xAI TTS v1 Sub-Second Speech

Create a complete, polished, interactive single-file HTML webpage titled “Cloudborne Balloon Dispatch.” Output only the final HTML document, with all CSS and JavaScript inline. It must open and work directly in a modern browser with no build step and no external dependencies, libraries, fonts, CDNs, image URLs, APIs, or additional files. This is a responsive webpage, not a fixed 16:9 composition. Design an immersive dawn-era hot-air-balloon fleet control station that blends vintage aviation instruments, screen-printed topographic maps, tactile paper textures, brass controls, and modern real-time simulation. Use a carefully layered palette of cobalt blue, cream yellow, coral red, warm white, charcoal, and muted brass. Warm morning light should gradually brighten from the upper-left corner. Encode altitude, wind layers, and danger consistently through color, line weight, patterns, and clear legends. Create all visuals procedurally with HTML, CSS, Canvas, and inline SVG where useful. The central area must be a large animated top-down airspace map showing a canyon, contour lines, at least twelve individually identifiable balloons, several shifting wind layers, a moving cumulonimbus storm system, turbulence zones, and a floating lighthouse as the destination. Implement a genuine lightweight physics simulation: each balloon must track position, velocity, altitude, fuel, ballast, temperature, risk, and route history; wind direction and strength must vary by altitude and evolve over time; burners increase lift while consuming fuel; releasing ballast raises the balloon but permanently reduces ballast; cooling causes descent; canyon walls and storm cells create meaningful hazards. Balloons should move continuously and leave visible, fading flight trails. The objective is to guide the entire fleet safely to the lighthouse before resources or time run out. Include a prominent launch countdown at dawn with Start, Pause, Resume, Reset, and simulation-speed controls. Before launch, balloons should subtly sway while instruments twitch. After launch, animate wind particles, balloon motion, storm growth, trail drawing, warning pulses, and changing light. Users must be able to drag wind-direction nodes directly on the map to alter local airflow in real time, with immediate visual and physical feedback. Clicking a balloon must select it, highlight its route, center its data across the interface, and open a compact detail inspector. Provide tactile burner and ballast controls for the selected balloon, including press-and-hold burner behavior, a clearly consequential ballast-release action, keyboard shortcuts, and accessible buttons. Allow multi-select or fleet-wide commands for advanced play. Arrange a vertical sidebar of mission cards showing fleet objectives, active alerts, weather briefings, and per-balloon status summaries. Mission cards should update live and support filtering by safe, warning, critical, arrived, and lost states. Place a dense but readable telemetry strip along the bottom with smoothly scrolling Canvas charts for altitude, vertical speed, fuel, storm proximity, and fleet progress. Hovering or scrubbing charts should reveal synchronized values and highlight the corresponding moment on the selected balloon’s trail. Add vintage gauges, rotating needles, numeric readouts, warning lamps, stamped labels, map coordinates, altitude bands, a compact minimap or overview, and a clear legend. Use responsive layout behavior rather than merely shrinking the desktop composition. On wide screens, show sidebar, central map, inspector, and telemetry simultaneously. On tablets, collapse secondary cards into tabs or drawers. On mobile, prioritize the map and selected-balloon controls, provide large touch targets, stack telemetry panels, and preserve drag interactions. Ensure the page fills the viewport gracefully at varied aspect ratios and remains usable with mouse, touch, and keyboard. Make the simulation feel complete: include success and failure conditions, animated arrival docking at the floating lighthouse, collision or storm-loss feedback, contextual tooltips, first-use guidance, empty and disabled states, confirmation for irreversible ballast release, restart flow, status announcements, and a final mission report with statistics such as arrivals, losses, fuel efficiency, average risk, and elapsed time. Seed the initial state so the scenario is immediately interesting but still winnable. Use requestAnimationFrame for smooth animation and Canvas for the map and telemetry where appropriate. Keep rendering performant, use devicePixelRatio for crisp canvases, handle resize events correctly, and avoid console errors. Prioritize exceptional visual hierarchy, nuanced micro-interactions, convincing instrument behavior, linked state across every panel, and detailed finishing. Do not create a static mockup. Do not use placeholder rectangles, generic gradients as the entire design, fake nonfunctional controls, external assets, external fonts, alert() dialogs, excessive explanatory text, horizontal overflow, tiny unreadable labels, or interactions that work only with a mouse. Do not force a 16:9 canvas or fixed-size viewport. Every major visible control must function, and all displayed data must derive from the live simulation state.

