Generative video systems have to learn temporal behavior, not only frame appearance. A title can enter from the edge, overshoot its target, settle into place, and then transition into a new composition. A logo can scale, rotate, fade, or reveal through a mask. In an editable workflow, those actions may also be represented as properties, keyframes, curves, expressions, layer relationships, and template controls.
That makes motion graphics useful training material for systems that need to understand or generate designed motion. It also creates a dataset - design problem that is easy to miss: the same animation can exist as a rendered clip, a clip with temporal annotations, an editable project, a vector animation, or a structured scene representation. Those forms expose different information to a model.
The right AI dataset is therefore not the one with the largest clip count. It is the one whose representation, annotations, source relationships, coverage, rights, and validation process match the capability the model is expected to learn.
Table of contents:
- ● What is a Motion Graphics Dataset?
- ● Motion Graphics Data vs. General Animation and Video Data
- ● Four Representations to Choose From
- ● Representing Movement
- ● Temporal Captions Should Describe Events, Not Just Frames
- ● Keyframes describe states; interpolation describes the motion between them
- ● Not all motion comes from keyframes
- ● Do not treat optical flow, motion vectors, trajectories, and animation curves as synonyms
- ● Structured Animation: Source, Layers, Templates, and Dependencies
- ● Source Project + Render Pairs
- ● After Effects and Template Data Require Dependency Awareness
- ● Internal Animation Structure is Different from Exposed Controls
- ● Vector Animation is a Separate Model Objective
- ● Dataset Engineering: Diversity, Deduplication, and Leakage
- ● Visual Variation Is Not Motion Variation
- ● Deduplicate By Structure As Well As Appearance
- ● Synthetic and human - produced motion data solve different problems
- ● Evaluate the Dataset at Three Different Levels
- ● What Current Motion - Graphics Research Reveals
- ● Specify a dataset from the model requirement backward
- ● How much animation training data is enough?
- ● A Practical Buying Checklist
- ● Frequently Asked Questions
What is a Motion Graphics Dataset?
A motion graphics dataset is a collection of rendered or structured examples of designed visual motion, typically involving elements such as typography, logos, shapes, illustrations, transitions, composited layers, branded layouts, interface - style graphics, or other authored visual systems. Depending on the dataset, records may contain only the final animation or may also preserve temporal annotations, object tracks, source structure, keyframes, interpolation, editable properties, dependencies, and provenance.
This is narrower than animation training data as a whole. Motion - capture records of people walking, for example, are animation - related data, but they are not necessarily motion graphics data. The defining feature here is designed visual content whose motion is part of the composition or creative system.
Motion Graphics Data vs. General Animation and Video Data
Information | General Video | Rendered Motion Graphics | Structured Motion Graphics Source |
|---|---|---|---|
Appearance | Explicit | Explicit | Available through render |
Visible Motion | Explicit in frames | Explicit in frames | Explicit through source properties and render |
Typography Role | Often incidental or inferred | Often important | Can be explicit |
Element/Layer Identity | Usually inferred | Usually inferred | Can be explicit |
Keyframes | Normally unavailable | Unavailable from render alone | Can be explicit |
Interpolation/Easing | Must be inferred | Must be inferred | Can be explicit |
Layer Hierarchy | Flattened | Flattened by render | Can be explicit |
Editable Parameters | No | No | Representation-dependent |
Source/Provenance Relationship | Usually external | Usually external | Can be linked to project/version history |
The key distinction is not that motion graphics are automatically richer than video. It is that structured motion graphics can preserve design - time information that a rendered file no longer exposes.
Four Representations to Choose From
Representation | What the Dataset Delivers | Typical Use |
|---|---|---|
Rendered Animation | Video or frame sequence | Text-to-video, image-to-video, motion understanding |
Rendered Animation + Temporal Annotations | Video plus events, captions, tracks, trajectories, or timing labels | Language-to-motion alignment and controllable generation |
Source/Render Pair | Editable project or structured source linked to the corresponding render | Reconstruction, editing, source-aware generation, validation |
Structured Animation | Lottie, JSON, vector, project, or code-based representation with parameters | Editable animation generation, template systems, structured motion control |
These are representations, not maturity levels. A rendered dataset can be the correct choice for a model that only operates in raster video. A structured vector corpus can be more appropriate when the target output must remain editable. Recent work on Lottie - based generation makes that distinction explicit: LottieGPT models vector - animation structure directly, while OmniLottie uses parameterized Lottie tokens for multimodal vector - animation generation.
Representing Movement

Temporal Captions Should Describe Events, Not Just Frames
A caption such as “Blue geometric shapes on a white background” describes appearance. It does not describe the sequence of events that gives the animation its meaning.
A stronger temporal description might say: “Blue geometric shapes enter from opposite sides, accelerate toward the center, rotate, overlap, and resolve into a circular composition.” That version makes timing, direction, transformation, interaction, and outcome explicit.
