From Zero to 16 Games in 2 Hours
From Zero to 16 Games in 2 Hours: Teaching Prompt Engineering to Students with GitHub Copilot CLI Introduction What happens when you give a room full of 14-year-olds access to AI-powered development tools and challenge them to build games? You might expect chaos, confusion, or at best, a few half-working prototypes. Instead, we witnessed something remarkable: 16 fully functional HTML5 games created in under two hours, all from students with varying programming experience. This wasn't magic, it was the power of GitHub Copilot CLI combined with effective prompt engineering. By teaching students to communicate clearly with AI, we transformed a traditional coding workshop into a rapid prototyping session that exceeded everyone's expectations. The secret weapon? A technique called "one-shot prompting" that enables anyone to generate complete, working applications from a single, well-crafted prompt. In this article, we'll explore how we structured this workshop using CopilotCLI-OneShotPromptGameDev, a methodology designed to teach prompt engineering fundamentals while producing tangible, exciting results. Whether you're an educator planning STEM workshops, a developer exploring AI-assisted coding, or simply curious about how young people can leverage AI tools effectively, this guide provides a practical blueprint you can replicate. What is GitHub Copilot CLI? GitHub Copilot CLI extends the familiar Copilot experience beyond your code editor into the command line. While Copilot in VS Code suggests code completions as you type, Copilot CLI allows you to have conversational interactions with AI directly in your terminal. You describe what you want to accomplish in natural language, and the AI responds with shell commands, explanations, or in our case, complete code files. This terminal-based approach offers several advantages for learning and rapid prototyping. Students don't need to configure complex IDE settings or navigate unfamiliar interfaces. They simply type their request, review the AI's output, and iterate. The command line provides a transparent view of exactly what's happening, no hidden abstractions or magical "autocomplete" that obscures the learning process. For our workshop, Copilot CLI served as a bridge between students' creative ideas and working code. They could describe a game concept in plain English, watch the AI generate HTML, CSS, and JavaScript, then immediately test the result in a browser. This rapid feedback loop kept engagement high and made the connection between language and code tangible. Installing GitHub Copilot CLI Setting up Copilot CLI requires a few straightforward steps. Before the workshop, we ensured all machines were pre-configured, but students also learned the installation process as part of understanding how developer tools work. First, you'll need Node.js installed on your system. Copilot CLI runs as a Node package, so this is a prerequisite: # Check if Node.js is installed node --version # If not installed, download from https://nodejs.org/ # Or use a package manager: # Windows (winget) winget install OpenJS.NodeJS.LTS # macOS (Homebrew) brew install node # Linux (apt) sudo apt install nodejs npm These commands verify your Node.js installation or guide you through installing it using your operating system's preferred package manager. Next, install the GitHub CLI, which provides the foundation for Copilot CLI: # Windows winget install GitHub.cli # macOS brew install gh # Linux sudo apt install gh This installs the GitHub command-line interface, which handles authentication and provides the framework for Copilot integration. With GitHub CLI installed, authenticate with your GitHub account: gh auth login This command initiates an interactive authentication flow that connects your terminal to your GitHub account, enabling access to Copilot features. Finally, install the Copilot CLI extension: gh extension install github/gh-copilot This adds Copilot capabilities to your GitHub CLI installation, enabling the conversational AI features we'll use for game development. Verify the installation by running: gh copilot --help If you see the help output with available commands, you're ready to start prompting. The entire setup takes about 5-10 minutes on a fresh machine, making it practical for classroom environments. Understanding One-Shot Prompting Traditional programming education follows an incremental approach: learn syntax, understand concepts, build small programs, gradually tackle larger projects. This method is thorough but slow. One-shot prompting inverts this model—you start with the complete vision and let AI handle the implementation details. A one-shot prompt provides the AI with all the context it needs to generate a complete, working solution in a single response. Instead of iteratively refining code through multiple exchanges, you craft one comprehensive prompt that specifies requirements, constraints, styling preferences, and technical specifications. The AI then produces complete, functional code. This approach teaches a crucial skill: clear communication of technical requirements. Students must think through their entire game concept before typing. What does the game look like? How does the player interact with it? What happens when they win or lose? By forcing this upfront thinking, one-shot prompting develops the same analytical skills that professional developers use when writing specifications or planning architectures. The technique also demonstrates a powerful principle: with sufficient context, AI can handle implementation complexity while humans focus on creativity and design. Students learned they could create sophisticated games without memorizing JavaScript syntax—they just needed to describe their vision clearly enough for the AI to understand. Crafting Effective Prompts for Game Development The difference between a vague prompt and an effective one-shot prompt is the difference between frustration and success. We taught students a structured approach to prompt construction that consistently produced working games. Start with the game type and core mechanic. Don't just say "make a game"—specify what kind: Create a complete HTML5 game where the player controls a spaceship that must dodge falling asteroids. This opening establishes the fundamental gameplay loop: control a spaceship, avoid obstacles. The AI now has a clear mental model to work from. Add visual and interaction details. Games are visual experiences, so specify how things should look and respond: Create a complete HTML5 game where the player controls a spaceship that must dodge falling asteroids. The spaceship should be a blue triangle at the bottom of the screen, controlled by left and right arrow keys. Asteroids are brown circles that fall from the top at random positions and increasing speeds. These additions provide concrete visual targets and define the input mechanism. The AI can now generate specific CSS colors and event handlers. Define win/lose conditions and scoring: Create a complete HTML5 game where the player controls a spaceship that must dodge falling asteroids. The spaceship should be a blue triangle at the bottom of the screen, controlled by left and right arrow keys. Asteroids are brown circles that fall from the top at random positions and increasing speeds. Display a score that increases every second the player survives. The game ends when an asteroid hits the spaceship, showing a "Game Over" screen with the final score and a "Play Again" button. This complete prompt now specifies the entire game loop: gameplay, scoring, losing, and restarting. The AI has everything needed to generate a fully playable game. The formula students learned: Game Type + Visual Description + Controls + Rules + Win/Lose + Score = Complete Game Prompt. Running the Workshop: Structure and Approach Our two-hour workshop followed a carefully designed structure that balanced instruction with hands-on creation. We partnered with University College London and students access to GitHub Education to access resources specifically designed for classroom settings, including student accounts with Copilot access and amazing tools like VSCode and Azure for Students and for Schools VSCode Education. The first 