AI Agents

171 posts

figma3 min readCurated summary

Introducing our MCP server: Bringing Figma into your workflow | Figma Blog

Figma’s beta MCP server connects Figma to AI coding tools such as Cursor, Copilot in VS Code, Windsurf, and Claude Code. It gives LLMs richer design context than screenshots or API responses alone, helping them generate code that reflects a team’s design system, codebase patterns, and intended behavior. Figma argues that accurate design-to-code work requires a holistic understanding of both visual design and implementation context. ## Why Design Context Matters - LLMs can produce functional code without additional context, but it may not match a team’s: - Architecture and file structure - Framework and terminology - Existing components and workflows - Evolving codebase conventions - These team-specific patterns form a unique “fingerprint” that models cannot reliably infer from training data. - MCP provides a standardized way for applications such as Figma to supply targeted context to agentic AI tools. ## Translating Design Intent for LLMs - Human developers typically: - Zoom out to understand overall structure and layout - Examine screen sequences and application flows - Infer how designs should map to code files and components - Interpret placeholder content as real data or backend requirements - Move between high-level patterns and low-level implementation details - The Figma MCP server aims to give LLMs the same broad perspective. - Its tools expose different kinds of context, allowing users to control which information is included and avoid wasting context-window space. ## Pattern Metadata - Figma can provide references to specific: - Components - Variables and design tokens - Styles - Code files - This is especially useful when design and code are already aligned through a design system. - Code Connect can identify the exact code component associated with a Figma component, reducing unnecessary codebase searches and preventing duplicate implementations. - For design tokens, Figma can identify the precise variable used—even when several tokens share the same visual value. - If code syntax is defined for a variable, the MCP server can pass the exact implementation syntax to the LLM. - Supplying this metadata improves precision and reduces token usage. ## Screenshots - Screenshots supplement metadata when visual or interactive meaning is difficult to express structurally. - They can communicate: - Embedded or interactive content represented by imagery - Relationships between sections and nodes - Sequences of screens - Mobile and desktop layouts - Overall application flow - Screenshots are not intended as pixel-perfect specifications. - Figma emphasizes that generated code should reflect design intent rather than merely reproduce pixels. - Combining screenshots with Figma’s code-oriented outputs is more effective than relying on either alone. ## Interactivity and Behavior - Code examples and pseudocode can express behavior more effectively than raw design metadata. - They are useful for: - Stateful components - Encapsulated functionality - UI sequences and transitions - Differences between related states or screens - Pseudocode becomes more valuable when it incorporates codebase context, such as variable syntax and Code Connect component mappings. ## Beta Roadmap - The MCP server is an early beta release. - Figma plans to add remote server capabilities and deeper integrations with codebases. - The company is seeking feedback while continuing to expand the design-to-code workflow. Figma’s MCP server is most valuable when teams maintain strong alignment between their design systems and codebases. Combining structured metadata, visual context, and behavioral examples gives AI coding agents a better foundation for producing implementation-ready code.

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googleOriginal article

AMIE gains vision: A research AI agent for multimodal diagnostic dialogue (opens in new tab)

Google Research and DeepMind have introduced multimodal AMIE, an advanced research AI agent designed to conduct diagnostic medical dialogues that integrate text, images, and clinical documents. By building on Gemini 2.0 Flash and a novel state-aware reasoning framework, the system can intelligently request and interpret visual data such as skin photos or ECGs to refine its diagnostic hypotheses. This evolution moves AI diagnostic tools closer to real-world clinical practice, where visual evidence is often essential for accurate patient assessment and management. ### Enhancing AMIE with Multimodal Perception To move beyond text-only limitations, researchers integrated vision capabilities that allow the agent to process complex medical information during a conversation. * The system uses Gemini 2.0 Flash as its core component to interpret diverse data types, including dermatology images and laboratory reports. * By incorporating multimodal perception, the agent can resolve diagnostic ambiguities that cannot be addressed through verbal descriptions alone. * Preliminary testing with Gemini 2.5 Flash suggests that further scaling the underlying model continues to improve the agent's reasoning and diagnostic accuracy. ### Emulating Clinical Workflows via State-Aware Reasoning A key technical contribution is the state-aware phase transition framework, which helps the AI mimic the structured yet flexible approach used by experienced clinicians. * The framework orchestrates the conversation through three distinct phases: History Taking, Diagnosis & Management, and Follow-up. * The agent maintains a dynamic internal state that tracks known information about the patient and identifies specific "knowledge gaps." * When the system detects uncertainty, it strategically requests multimodal artifacts—such as a photo of a rash or an image of a lab result—to update its differential diagnosis. * Transitions between conversation phases are only triggered once the system assesses that the objectives of the current phase have been sufficiently met. ### Evaluation through Simulated OSCEs To validate the agent’s performance, the researchers developed a robust simulation environment to facilitate rapid iteration and standardized testing. * The system was tested using patient scenarios grounded in real-world datasets, including the SCIN dataset for dermatology and PTB-XL for ECG measurements. * Evaluation was conducted using a modified version of Objective Structured Clinical Examinations (OSCEs), the global standard for assessing medical students and professionals. * In comparative studies, AMIE's performance was measured against primary care physicians (PCPs) to ensure its behavior, accuracy, and tone aligned with clinical standards. This research demonstrates that multimodal AI agents can effectively navigate the complexities of a medical consultation by combining linguistic empathy with the technical ability to interpret visual clinical evidence. As these systems continue to evolve, they offer a promising path toward high-quality, accessible diagnostic assistance that mirrors the multimodal nature of human medicine.

