means clinicians can access relevant information directly within their workflow, reduce fragmentation across systems, and act using natural language without constantly switching between tools. Extending healthcare AI through Microsoft Marketplace What makes this even more compelling is how Dragon Copilot extends through AI apps and agents connected via Microsoft Marketplace. This shifts the conversation from a single AI solution to a broader ecosystem approach. Instead of relying on monolithic systems to solve every problem, healthcare organizations can layer specialized AI capabilities directly into their workflows. During the session, we walked through examples like coding and charge capture, denial prevention, eligibility verification, medication safety checks, and patient education each addressing a specific operational need without requiring organizations to replace core systems. From a technical perspective, what stands out is not just automation, but the ability to reduce workflow re-entry and repetitive administrative loops. Today, many processes require clinicians and administrators to document, submit, reprocess, and reconcile information across disconnected systems. By embedding AI into those workflows, whether for coding validation, reimbursement support, or clinical guidance, organizations can streamline those cycles, improve continuity between systems, and reduce the compounding operational burden that slows teams down. What does this mean for healthcare developers For developers building healthcare solutions, this shift opens meaningful opportunities across workflow orchestration, AI-assisted compliance, operational intelligence, policy validation, and real-time financial support. More importantly, it reflects a broader architectural change in how healthcare technology is evolving. Rather than attempting to replace existing systems, the industry is moving toward connected AI services that extend and augment what’s already in place. This approach matters because healthcare organizations rarely overhaul core infrastructure all at once. Instead, they evolve incrementally by layering new capabilities into existing workflows. Dragon Copilot, combined with Microsoft Marketplace, is designed to support that model. AI agents can surface insights, automate repetitive tasks, and support decision-making while staying embedded within established clinical environments, helping developers build solutions that are practical, scalable, and aligned with how healthcare systems actually operate today. The strategic value of ecosystem extensibility As the importance of ecosystem extensibility continues to grow, Microsoft is intentionally building beyond a standalone healthcare AI solution. Instead, the focus is on creating an ecosystem that enables connected intelligence across clinical and operational workflows. For developers, this shift has real implications. It directly impacts how quickly solutions can be built, how easily they can be deployed, and how far innovation can scale. Without extensibility, progress is constrained by the roadmap of a single platform. With it, developers and healthcare technology providers can target highly specific workflow gaps with purpose-built solutions. That opens the door to a new class of innovations from AI agents and workflow accelerators to embedded clinical decision support and healthcare-specific automation designed to fit seamlessly into existing environments and address the nuanced needs of modern care delivery. Reducing adoption friction in enterprise healthcare The Marketplace component of this strategy directly addresses some of the most persistent barriers to adoption in enterprise healthcare. Organizations can simplify procurement, reduce vendor onboarding friction, streamline licensing, and consolidate billing through Microsoft’s existing purchasing infrastructure. From a developer and software company perspective, this is significant because historically the challenge in healthcare hasn’t been building new capabilities but getting them adopted and scaled in complex environments. By reducing the effort required to evaluate, purchase, deploy, and operationalize AI solutions, Marketplace changes the pace at which organizations can move from experimentation to real-world implementation. That efficiency becomes critical as healthcare shifts from isolated pilots to production-scale deployments, where speed, integration, and operational alignment ultimately determine whether AI delivers meaningful impact. From AI experimentation to production-ready workflows Healthcare AI is no longer confined to pilots or conceptual experimentation. Organizations are now evaluating production-ready solutions that can integrate directly into enterprise workflows. That shift brings a different set of expectations for developers and architects. Instead of asking whether AI can generate useful outputs, the focus has moved to operational questions: Can these systems integrate seamlessly into clinician workflows? Will they reduce complexity without introducing disruption? Can they scale reliably, perform consistently, and meet regulatory requirements? These are not just AI challenges, they’re deeply rooted in systems integration, workflow design, operational engineering, and enterprise architecture. Success depends not only on model performance, but on how well AI fits into the realities of healthcare delivery, supports care teams in context, and operates within the constraints of highly regulated, mission-critical environments. Designing for operational value, not just model innovation This is exactly why the conversation matters for the healthcare developer community right now. Future success in healthcare AI will depend less on model novelty and more on how well those models integrate into real workflows. Most healthcare organizations are already navigating fragmented environments filled with disconnected systems, and the solutions that deliver lasting value will be the ones that reduce cognitive load, minimize context switching, surface information at the right moment, and integrate naturally into day-to-day clinical work. In that sense, the challenge becomes less about AI in isolation and more about systems design. Meaningful progress won’t come from standalone copilots operating outside enterprise infrastructure. It will come from connected ecosystems where AI services, workflow accelerators, and operational tools work together seamlessly. That’s how intelligent healthcare workflows take shape: not as a single application, but as a coordinated system designed around how care is actually delivered. Why this direction matters for the developer ecosystem Dragon Copilot is emerging not just as a healthcare AI experience, but as a platform that brings together workflow intelligence and ecosystem extensibility. By connecting directly into operational healthcare workflows and enabling integration through Microsoft Marketplace, it creates new opportunities for healthcare developers, enterprise architects, and workflow automation providers to build solutions that are both targeted and scalable. While the ecosystem is still evolving, the strategic direction is becoming increasingly clear: AI agents and connected applications are moving closer to the workflow layer itself. In healthcare, that proximity matters. The solutions that integrate most naturally into day-to-day operations, rather than existing alongside them, are the ones most likely to drive meaningful adoption and long-term impact. Watch the full session For organizations building healthcare software, enterprise AI systems, workflow automation platforms, or operational healthcare technologies, the Microsoft Marketplace Customer Office Hour session provides valuable insight into how Microsoft is approaching healthcare AI at ecosystem scale. 👉 Learn more and watch the full session here: Healthcare innovation with Dragon Copilot and Microsoft Marketplace Additional Resources You can learn more through Microsoft Marketplace, the Marketplace Customer Office Hours series, the Microsoft Marketplace Community, and the Dragon Copilot apps and agents resources.