20 minutes covered fundamentals: what is AI, how does Copilot work, and why does prompt quality matter? We demonstrated this with a live example, showing how "make a game" produces confused output while a detailed prompt generates playable code. This contrast immediately captured students' attention, they could see the direct relationship between their words and the AI's output. The next 15 minutes focused on the prompt formula. We broke down several example prompts, highlighting each component: game type, visuals, controls, rules, scoring. Students practiced identifying these elements in prompts before writing their own. This analysis phase prepared them to construct effective prompts independently. The remaining 85 minutes were dedicated to creation. Students worked individually or in pairs, brainstorming game concepts, writing prompts, generating code, testing in browsers, and iterating. Instructors circulated to help debug prompts (not code an important distinction) and encourage experimentation. We deliberately avoided teaching JavaScript syntax. When students encountered bugs, we guided them to refine their prompts rather than manually fix code. This maintained focus on the core skill: communicating with AI effectively. Surprisingly, this approach resulted in fewer bugs overall because students learned to be more precise in their initial descriptions. Student Projects: The Games They Created The diversity of games produced in 85 minutes of building time amazed everyone present. Students didn't just follow a template, they invented entirely new concepts and successfully communicated them to Copilot CLI. One student created a "Fruit Ninja" clone where players clicked falling fruit to slice it before it hit the ground. Another built a typing speed game that challenged players to correctly type increasingly difficult words against a countdown timer. A pair of collaborators produced a two-player tank battle where each player controlled their tank with different keyboard keys. Several students explored educational games: a math challenge where players solve equations to destroy incoming meteors, a geography quiz with animated maps, and a vocabulary builder where correct definitions unlock new levels. These projects demonstrated that one-shot prompting isn't limited to entertainment, students naturally gravitated toward useful applications. The most complex project was a procedurally generated maze game with fog-of-war mechanics. The student spent extra time on their prompt, specifying exactly how visibility should work around the player character. Their detailed approach paid off with a surprisingly sophisticated result that would typically require hours of manual coding. By the session's end, we had 16 complete, playable HTML5 games. Every student who participated produced something they could share with friends and family a tangible achievement that transformed an abstract "coding workshop" into a genuine creative accomplishment. Key Benefits of Copilot CLI for Rapid Prototyping Our workshop revealed several advantages that make Copilot CLI particularly valuable for rapid prototyping scenarios, whether in educational settings or professional development. Speed of iteration fundamentally changes what's possible. Traditional game development requires hours to produce even simple prototypes. With Copilot CLI, students went from concept to playable game in minutes. This compressed timeline enables experimentation, if your first idea doesn't work, try another. This psychological freedom to fail fast and try again proved more valuable than any technical instruction. Accessibility removes barriers to entry. Students with no prior coding experience produced results comparable to those who had taken programming classes. The playing field leveled because success depended on creativity and communication rather than memorized syntax. This democratization of development opens doors for students who might otherwise feel excluded from technical fields. Focus on design over implementation teaches transferable skills. Whether students eventually become programmers, designers, product managers, or pursue entirely different careers, the ability to clearly specify requirements and think through complete systems applies universally. They learned to think like system designers, not just coders. The feedback loop keeps engagement high. Seeing your words transform into working software within seconds creates an addictive cycle of creation and testing. Students who typically struggle with attention during lectures remained focused throughout the building session. The immediate gratification of seeing their games work motivated continuous refinement. Debugging through prompts teaches root cause analysis. When games didn't work as expected, students had to analyze what they'd asked for versus what they received. This comparison exercise developed critical thinking about specifications a skill that serves developers throughout their careers. Tips for Educators: Running Your Own Workshop If you're planning to replicate this workshop, several lessons from our experience will help ensure success. Pre-configure machines whenever possible. While installation is straightforward, classroom time is precious. Having Copilot CLI ready on all devices lets you dive into content immediately. If pre-configuration isn't possible, allocate the first 15-20 minutes specifically for setup and troubleshoot as a group. Prepare example prompts across difficulty levels. Some students will grasp one-shot prompting immediately; others will need more scaffolding. Having templates ranging from simple ("Create Pong") to complex (the spaceship example above) lets you meet students where they are. Emphasize that "prompt debugging" is the goal. When students ask for help fixing broken code, redirect them to examine their prompt. What did they ask for? What did they get? Where's the gap? This redirection reinforces the workshop's core learning objective and builds self-sufficiency. Celebrate and share widely. Build in time at the end for students to demonstrate their games. This showcase moment validates their work and often inspires classmates to try new approaches in future sessions. Consider creating a shared folder or simple website where all games can be accessed after the workshop. Access GitHub Education resources at education.github.com before your workshop. The GitHub Education program provides free access to developer tools for students and educators, including Copilot. The resources there include curriculum materials, teaching guides, and community support that can enhance your workshop. Beyond Games: Where This Leads The techniques students learned extend far beyond game development. One-shot prompting with Copilot CLI works for any development task: creating web pages, building utilities, generating data processing scripts, or prototyping application interfaces. The fundamental skill, communicating requirements clearly to AI applies wherever AI-assisted development tools are used. Several students have continued exploring after the workshop. Some discovered they enjoy the creative aspects of game design and are learning traditional programming to gain more control. Others found that prompt engineering itself interests them, they're exploring how different phrasings affect AI outputs across various domains. For professional developers, the workshop's lessons apply directly to working with Copilot, ChatGPT, and other AI coding assistants. The ability to craft precise, complete prompts determines whether these tools save time or create confusion. Investing in prompt engineering skills yields returns across every AI-assisted workflow. Key Takeaways Clear prompts produce working code: The one-shot prompting formula (Game Type + Visuals + Controls + Rules + Win/Lose + Score) reliably generates playable games from single prompts Copilot CLI democratizes development: Students with no coding experience created functional applications by focusing on communication rather than syntax Rapid iteration enables experimentation: Minutes-per-prototype timelines encourage creative risk-taking and learning from failures Prompt debugging builds analytical skills: Comparing intended versus actual results