figma3 min readCurated summary

Figma's 2025 AI report: Perspectives From Designers and Developers | Figma Blog

Figma’s 2025 AI report, based on a survey of 2,500 users, shows that AI adoption is accelerating across product development. Agentic AI is growing especially quickly, while established practices such as prototyping, iteration, and collaboration remain essential. However, developers generally see greater quality benefits from AI than designers, and widespread adoption is still limited by concerns about reliability. ## Agentic AI Is Growing Fast - Text generation remains the most common AI product category. - Agentic AI is the fastest-growing category, with 51% of AI builders developing agents, up from 21% the previous year. - Agents perform multi-step tasks by interpreting inputs, reasoning, and taking action. - Building them requires decisions about: - When users should be asked for confirmation - How much information the system should reveal - Whether conversational interfaces or direct controls are more effective - Designers and developers need extensive testing and prototyping to make agent behavior intuitive and trustworthy. ## Human-Centered Best Practices Still Matter - 52% of AI builders say design is more important for AI products than for traditional products, while 95% consider it at least equally important. - Successful teams continue to rely on: - Rapid iteration - Prototyping - Exploring multiple technical and design approaches - Close collaboration between disciplines - 60% of successful AI teams explored multiple approaches, compared with 39% of unsuccessful teams. - AI product development differs from conventional software work because outputs and interactions can change unpredictably. - Human judgment remains critical for explaining AI behavior and keeping people involved in AI-assisted actions. ## Smaller Companies Are Investing More Aggressively - 61% of users at companies with 1–10 employees say AI is very or critically important to their market-share goals. - The number of small-company respondents calling AI essential to their products doubled from the previous year. - Smaller businesses may be moving faster because they have fewer organizational constraints and can experiment more easily. - They may also view AI as a way to accelerate growth and compete with larger companies. ## Developers and Designers Perceive AI Differently - Developers report higher satisfaction with AI tools: - 82% are satisfied with AI tools. - 68% say AI improves their work quality. - Designers report lower—but still substantial—levels: - 69% satisfaction. - 54% saying AI improves quality. - Developers use AI more directly in core responsibilities such as code generation; 59% do so, compared with 31% of designers using AI for core design work such as asset generation. - 68% of developers use prompts to generate code, and 82% are satisfied with the results. - The gap suggests that AI currently fits more naturally into developers’ daily workflows, while designers are still evaluating where it provides meaningful value. ## Efficiency Has Outpaced Trust - 78% of respondents agree that AI significantly improves work efficiency. - Only 32% say they can rely on AI output in their work. - This contrast highlights the difference between AI’s potential to speed up tasks and its ability to produce consistently dependable results. - Teams must therefore focus not only on adoption, but also on quality control, human oversight, and designing workflows that account for AI’s limitations. Figma’s findings point toward an AI-driven future, but successful adoption will depend on disciplined experimentation, thoughtful product design, and systems that keep humans informed and involved.