Create a complete, polished, single-file interactive HTML webpage titled “Midnight Automated Bakery,” using only inline HTML, CSS, and vanilla JavaScript. Output the entire runnable HTML document and nothing else. Do not use external libraries, frameworks, CDNs, fonts, images, SVG files, audio files, APIs, or network requests; all visuals, icons, sound-like feedback, effects, and game logic must be generated locally with HTML/CSS/JS. Build a fully playable order-scheduling game set inside an automated bakery at midnight. Dough pieces must continuously enter an isometric conveyor system with clearly differentiated shapes, recipes, required baking temperatures, baking durations, freshness limits, and point values. Organize the interface around a large central industrial oven, a looping conveyor network with switchable tracks, and side-mounted real-time instrumentation panels. Players must drag and reorder dough items in the oven queue, drag them between compatible slots where appropriate, click track switches to reroute incoming dough, click oven controls to adjust temperature or activate systems, and use clearly documented keyboard controls for temporary conveyor acceleration and emergency cooling. All mouse, touch, click, drag, and keyboard interactions must respond immediately and visibly. Implement real stateful gameplay rather than a static mockup. Include multiple simultaneous dough orders, conveyor movement, track routing, drag-and-drop collision and snap validation, capacity limits, per-item timers, oven temperature inertia, baking progress, underbaked/perfect/overbaked states, score, multiplier combo, lives or reputation, escalating difficulty, pause/resume, restart, and a concise interactive tutorial or help overlay. Recipes should create meaningful scheduling conflicts: different products should require different temperatures and durations, encouraging queue rearrangement and strategic cooling or acceleration. Perfectly baked bread should emerge golden, trigger a satisfying particle burst, illuminate the bakery display window, increase the combo, and update the order log. Mistakes should produce visibly charred bread, rising smoke and ember particles, warning lights, instrument shake, combo loss, and clear non-audio feedback. Provide an optional sound toggle, but simulate audio feedback visually and with Web Audio generated entirely in JavaScript when enabled; the game must remain fully understandable when muted. Use an original, cohesive visual language combining detailed isometric pixel art with precision industrial instrumentation. Contrast warm amber furnace light, copper highlights, glowing bread, and soft cream labels against a deep indigo midnight environment. Create depth with CSS-drawn machinery, tiled floors, pipes, vents, shadows, highlights, pixel-stepped edges, subtle scanlines, indicator lamps, segmented displays, gauges, warning stripes, and animated mechanical details. Make the central oven feel alive with a flickering chamber, doors, temperature dial, heat shimmer, and status lights. Animate conveyor belts, gears, dough movement, smoke, sparks, cooling vapor, window illumination, combo feedback, and panel transitions with performant CSS and JavaScript. Maintain crisp readability and strong hierarchy despite the dense control-room aesthetic. Include substantial, carefully arranged content: the playable bakery floor, incoming-order queue, oven queue, recipe reference, live score/combo display, temperature and throughput instruments, event log, control legend, status notifications, and end-game or shift-summary modal with detailed results and replay action. Add accessible labels, visible focus states, keyboard operability, reduced-motion support, and color-independent status cues. Make the layout responsive across desktop, tablet, and mobile browsers, intelligently rearranging panels and scaling the bakery while preserving usability. This is a webpage, so do not force a fixed 16:9 canvas or hard-coded viewport dimensions; use a fluid responsive layout that looks especially strong on common widescreen displays while also adapting gracefully to portrait screens. Prioritize completeness, game feel, reliable state management, accurate timing, robust drag handling, clear collision rules, polished transitions, and visual feedback. The page must work immediately when saved as a single .html file and opened locally. Avoid: static concept art, a nonfunctional dashboard, placeholder controls, fake drag interactions, broken timers, overlapping text, illegible tiny labels, excessive explanatory copy, generic flat cards, photorealistic imagery, external assets, external dependencies, embedded base64 images, network access, build steps, multiple files, fixed 16:9 dimensions, mandatory sound, autoplaying audio, browser alerts, console-only feedback, and unfinished TODO sections.