teaches specification writing and root cause analysis Sixteen games in two hours is achievable: With proper structure and preparation, young students can produce impressive results using AI-assisted development Conclusion and Next Steps Our workshop demonstrated that AI-assisted development tools like GitHub Copilot CLI aren't just productivity boosters for experienced programmers, they're powerful educational instruments that make software creation accessible to beginners. By focusing on prompt engineering rather than traditional syntax instruction, we enabled 14-year-old students to produce complete, functional games in a fraction of the time traditional methods would require. The sixteen games created during those two hours represent more than just workshop outputs. They represent a shift in how we might teach technical creativity: start with vision, communicate clearly, iterate quickly. Whether students pursue programming careers or not, they've gained experience in thinking systematically about requirements and translating ideas into specifications that produce real results. To explore this approach yourself, visit the CopilotCLI-OneShotPromptGameDev repository for prompt templates, workshop materials, and example games. For educational resources and student access to GitHub tools including Copilot, explore GitHub Education. And most importantly, start experimenting. Write a prompt, generate some code, and see what you can create in the next few minutes. Resources CopilotCLI-OneShotPromptGameDev Repository - Workshop materials, prompt templates, and example games GitHub Education - Free developer tools and resources for students and educators GitHub Copilot CLI Documentation - Official installation and usage guide GitHub CLI - Foundation tool required for Copilot CLI GitHub Copilot - Overview of Copilot features and pricingChoosing the Right Intelligence Layer for Your Application
Introduction One of the most common questions developers ask when planning AI-powered applications is: "Should I use the GitHub Copilot SDK or the Microsoft Agent Framework?" It's a natural question, both technologies let you add an intelligence layer to your apps, both come from Microsoft's ecosystem, and both deal with AI agents. But they solve fundamentally different problems, and understanding where each excels will save you weeks of architectural missteps. The short answer is this: the Copilot SDK puts Copilot inside your app, while the Agent Framework lets you build your app out of agents. They're complementary, not competing. In fact, the most interesting applications use both, the Agent Framework as the system architecture and the Copilot SDK as a powerful execution engine within it. This article breaks down each technology's purpose, architecture, and ideal use cases. We'll walk through concrete scenarios, examine a real-world project that combines both, and give you a decision framework for your own applications. Whether you're building developer tools, enterprise workflows, or data analysis pipelines, you'll leave with a clear understanding of which tool belongs where in your stack. The Core Distinction: Embedding Intelligence vs Building With Intelligence Before comparing features, it helps to understand the fundamental design philosophy behind each technology. They approach the concept of "adding AI to your application" from opposite directions. The GitHub Copilot SDK exposes the same agentic runtime that powers Copilot CLI as a programmable library. When you use it, you're embedding a production-tested agent, complete with planning, tool invocation, file editing, and command execution, directly into your application. You don't build the orchestration logic yourself. Instead, you delegate tasks to Copilot's agent loop and receive results. Think of it as hiring a highly capable contractor: you describe the job, and the contractor figures out the steps. The Microsoft Agent Framework is a framework for building, orchestrating, and hosting your own agents. You explicitly model agents, workflows, state, memory, hand-offs, and human-in-the-loop interactions. You control the orchestration, policies, deployment, and observability. Think of it as designing the company that employs those contractors: you define the roles, processes, escalation paths, and quality controls. This distinction has profound implications for what you build and how you build it. GitHub Copilot SDK: When Your App Wants Copilot-Style Intelligence The GitHub Copilot SDK is the right choice when you want to embed agentic behavior into an existing application without building your own planning or orchestration layer. It's optimized for developer workflows and task automation scenarios where you need an AI agent to do things, edit files, run commands, generate code, interact with tools, reliably and quickly. What You Get Out of the Box The SDK communicates with the Copilot CLI server via JSON-RPC, managing the CLI process lifecycle automatically. This means your application inherits capabilities that have been battle-tested across millions of Copilot CLI users: Planning and execution: The agent analyzes tasks, breaks them into steps, and executes them autonomously Built-in tool support: File system operations, Git operations, web requests, and shell command execution work out of the box MCP (Model Context Protocol) integration: Connect to any MCP server to extend the agent's capabilities with custom data sources and tools Multi-language support: Available as SDKs for Python, TypeScript/Node.js, Go, and .NET Custom tool definitions: Define your own tools and constrain which tools the agent can access BYOK (Bring Your Own Key): Use your own API keys from OpenAI, Azure AI Foundry, or Anthropic instead of GitHub authentication Architecture The SDK's architecture is deliberately simple. Your application communicates with the Copilot CLI running in server mode: Your Application ↓ SDK Client ↓ JSON-RPC Copilot CLI (server mode) The SDK manages the CLI process lifecycle automatically. You can also connect to an external CLI server if you need more control over the deployment. This simplicity is intentional, it keeps the integration surface small so you can focus on your application logic rather than agent infrastructure. Ideal Use Cases for the Copilot SDK The Copilot SDK shines in scenarios where you need a competent agent to execute tasks on behalf of users. These include: AI-powered developer tools: IDEs, CLIs, internal developer portals, and code review tools that need to understand, generate, or modify code "Do the task for me" agents: Applications where users describe what they want—edit these files, run this analysis, generate a pull request and the agent handles execution Rapid prototyping with agentic behavior: When you need to ship an intelligent feature quickly without building a custom planning or orchestration system Internal tools that interact with codebases: Build tools that explore repositories, generate documentation, run migrations, or automate repetitive development tasks A practical example: imagine building an internal CLI that lets engineers say "set up a new microservice with our standard boilerplate, CI pipeline, and monitoring configuration." The Copilot SDK agent would plan the file creation, scaffold the code, configure the pipeline YAML, and even run initial tests, all without you writing orchestration logic. Microsoft Agent Framework: When Your App Is the Intelligence System The Microsoft Agent Framework is the right choice when you need to build a system of agents that collaborate, maintain state, follow business processes, and operate with enterprise-grade governance. It's designed for long-running, multi-agent workflows where you need fine-grained control over every aspect of orchestration. What You Get Out of the Box The Agent Framework provides a comprehensive foundation for building sophisticated agent systems in both Python and .NET: Graph-based workflows: Connect agents and deterministic functions using data flows with streaming, checkpointing, human-in-the-loop, and time-travel capabilities Multi-agent orchestration: Define how agents collaborate, hand off tasks, escalate decisions, and share state Durability and checkpoints: Workflows can pause, resume, and