
The Hook
“(No spoken dialogue — Mellow electronic beat with sub-bass and pizzicato synth.)”
Problem Agitation
“(No spoken dialogue — Consistent mellow electronic beat continues, building subtle tension.)”
Product Reveal
“(No spoken dialogue — Mellow electronic beat maintains its rhythm, subtle synth pad swells.)”
Feature Teaser
“(No spoken dialogue — Beat continues, with sustained synth pad creating an expansive feel.)”
Synthesizable in Remotion · key components of the split-screen-speed-comparison template.
A vertical split-screen layout comparing two processes side-by-side. Each side features a 3D environment where objects are progressively built or animated, with a time counter indicating duration.
Use a `Split` component for the layout. Render two separate `Sequence` components for 'Standard' and 'Ultrafast'. Animate 3D models using `ThreeCanvas` and `useCurrentFrame` for progressive visibility or transformation. Implement a `spring()` or `interpolate()` for smooth time counter updates.
Complex 3D objects (like a rocket) are constructed piece by piece over time, with each component appearing or animating into place sequentially.
Utilize `ThreeCanvas` with `useCurrentFrame`. Each 3D part (e.g., rocket body, fins) is a separate mesh. Control the `opacity` or `position` of each part using `interpolate()` based on specific `from` and `to` frames, creating a staggered build-up effect.
A 3D camera follows a launching object (e.g., rocket) from a ground perspective to an orbital view, showcasing its ascent against a changing background (sky to space).
Within `ThreeCanvas`, animate the `camera.position` and `camera.lookAt` properties using `interpolate()` to simulate a tracking shot. Transition background textures or skyboxes from a terrestrial scene to a starry space scene. Implement `particle effects` for rocket exhaust and `parallax scrolling` for the Earth's surface.
Purpose. Introduce the core comparison framework and the initial state of both 'Standard' and 'Ultrafast' scenarios.
Execution. Split-screen showing two identical empty platforms with robotic arms, clearly labeled 'Standard' and 'Ultrafast'.
Purpose. Demonstrate the progressive assembly process, highlighting the time difference between the two tiers.
Execution. Rocket components appear sequentially on both sides, with the 'Ultrafast' side completing its assembly significantly faster, indicated by a time counter.
Purpose. Showcase the culmination of the assembly and the immediate, dramatic speed advantage of the 'Ultrafast' tier.
Execution. The 'Ultrafast' rocket launches with smoke effects and ascends, while the 'Standard' rocket is still being assembled on the ground.
Purpose. Illustrate the ultimate benefit and superior performance of the 'Ultrafast' tier in a compelling visual.
Execution. The 'Ultrafast' rocket reaches orbit and flies through space, while the 'Standard' rocket remains on the launchpad, still in its assembly phase.
Objective
Launch a new AI-powered code refactoring tool, 'CodeSculpt', demonstrating its speed against manual refactoring.How the recipe adapts
The DualTerminalRaceSplit primitive would compare 'Manual Refactor' and 'CodeSculpt'. Progressive3DAssembly would be adapted to show lines of code or abstract code blocks appearing and transforming. For 'CodeSculpt', the blocks would rapidly re-arrange and optimize, perhaps with glowing connections. The OrbitalAscentTracker would be replaced by a 'CodeCompletionTracker', where the 'CodeSculpt' side shows a fully refactored, optimized codebase flying through a digital landscape, while 'Manual Refactor' is still stuck on a single function. The time counters would highlight the dramatic speed difference in refactoring completion.Scene durations (4 scenes, 45s)
Key Remotion components
To ensure that artificial general intelligence benefits all of humanity

Introducing Claude Fable 5: a Mythos-class model that we’ve made safe for general use. Its capabilities exceed those of any model we’ve ever made generally available. https://t.co/2AvmEjHIX8
To understand the true nature of the universe.