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figma3 min readCurated summary

Double click: Human Takes on Agentic AI | Figma Blog

Agentic AI could fundamentally change UX by handling tasks across apps with minimal supervision, reducing the need for users to navigate complex interfaces. Supporters see agents as a new abstraction layer that lets people focus on goals rather than buttons, menus, and tabs. However, the shift also raises concerns about designing for machines at the expense of human creativity, agency, and meaningful interaction. ## The Promise of Agentic AI - Agents can take routine work off users’ plates, such as paying bills or completing multistep tasks. - Perplexity’s Henry Modisett argues that AI should be “how something works,” not necessarily what users directly interact with. - The ideal experience resembles starting a car: users specify where they want to go without needing to understand the machinery underneath. - Agentic systems may reduce the cognitive load associated with chatbots, personalities, and complicated interfaces. ## Agents as a New Web Abstraction - Agents could operate across platforms, creating a more interoperable web that works more like human workflows. - They may reduce the need to navigate menus, manage open tabs, or repeatedly switch between applications. - Rather than one all-purpose AI, the future may involve specialized agents collaborating like a team. - This could shift users’ attention from browsing and operating software toward creating, connecting, and pursuing goals. ## Designing Websites for Machines - Maintaining and optimizing websites for AI agents could become a distinct industry. - Websites may increasingly prioritize: - Clean APIs - Machine-readable content - Clear structure - Streamlined navigation - Visual polish, animations, and pixel-perfect layouts may matter less to agents than accessibility and functional interoperability. - Designers and developers must consider whether they are primarily building for humans, machines, or both. ## Preserving Human Creativity - Optimizing exclusively for AI could flatten the web and remove creativity, depth, and intentional visual experiences. - The growth of agentic systems arrives alongside renewed interest in: - Creative coding - Handcrafted websites - Experiences that move beyond templates - The industry has an opportunity to decide which tedious work to automate while preserving the aspects of the web that feel expressive and distinctly human. ## The Value of Friction and User Control - Traditional UX often treats friction as something to eliminate, but autonomous agents complicate that principle. - Users need deliberate moments to: - Review an agent’s proposed action - Approve consequential changes - Correct mistakes - Stay aware of what the system is doing - Carefully reintroduced friction can preserve agency and trust, even when the agent performs most of the work. - Good agentic design may therefore prioritize appropriate checkpoints over completely invisible automation. Agentic AI is still in its early stages, but it is likely to reshape both web infrastructure and interface design. The strongest approach is to automate complexity while preserving human oversight, creativity, and opportunities for meaningful participation.

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datadog1 min readCurated summary

How we optimized LLM use for cost, quality, and safety to facilitate writing postmortems | Datadog

The provided content does not include the blog post itself; it consists primarily of Datadog’s navigation menu and a promotional banner announcing its Gartner recognition. As a result, the article’s argument, technical details, and conclusion cannot be reliably summarized. ## Visible Page Content ### Datadog’s Gartner Recognition - Datadog promotes being named a **Leader in the Gartner Magic Quadrant for Observability Platforms**. - The linked resource appears to concern the **2026** observability-platform evaluation. ### Datadog Product Areas - Infrastructure and application monitoring - Logs, metrics, databases, and data pipelines - Security and cloud protection - Real user monitoring and digital experience - CI/CD and software delivery - Incident response and service management - AI capabilities, including Bits AI, agent observability, and GPU monitoring ### Article Reference - The URL path indicates an article titled **“LLMs for Postmortems.”** - However, no article text or sections about large language models, incident analysis, or postmortem generation are included in the supplied content. Please provide the full article body for an accurate summary.

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datadog2 min readCurated summary

Rethinking UX for AI-driven alerting | Datadog

Datadog’s page announces that the company was named a Leader in the 2026 Gartner Magic Quadrant for Observability Platforms. The supplied content, however, primarily contains site navigation rather than the referenced blog post, so it does not provide details about the article’s argument concerning AI-driven alerting. ## Gartner Recognition - Datadog highlights its recognition as a Leader in Gartner’s Magic Quadrant for Observability Platforms. - The announcement is presented as a promotional resource linked from the Datadog website. ## Datadog’s Product Portfolio The navigation emphasizes Datadog’s broad observability and security platform, including: - **Infrastructure:** infrastructure, container, network, serverless, GPU, storage, and cloud-cost monitoring. - **Applications:** APM, service monitoring, profiling, dynamic instrumentation, and agent observability. - **Data and logs:** database, data-stream, job, quality, log, sensitive-data, and pipeline monitoring. - **Security:** code, cloud, vulnerability, workload, application, API, and SIEM security tools. - **Digital experience:** browser and mobile RUM, session replay, synthetic monitoring, product analytics, and error tracking. - **Software delivery:** CI visibility, test optimization, code coverage, feature flags, and developer portals. - **Service management:** incident response, SLOs, event management, workflows, and case management. - **AI:** Bits AI agents, investigations, chat, security analysis, agent observability, and MCP integrations. The provided text does not include enough of the actual “Rethinking UX for AI-Driven Alerting” article to summarize its technical concepts or conclusions.

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