recover from failures, essential for business-critical processes Human-in-the-loop: Built-in support for approval gates, review steps, and human override points Observability: OpenTelemetry integration for distributed tracing, monitoring, and debugging across agent boundaries Multiple agent providers: Use Azure OpenAI, OpenAI, and other LLM providers as the intelligence behind your agents DevUI: An interactive developer UI for testing, debugging, and visualizing workflow execution Architecture The Agent Framework gives you explicit control over the agent topology. You define agents, connect them in workflows, and manage the flow of data between them: ┌─────────────┐ ┌──────────────┐ ┌──────────────┐ │ Agent A │────▶│ Agent B │────▶│ Agent C │ │ (Planner) │ │ (Executor) │ │ (Reviewer) │ └─────────────┘ └──────────────┘ └──────────────┘ Define Execute Validate strategy tasks output Each agent has its own instructions, tools, memory, and state. The framework manages communication between agents, handles failures, and provides visibility into what's happening at every step. This explicitness is what makes it suitable for enterprise applications where auditability and control are non-negotiable. Ideal Use Cases for the Agent Framework The Agent Framework excels in scenarios where you need a system of coordinated agents operating under business rules. These include: Multi-agent business workflows: Customer support pipelines, research workflows, operational processes, and data transformation pipelines where different agents handle different responsibilities Systems requiring durability: Workflows that run for hours or days, need checkpoints, can survive restarts, and maintain state across sessions Governance-heavy applications: Processes requiring approval gates, audit trails, role-based access, and compliance documentation Agent collaboration patterns: Applications where agents need to negotiate, escalate, debate, or refine outputs iteratively before producing a final result Enterprise data pipelines: Complex data processing workflows where AI agents analyze, transform, and validate data through multiple stages A practical example: an enterprise customer support system where a triage agent classifies incoming tickets, a research agent gathers relevant documentation and past solutions, a response agent drafts replies, and a quality agent reviews responses before they reach the customer, with a human escalation path when confidence is low. Side-by-Side Comparison To make the distinction concrete, here's how the two technologies compare across key dimensions that matter when choosing an intelligence layer for your application. Dimension GitHub Copilot SDK Microsoft Agent Framework Primary purpose Embed Copilot's agent runtime into your app Build and orchestrate your own agent systems Orchestration Handled by Copilot's agent loop, you delegate You define explicitly, agents, workflows, state, hand-offs Agent count Typically single agent per session Multi-agent systems with agent-to-agent communication State management Session-scoped, managed by the SDK Durable state with checkpointing, time-travel, persistence Human-in-the-loop Basic, user confirms actions Rich approval gates, review steps, escalation paths Observability Session logs and tool call traces Full OpenTelemetry, distributed tracing, DevUI Best for Developer tools, task automation, code-centric workflows Enterprise workflows, multi-agent systems, business processes Languages Python, TypeScript, Go, .NET Python, .NET Learning curve Low, install, configure, delegate tasks Moderate, design agents, workflows, state, and policies Maturity Technical Preview Preview with active development, 7k+ stars, 100+ contributors Real-World Example: Both Working Together The most compelling applications don't choose between these technologies, they combine them. A perfect demonstration of this complementary relationship is the Agentic House project by my colleague Anthony Shaw, which uses an Agent Framework workflow to orchestrate three agents, one of which is powered by the GitHub Copilot SDK. The Problem Agentic House lets users ask natural language questions about their Home Assistant smart home data. Questions like "what time of day is my phone normally fully charged?" or "is there a correlation between when the back door is open and the temperature in my office?" require exploring available data, writing analysis code, and producing visual results—a multi-step process that no single agent can handle well alone. The Architecture The project implements a three-agent pipeline using the Agent Framework for orchestration: ┌─────────────┐ ┌──────────────┐ ┌──────────────┐ │ Planner │────▶│ Coder │────▶│ Reviewer │ │ (GPT-4.1) │ │ (Copilot) │ │ (GPT-4.1) │ └─────────────┘ └──────────────┘ └──────────────┘ Plan Notebook Approve/ analysis generation Reject Planner Agent: Takes a natural language question and creates a structured analysis plan, which Home Assistant entities to query, what visualizations to create, what hypotheses to test. This agent uses GPT-4.1 through Azure AI Foundry or GitHub Models. Coder Agent: Uses the GitHub Copilot SDK to generate a complete Jupyter notebook that fetches data from the Home Assistant REST API via MCP, performs the analysis, and creates visualizations. The Copilot agent is constrained to only use specific tools, demonstrating how the SDK supports tool restriction. Reviewer Agent: Acts as a security gatekeeper, reviewing the generated notebook to ensure it only reads and displays data. It rejects notebooks that attempt to modify Home Assistant state, import dangerous modules, make external network requests, or contain obfuscated code. Why This Architecture Works This design demonstrates several principles about when to use which technology: Agent Framework provides the workflow: The sequential pipeline with planning, execution, and review is a classic Agent Framework pattern. Each agent has a clear role, and the framework manages the flow between them. Copilot SDK provides the coding execution: The Coder agent leverages Copilot's battle-tested ability to generate code, work with files, and use MCP tools. Building a custom code generation agent from scratch would take significantly longer and produce less reliable results. Tool constraints demonstrate responsible AI: The Copilot SDK agent is constrained to only specific tools, showing how you can embed powerful agentic behavior while maintaining security boundaries. Standalone agents handle planning and review: The Planner and Reviewer use simpler LLM-based agents, they don't need Copilot's code execution capabilities, just good reasoning. While the Home Assistant data is a fun demonstration, the pattern is designed for something much more significant: applying AI agents for complex research against private data sources. The same architecture could analyze internal databases, proprietary datasets, or sensitive business metrics. Decision Framework: Which Should You Use? When deciding between the Copilot SDK and the Agent Framework, or both, consider these questions about your application. Start with the Copilot SDK if: You need a single agent to execute tasks autonomously (code generation, file editing, command execution) Your application is developer-facing or code-centric You want to ship agentic features quickly without building orchestration infrastructure The tasks are session-scoped, they start and complete within a single interaction You want to leverage Copilot's existing tool ecosystem and MCP integration Start with the Agent Framework if: You need multiple agents collaborating with different roles and responsibilities Your workflows are long-running, require checkpoints, or need to survive restarts You need human-in-the-loop approvals, escalation paths, or governance controls Observability and auditability are requirements (regulated industries, enterprise compliance) You're building a platform where the agents themselves are the product Use both together if: You need a multi-agent workflow where at least one agent requires strong code execution capabilities You want Agent Framework's orchestration with Copilot's battle-tested agent runtime as one of the execution engines Your system involves planning, coding, and review stages that benefit from different agent architectures You're building research or analysis tools that combine AI reasoning with code generation Getting Started Both technologies are straightforward to install and start experimenting with. Here's how to get each running in minutes. GitHub Copilot SDK Quick Start Install the SDK for your preferred language: # Python pip install github-copilot-sdk # TypeScript / Node.js npm install @github/copilot-sdk # .NET dotnet add package GitHub.Copilot.SDK # Go go get github.com/github/copilot-sdk/go The SDK requires the Copilot CLI to be installed and authenticated. Follow the Copilot CLI installation guide to set that up. A GitHub Copilot subscription is required for standard usage, though BYOK mode allows you to use your own API keys without GitHub authentication. Microsoft Agent Framework Quick Start Install the framework: # Python pip install agent-framework --pre # .NET dotnet add package Microsoft.Agents.AI The Agent Framework supports multiple LLM providers including Azure OpenAI and OpenAI directly. Check the quick start tutorial for a complete walkthrough of building your first agent. Try the Combined Approach To see both technologies working together, clone the Agentic House project: git clone https://github.com/tonybaloney/agentic-house.git cd agentic-house uv sync You'll need a Home Assistant instance, the Copilot CLI authenticated, and either a GitHub token or Azure AI Foundry endpoint. The project's README walks through the full setup, and the architecture provides an excellent template for building your own multi-agent systems with embedded Copilot capabilities. Key Takeaways Copilot SDK = "Put Copilot inside my app": Embed a production-tested agentic runtime with planning, tool execution, file edits, and MCP support directly into your application Agent Framework = "Build my app out of agents": Design, orchestrate, and host multi-agent systems with explicit workflows, durable state, and enterprise governance They're complementary, not competing: The Copilot SDK can act as a powerful execution engine inside Agent Framework workflows, as demonstrated by the Agentic House project Choose based on your orchestration needs: If you need one agent executing tasks, start with the Copilot SDK. If you need coordinated agents with business logic, start with the Agent Framework The real power is in combination: The most sophisticated applications use Agent Framework for workflow orchestration and the Copilot SDK for high-leverage task execution within those workflows Conclusion and Next Steps The question isn't really "Copilot SDK or Agent Framework?" It's "where does each fit in my architecture?" Understanding this distinction unlocks a powerful design pattern: use the Agent Framework to model your business processes as agent workflows, and use the Copilot SDK wherever you need a highly capable agent that can plan, code, and execute autonomously. Start by identifying your application's needs. If you're building a developer tool that needs to understand and modify code, the Copilot SDK gets you there fast. If you're building an enterprise system where multiple AI agents need to collaborate under governance constraints, the Agent Framework provides the architecture. And if you need both, as most ambitious applications do, now you know how they fit together. The AI development ecosystem is moving rapidly. Both technologies are in active development with growing communities and expanding capabilities. The architectural patterns you learn today, embedding intelligent agents, orchestrating multi-agent workflows, combining execution engines with orchestration frameworks, will remain valuable regardless of how the specific tools evolve. Resources GitHub Copilot SDK Repository – SDKs for Python, TypeScript, Go, and .NET with documentation and examples Microsoft Agent Framework Repository – Framework source, samples, and workflow examples for Python and .NET Agentic House – Real-world example combining Agent Framework with Copilot SDK for smart home data analysis Agent Framework Documentation – Official Microsoft Learn documentation with tutorials and user guides Copilot CLI Installation Guide – Setup instructions for the CLI that powers the Copilot SDK Copilot SDK Getting Started Guide – Step-by-step tutorial for SDK integration Copilot SDK Cookbook – Practical recipes for common tasks across all supported languagesStep-by-Step: Setting Up GitHub Student and GitHub Copilot as an Authenticated Student Developer
To become an authenticated GitHub Student Developer, follow these steps: create a GitHub account, verify student status through a school email or contact GitHub support, sign up for the student developer pack, connect to Copilot and activate the GitHub Student Developer Pack benefits. The GitHub Student Developer Pack offers 100s of free software offers and other benefits such as Azure credit, Codespaces, a student gallery, campus experts program, and a learning lab. Copilot provides autocomplete-style suggestions from AI as you code. Visual Studio Marketplace also offers GitHub Copilot Labs, a companion extension with experimental features, and GitHub Copilot for autocomplete-style suggestions. Setting up your GitHub Student and GitHub Copilot as an authenticated Github Student DeveloperStep-by-Step: How to Setup Copilot Chat in VS Code
Copilot Chat is an AI-powered chatbot leveraging OpenAI's GPT-4, designed to enhance your coding workflow. Learn how to set up Copilot Chat step by step in Visual Studio Code (VS Code). Benefit from personalized and flexible coding environments, code analysis, automated unit test generation, and bug fixes. Prerequisites include an active GitHub account and the latest version of VS Code. Elevate your coding efficiency to new heights with Copilot Chat.Microsoft Copilot Studio: Créer et déployer un chatbot
Qu’est-ce que Copilot Studio ? Copilot Studio est un outil faisant parti de Microsoft 365 qui permet de créer facilement des Chatbots. Un Agent Copilot est capable de discuter avec les utilisateurs en langage naturel. Ils peuvent répondre à des questions, guider les utilisateurs ou même déclencher des actions comme envoyer un courriel ou récupérer des données. Un outil sans code Avec Copilot, pas besoin d’avoir une connaissance en programmation. Son interface est simple, on peut écrire des questions, définir des réponses, ajouter des boutons et même le connecter à d’autres services comme Power Automate, SharePoint ou la Dataverse. Un grand avantage : Décrire pour créer Avec Copilot Studio, on peut décrire en quelque lignes ce que l’on veut que notre chatbot fasse, et Copilot Studio génère automatiquement un chatbot de base avec des sujets et des réponses. Exemple : « Tu es un assistant virtuel pour les étudiants d’une université. Tu réponds aux questions sur les horaires de cours, l’accès à la bibliothèque, les inscriptions, et les coordonnées du secrétariat. » Copilot Vs Chatbot classique Contrairement à un simple chatbot basé sur des mots-clés, un Agent Copilot peut : Comprendre le langage naturel S’adapter aux différentes manières de poser une question Se connecter à des données personnalisées. Être déployé sur plusieurs canaux comme Microsoft Teams, Power Apps, site web, etc… Exemple concret : Un responsable d’un projet d’étudiant qui veut créer un assistant virtuel pour répondre aux questions fréquentes sur le projet : Quels sont les horaires de la bibliothèque ? Comment envoyer un rapport final ? Qui est le coordinateur pédagogique ? En quelque minutes, on pourrait créer un agent Copilot qui répond à toutes ces questions. C’est ça l’utilité de Copilot Studio. Créer Un Copilot Agent Accéder à Copilot Studio - Depuis votre navigateur préfère (Edge, Chrome…) - Ouvrir la page : https://copilotstudio.microsoft.com - Connectez-vous à votre compte Microsoft (Scolaire ou professionnel) - Une fois connecté, vous arrivez sur le tableau de bord - Dans la fenêtre de chat, sous Décrire votre assistant pour le créer, mettons ce texte - Vous êtes un assistant qui aide à répondre aux questions sur les déplacements en toute sécurité dans le pays et à l’international. Veuillez répondre poliment. - Avec ceci, Copilot Studio crée un assistant qui comprend déjà les thèmes, et que l’on peut ensuite personnaliser. D’ici l’assistant est presque prêt, dans la conversation, Copilot nous suggère un nom pour notre assistant Conseiller Sécurité Voyage. On peut confirmer ceci si le nom nous va. - On met « Ok » dans la case de conversation et tapé sur Entré - Sélectionner le bouton Créer pour continuer A ce niveau, Copilot Studio nous configure notre chatbot et nous redirige vers la page de configuration. Sur cette nouvelle page, on peut modifier certaines parties comme le nom du chatbot, les instructions, ajouter des connaissances, des déclencheurs, des requêtes et autres. Descendons un peut vers le bas pour ajouter des connaissances et activer l’option Recherche sur le Web. Dans la fenêtre Ajouter des connaissances, on sélectionne Sites web publics et taper ceci (https://europa.eu/youreurope/citizens/ ) dans la case Lien du site web public puis taper sur ajouter ensuite taper sur Ajouter à l’assistant pour fermer la fenêtre. Tester et déployer Copilot Maintenant notre Copilot est prêt. Dans la partie Tester votre assistant, on peut tester le chatbot voir si la connaissance ajoutée fonctionne bien. Avec le teste fait dans cette démo, l’assistant nous retour une réponse avec des liens redirigeant vers le site ajouté a la liste des connaissances. Selon les réponses données par l’assistant ou le chatbot, on peut corriger les sujets si nécessaire. Ce test permet d’assurer que notre chatbot comprend bien l’utilisateur et répond de manière utile. Notre chatbot est prêt, on peut le publier. - Cliquez sur Publier en haut à droite. - La publication prend quelques secondes. Maintenant le chatbot est prêt à être utiliser dans d’autres plateformes ou canaux. On peut l’ajouter à Microsoft Teams, à un site web, à SharePoint et autre plateforme. Conclusion Créer un Copilot personnalisé avec Microsoft Copilot Studio, c’est à la portée de tous même sans expérience en développement. En un bout de temps, on peut : - Décrire l’assistant en un phrase simple - Laisser l’intelligence artificielle générer les sujets de discussion - Ajouter des réponses et des actions - Le tester, le publier et le déployer sur Microsoft Teams, SharePoint, site web et autres. Curieux d’exploiter l’univers de l’intelligence artificielle, Copilot Studio est un excellent point de départ pour apprendre à créer des expériences interactives utiles et modernes. Pourquoi ne pas créer ton premier Copilot dès aujourd’hui ? Pour plus d’information, aller sur la page de Microsoft Learn : https://learn.microsoft.com/fr-fr/microsoft-copilot-studio/Automating PowerPoint Generation with AI: A Learn Live Series Case Study
Introduction A Learn Live is a series of events where over a period of 45 to 60 minutes, a presenter walks attendees through a learning module or pathway. The show/series, takes you through a Microsoft Learn Module, Challenge or a particular sample. Between April 15 to May 13, we will be hosting a Learn Live series on "Master the Skills to Create AI Agents." This premise is necessary for the blog because I was tasked with generating slides for the different presenters. Challenge: generation of the slides The series is based on the learning path: Develop AI agents on Azure and each session tackles one of the learn modules in the path. In addition, Learn Live series usually have a presentation template each speaker is provided with to help run their sessions. Each session has the same format as the learn modules: an introduction, lesson content, an exercise (demo), knowledge check and summary of the module. As the content is already there and the presentation template is provided, it felt repetitive to do create the slides one by one. And that's where AI comes in - automating slide generation for Learn Live modules. Step 1 - Gathering modules data The first step was ensuring I had the data for the learn modules, which involved collecting all the necessary information from the learning path and organizing it in a way that can be easily processed by AI. The learn modules repo is private and I have access to the repo, but I wanted to build a solution that can be used externally as well. So instead of getting the data from the repository, I decided to scrape the learn modules using BeautifulSoup into a word document. I created a python script to extract the data, and it works as follows: Retrieving the HTML – It sends HTTP requests to the start page and each unit page. Parsing Content – Using BeautifulSoup, it extracts elements (headings, paragraphs, lists, etc.) from the page’s main content. Populating a Document – With python-docx, it creates and formats a Word document, adding the scraped content. Handling Duplicates – It ensures unique unit page links by removing duplicates. Polite Scraping – A short delay (using time.sleep) is added between requests to avoid overloading the server. First, I installed the necessary libraries using: pip install requests beautifulsoup4 python-docx. Next, I ran the script below, converting the units of the learn modules to a word document: import requests from bs4 import BeautifulSoup from docx import Document from urllib.parse import urljoin import time headers = {"User-Agent": "Mozilla/5.0"} base_url = "https://learn.microsoft.com/en-us/training/modules/orchestrate-semantic-kernel-multi-agent-solution/" def get_soup(url): response = requests.get(url, headers=headers) return BeautifulSoup(response.content, "html.parser") def extract_module_unit_links(start_url): soup = get_soup(start_url) nav_section = soup.find("ul", {"id": "unit-list"}) if not nav_section: print("❌ Could not find unit navigation.") return [] links = [] for a in nav_section.find_all("a", href=True): href = a["href"] full_url = urljoin(base_url, href) links.append(full_url) return list(dict.fromkeys(links)) # remove duplicates while preserving order def extract_content(soup, doc): main_content = soup.find("main") if not main_content: return for tag in main_content.find_all(["h1", "h2", "h3", "p", "li", "pre", "code"]): text = tag.get_text().strip() if not text: continue if tag.name == "h1": doc.add_heading(text, level=1) elif tag.name == "h2": doc.add_heading(text, level=2) elif tag.name == "h3": doc.add_heading(text, level=3) elif tag.name == "p": doc.add_paragraph(text) elif tag.name == "li": doc.add_paragraph(f"• {text}", style='ListBullet') elif tag.name in ["pre", "code"]: doc.add_paragraph(text, style='Intense Quote') def scrape_full_module(start_url, output_filename="Learn_Module.docx"): doc = Document() # Scrape and add the content from the start page print(f"📄 Scraping start page: {start_url}") start_soup = get_soup(start_url) extract_content(start_soup, doc) all_unit_links = extract_module_unit_links(start_url) if not all_unit_links: print("❌ No unit links found. Exiting.") return print(f"🔗 Found {len(all_unit_links)} unit pages.") for i, url in enumerate(all_unit_links, start=1): print(f"📄 Scraping page {i}: {url}") soup = get_soup(url) extract_content(soup, doc) time.sleep(1) # polite delay doc.save(output_filename) print(f"\n✅ Saved module to: {output_filename}") # 🟡 Replace this with any Learn module start page start_page = "https://learn.microsoft.com/en-us/training/modules/orchestrate-semantic-kernel-multi-agent-solution/" scrape_full_module(start_page, "Orchestrate with SK.docx") Step 2 - Utilizing Microsoft Copilot in PowerPoint To automate the slide generation, I used Microsoft Copilot in PowerPoint. This tool leverages AI to create slides based on the provided data. It simplifies the process and ensures consistency across all presentations. As I already had the slide template, I created a new presentation based on the template. Next, I used copilot in PowerPoint to generate the slides based on the presentation. How did I achieve this? I uploaded the word document generated from the learn modules to OneDrive In PowerPoint, I went over to Copilot and selected ```view prompts```, and selected the prompt: create presentations Next, I added the prompt below and the word document to generate the slides from the file. Create a set of slides based on the content of the document titled "Orchestrate with SK". The slides should cover the following sections: • Introduction • Understand the Semantic Kernel Agent Framework • Design an agent selection strategy • Define a chat termination strategy • Exercise - Develop a multi-agent solution • Knowledge check • Summary Slide Layout: Use the custom color scheme and layout provided in the template. Use Segoe UI family fonts for text and Consolas for code. Include visual elements such as images, charts, and abstract shapes where appropriate. Highlight key points and takeaways. Step 3 - Evaluating and Finalizing Slides Once the slides are generated, if you are happy with how they look, select keep it. The slides were generated based on the sessions I selected and had all the information needed. The next step was to evaluate the generated slides, add the Learn Live introduction, knowledge check and conclusion. The goal is to create high-quality presentations that effectively convey the learning content. What more can you do with Copilot in PowerPoint? Add speaker notes to the slides Use agents within PowerPoint to streamline your workflow. Create your own custom prompts for future use cases Summary - AI for automation In summary, using AI for slide generation can significantly streamline the process and save time. I was able to automate my work and only come in as a reviewer. The script and PowerPoint generation all took about 10 minutes, something that would have previously taken me an hour and I only needed to counter review based on the learn modules. It allowed for the creation of consistent and high-quality presentations, making it easier for presenters to focus on delivering the content. Now, my question to you is, how can you use AI in your day to day and automate any repetitive tasks?Deploy Your First App Using GitHub Copilot for Azure: A Beginner’s Guide
Deploying an app for the first time can feel overwhelming. You may find yourself switching between tutorials, scanning documentation, and wondering if you missed a step. But what if you could do it all in one place? Now you can! With GitHub Copilot for Azure, you can receive real time deployment guidance without leaving the Visual Studio Code. While it won’t fully automate deployments, it serves as a step-by-step AI powered assistant, helping you navigate the process with clear, actionable instructions. No more endless tab switching or searching for the right tutorial—simply type, deploy, and learn, all within your IDE i.e. Visual Studio Code. If you are a student, you have access to exclusive opportunities! Whether you are exploring new technologies or experimenting with them, platforms like GitHub Education and the Microsoft Learn Student Hub provide free Azure credits, structured learning paths, and certification opportunities. These resources can help you gain hands-on experience with GitHub Copilot for Azure and streamline your journey toward deploying applications efficiently. Prerequisites: Before we begin, ensure you have the following: Account in GitHub. Sign up with GitHub Copilot. Account in Azure (Claim free credits using Azure for Students) Visual Studio Code installed. Step 1: Installation How to install GitHub Copilot for Azure? Open VS Code, in the leftmost panel, click on Extensions, type – ‘GitHub Copilot for Azure’, and install the first result which is by Microsoft. After this installation, you will be prompted to install – GitHub Copilot, Azure Tools, and other required installations. Click on allow and install all required extensions from the same method, as used above. Step 2: Enable How to enable GitHub Copilot in GitHub? Open GitHub click on top rightmost Profile pic, a left panel will open. Click on Your Copilot. Upon opening, enable it for IDE, as shown in the below Figure. Step 3: Walkthrough Open VSCode, and click on the GitHub Copilot icon from topmost right side. This will open the GitHub Copilot Chat. From here, you can customize the model type and Send commands. Type azure to work with Azure related tasks. Below figure will help to locate the things smoothly: Step 4: Generate Boilerplate Code with GitHub Copilot Let’s start by creating a simple HTML website that we will deploy to Azure Static Web Apps Service. Prompt for GitHub Copilot: Create a simple "Hello, World!" code with HTML. Copilot will generate a basic structure like this: Then, click on "Edit with Copilot." It will create an index.html file and add the code to it. Then, click on "Accept" and modify the content and style if needed before moving forward. Step 5: Deploy Your App Using Copilot Prompts Instead of searching for documentation, let’s use Copilot to generate deployment instructions directly within Visual Studio Code. Trigger Deployment Prompts Using azure To get deployment related suggestions, use azure in GitHub Copilot’s chat. In the chat text box at the bottom of the pane, type the following prompt after azure, then select Send (paper airplane icon) or press Enter on your keyboard: Prompt: azure How do I deploy a static website? Copilot will provide two options: deploying via Azure Blob Storage or Azure Static Web App Service. We will proceed with Azure Static Web Apps, so we will ask Copilot to guide us through deploying our app using this service. We will use the following prompt: azure I would like to deploy a site using Azure Static Web Apps. Please provide a step-by-step guide. Copilot will then return steps like: You will receive a set of instructions to deploy your website. To make it simpler, you can ask Copilot for a more detailed guide. To get a detailed guide, we will use the following prompt: azure Can you provide a more detailed guide and elaborate on GitHub Actions, including the steps to take for GitHub Actions? Copilot will then return steps like: See? That’s how you can experiment, ask questions, and get step-by-step guidance. Remember, the better the prompt, the better the results will be. Step 6: Learn as You Deploy One of the best features of Copilot is that you can ask follow-up questions if anything is unclear—all within Visual Studio Code, without switching tabs. Examples of Useful Prompts: What Azure services should I use with my app? What is GitHub Actions, and how does it work? What are common issues when deploying to Azure, and how can I fix them? Copilot provides contextual responses, guiding you through troubleshooting and best practices. You can learn more about this here. Conclusion: With GitHub Copilot for Azure, deploying applications is now more intuitive than ever. Instead of memorizing complex commands, you can use AI powered prompts to generate deployment steps in real time and even debug the errors within Visual Studio Code. 🚀 Next Steps: Experience with different prompts and explore how Copilot assists you. Try deploying more advanced applications, like Node.js or Python apps. GitHub Copilot isn’t just an AI assistant, it’s a learning tool. The more you engage with it, the more confident you’ll become in deploying and managing applications on Azure! Learn more about GitHub Copilot for Azure: Understand what GitHub Copilot for Azure Preview is and how it works. See example prompts for learning more about Azure and understanding your Azure account, subscription, and resources. See example prompts for designing and developing applications for Azure. See example prompts for deploying your application to Azure. See example prompts for optimizing your applications in Azure. See example prompts for troubleshooting your Azure resources. That's it, folks! But the best part? You can become part of a thriving community of learners and builders by joining the Microsoft Learn Student Ambassadors Community. Connect with like-minded individuals, explore hands-on projects, and stay updated with the latest in cloud and AI. 💬 Join the community on Discord here.How to Customize Visual Studio Code Chat with GitHub Copilot and Semantic Kernel
Discover how to customize Visual Studio Code Chat to revolutionize your development workflow with AI. By leveraging GitHub Copilot, Semantic Kernel, and Azure AI Agent Service, you can create chat participants tailored to tasks like project creation, requirement analysis, and code orchestration. Learn to integrate models like o1-mini for reasoning and .NET Aspire for distributed application management. Empower your IDE with AI to streamline complex workflows and boost efficiency.How to use GitHub Copilot for Azure?
Good news for everyone - GitHub Copilot is now available for free in VS Code!! Excited to try GitHub copilot for Azure in VSCode? Prerequisites: Account in GitHub Sign up for GitHub Copilot Account in Azure Install VSCode Step 1. Installation How to install GitHub Copilot for Azure? Open VS Code, in the leftmost panel, click on Extensions, type – ‘GitHub copilot for azure’, and install the first result which is by Microsoft. As shown in the Fig. 1.1 below: Fig. 1.1 How to install GitHub Copilot for Azure in VSCode 2. After this installation, you will be prompted to install – GitHub Copilot, Azure Tools, and other required installations. Click on allow and install all required extensions from the same method, as used above. Fig. 1.1.1 Installation of GitHub Copilot and sign in with GitHub Step 2: Enable How to enable GitHub Copilot in GitHub? Open GitHub, Click on top rightmost Profile pic, a left panel will open. Click on Your Copilot. Fig. 1.2 Locate GitHub Copilot Upon opening, enable it for IDE, as shown in the below Fig. 1.3 Fig. 1.3 Enabling Copilot Chat in the IDE Step 3: Walkthrough Open VSCode, and click on the GitHub Copilot icon from topmost right side. This will open the GitHub Copilot Chat. From here, you can customize the model type and Send commands. Type azure to work with Azure related tasks. Below Fig. 1.4 will help to locate the things smoothly: Fig. 1.4 Locating GitHub Copilot Chat in VSCode Scenario: Using the GitHub Repository If you have any of your project already available in the GitHub public repository, then paste the link of it in the chat section and append it with the below prompt: Prompt: This is my website deployed locally in GitHub, help me deploy in Azure. Hit Enter from the keyboard or Click the arrow sign, and proceed further with the instructions generated by the Copilot. Note: You will be prompted to Authenticate your Azure Account, simply follow the instructions said to authenticate. If you don’t have any website, paste the prompt written below in the chat section: Prompt: Could you help me create and deploy a simple Flask website by using an azd template? Fig. 1.5 Reply from GitHub Copilot for Azure As visible in the above Fig. 1.5, the GitHub Copilot for Azure will send template in the response. Hover the arrow over it, and then click on Insert into terminal, this will automatically insert the command in the terminal. Meanwhile, you may need to Authenticate your Azure Account, simply follow the instructions said to authenticate. It will take a few minutes to initialize. Meanwhile, answer the questions it asks, if unsure, simply ask the same question by copy pasting in the GitHub Copilot Chat, and it will guide you. You can ask more questions like: What does azd init command do? How the website will be deployed? What region, should I select? Once, you are clear with all of the doubts, type azd up command in the terminal, this will deploy the website in azure. Fig. 1.6 GitHub Copilot guiding the user to deploy This Command will ask which subscription you want to use to deploy your website. Fig. 1.7 Finding Subscription in Azure Portal Open the Azure portal, and type subscription in the search bar, as visible in Fig. 1.7. Click the first result and copy paste the Subscription ID visible there, to the GitHub Copilot chat, and append something like below: <Subscription ID> This is my Azure Subscription ID, deploy my website using it. <I reside in <Country Name> Once, done, you would be able to view the deployed website along with the new resources created in the Azure Portal. To un-deploy it, to free up the Azure resources, ask the same to GitHub Copilot, and it will guide you further! Tips and Tricks: For any error or Questions, directly ask to GitHub Copilot for Azure and it will answer your all queries, no limit! If unsure about anything, just paste the subscription id and share your country in the chat to get customized queries to run! Summary: GitHub Copilot can be used in VS Code for free, by installing thru extensions tab of VS Code. The deployment is done using just 2 commands: azd init and azd up To un-deploy, simply visit the directory and type azd down Happy 2025 with unlimited experiments using GitHub Copilot for Azure @VSCode for free!Embracing Responsible AI: A Comprehensive Guide and Call to Action
In an age where artificial intelligence (AI) is becoming increasingly integrated into our daily lives, the need for responsible AI practices has never been more critical. From healthcare to finance, AI systems influence decisions affecting millions of people. As developers, organizations, and users, we are responsible for ensuring that these technologies are designed, deployed, and evaluated ethically. This blog will delve into the principles of responsible AI, the importance of assessing generative AI applications, and provide a call to action to engage with the Microsoft Learn Module on responsible AI evaluations. What is Responsible AI? Responsible AI encompasses a set of principles and practices aimed at ensuring that AI technologies are developed and used in ways that are ethical, fair, and accountable. Here are the core principles that define responsible AI: Fairness AI systems must be designed to avoid bias and discrimination. This means ensuring that the data used to train these systems is representative and that the algorithms do not favor one group over another. Fairness is crucial in applications like hiring, lending, and law enforcement, where biased AI can lead to significant societal harm. Transparency Transparency involves making AI systems understandable to users and stakeholders. This includes providing clear explanations of how AI models make decisions and what data they use. Transparency builds trust and allows users to challenge or question AI decisions when necessary. Accountability Developers and organizations must be held accountable for the outcomes of their AI systems. This includes establishing clear lines of responsibility for AI decisions and ensuring that there are mechanisms in place to address any negative consequences that arise from AI use. Privacy AI systems often rely on vast amounts of data, raising concerns about user privacy. Responsible AI practices involve implementing robust data protection measures, ensuring compliance with regulations like GDPR, and being transparent about how user data is collected, stored, and used. The Importance of Evaluating Generative AI Applications Generative AI, which includes technologies that can create text, images, music, and more, presents unique challenges and opportunities. Evaluating these applications is essential for several reasons: Quality Assessment Evaluating the output quality of generative AI applications is crucial to ensure that they meet user expectations and ethical standards. Poor-quality outputs can lead to misinformation, misrepresentation, and a loss of trust in AI technologies. Custom Evaluators Learning to create and use custom evaluators allows developers to tailor assessments to specific applications and contexts. This flexibility is vital in ensuring that the evaluation process aligns with the intended use of the AI system. Synthetic Datasets Generative AI can be used to create synthetic datasets, which can help in training AI models while addressing privacy concerns and data scarcity. Evaluating these synthetic datasets is essential to ensure they are representative and do not introduce bias. Call to Action: Engage with the Microsoft Learn Module To deepen your understanding of responsible AI and enhance your skills in evaluating generative AI applications, I encourage you to explore the Microsoft Learn Module available at this link. What You Will Learn: Concepts and Methodologies: The module covers essential frameworks for evaluating generative AI, including best practices and methodologies that can be applied across various domains. Hands-On Exercises: Engage in practical, code-first exercises that simulate real-world scenarios. These exercises will help you apply the concepts learned tangibly, reinforcing your understanding. Prerequisites: An Azure subscription (you can create one for free). Basic familiarity with Azure and Python programming. Tools like Docker and Visual Studio Code for local development. Why This Matters By participating in this module, you are not just enhancing your skills; you are contributing to a broader movement towards responsible AI. As AI technologies continue to evolve, the demand for professionals who understand and prioritize ethical considerations will only grow. Your engagement in this learning journey can help shape the future of AI, ensuring it serves humanity positively and equitably. Conclusion As we navigate the complexities of AI technology, we must prioritize responsible AI practices. By engaging with educational resources like the Microsoft Learn Module on responsible AI evaluations, we can equip ourselves with the knowledge and skills necessary to create AI systems that are not only innovative but also ethical and responsible. Join the movement towards responsible AI today! Take the first step by exploring the Microsoft Learn Module and become an advocate for ethical AI practices in your community and beyond. Together, we can ensure that AI serves as a force for good in our society. References Evaluate generative AI applications https://learn.microsoft.com/en-us/training/paths/evaluate-generative-ai-apps/?wt.mc_id=studentamb_263805 Azure Subscription for Students https://azure.microsoft.com/en-us/free/students/?wt.mc_id=studentamb_263805 Visual Studio Code https://code.visualstudio.com/?wt.mc_id=studentamb_263805