Question | Example |
|---|---|
What moves? | Headline |
What changes? | Position and opacity |
When? | 0.0–0.8 seconds |
From where to where? | Left edge to center |
How? | Accelerated entrance with ease-out |
Relative to what? | Product image |
What is the outcome? | Headline settles above the CTA |
Keyframes describe states; interpolation describes the motion between them
Keyframes are important because they record property values at selected times. They are not a complete description of the movement between those states. The interpolation and easing applied between keyframes can change the character of the animation without changing the endpoints.
Two animations can share the same starting and ending position and still feel very different. One may move linearly. Another may accelerate, decelerate, overshoot, or hold. Adobe After Effects documents separate temporal and spatial interpolation controls, including Linear, Bezier, Continuous Bezier, Auto Bezier, and Hold behavior. A motion dataset that preserves keyframe values but drops interpolation can therefore discard part of the authored motion.
Field | Example |
|---|---|
Property | Position |
Keyframe Time | 0.80 s |
Keyframe Value | x=640, y=320 |
Incoming Interpolation | Bezier |
Outgoing Interpolation | Bezier |
Temporal Easing | Ease-out |
Spatial Interpolation | Bezier |
Hold | False |
Not all motion comes from keyframes
Professional motion graphics can derive behavior from more than keyed values. Depending on the source environment, the dataset may need to account for expressions, parenting, nested compositions, procedural effects, data - driven properties, simulations, time remapping, and reusable template controls.
• Keyframes and animation curves
• Expressions that calculate or link properties
• Parent - child and other layer relationships
• Nested compositions and precompositions
• Procedural effects and simulations
• Data - driven inputs
• Time remapping and looping logic
• Exposed template properties and instance overrides
A keyframe table can be perfectly extracted and still be incomplete if the animation is driven by other mechanisms. The dataset specification should state which sources of behavior are required for the target task.
Do not treat optical flow, motion vectors, trajectories, and animation curves as synonyms
Representation | What It Captures | Common Limitation |
|---|---|---|
Optical Flow | Estimated dense apparent pixel motion | Can be noisy around effects, transparency, occlusion, and texture |
Codec Motion Vectors | Block-level displacement used by compression | Depends on codec structure and is not semantic ground truth |
Object Trajectories | Tracked positions of semantic objects | Requires reliable tracking |
Camera Trajectory | Viewpoint or camera transformation over time | Requires suitable metadata or reconstruction |
Keyframes | Explicit property states at selected times | Intermediate behavior may be underspecified |
Animation Curves | Property evolution and interpolation over time | Rare in flattened footage |
Pose/Keypoints | Motion of articulated points | Less useful for many graphic elements |
For authored motion graphics, explicit property transforms and animation curves can be more faithful to the source than motion inferred from pixels. They answer different questions and should be stored as distinct fields.
Structured Animation: Source, Layers, Templates, and Dependencies

Source Project + Render Pairs
A source/render pair connects how an animation was built with what it looks like when rendered. Examples include an After Effects project linked to an MP4, or a Lottie source linked to a rendered preview.
Source | Render | What the Pair Enables |
|---|---|---|
Project file | Rendered video | Source-aware reconstruction and render validation |
Lottie/structured vector | Rendered animation | Editable generation plus visual verification |
Layered scene data | Preview render | Scene decomposition, compositing, and asset-relationship learning |
The source can preserve layers, property names, keyframes, expressions, and other design - time information that a final render cannot. The render remains necessary because it provides the observable result against which source behavior can be checked.
After Effects and Template Data Require Dependency Awareness
An editable project is not necessarily self - contained. A reproducible motion asset may depend on source image datasets or video datasets, fonts, plugins, nested compositions, external data, expressions, or a particular application or renderer version. A project that opens successfully is not automatically a project that another team can render identically.
Useful source - aware fields can include project_id, composition_id, layer_id, asset_manifest, font_manifest, application or renderer version, source - project version, render_id, template_family_id, and annotation version. The exact schema should follow the source environment rather than an invented universal standard.
That live catalog describes editable motion graphics templates with reusable animation systems, editable media and text placeholders, and production metadata. It is a useful example of why a buyer evaluating structured animation data should ask for more than a rendered preview: the source representation, supported software, dependencies, and editable fields all matter.
Internal Animation Structure is Different from Exposed Controls
Template systems often contain more internal structure than the downstream editor is allowed or expected to change. An animated title may contain dozens of internal properties while exposing only the text, color, or image placeholder to the end user.
For AI editing or personalization, the dataset should therefore distinguish between the structure that makes the animation work and the controls intentionally exposed to the user. Those are different supervision signals.
Vector Animation is a Separate Model Objective
A rendered MP4 can be visually convincing while remaining difficult to edit. Vector animation formats such as Lottie can preserve elements, layers, transforms, timing, keyframes, colors, and other structured properties. Recent research treats native vector - animation generation as a distinct problem from raster video generation.
LottieGPT introduces a tokenizer for layered geometric primitives, transforms, and keyframe - based motion and reports LottieAnimation - 660K, a dataset of about 660,000 real - world Lottie animations plus static files. OmniLottie introduces a parameterized Lottie representation and MMLottie - 2M for multimodal vector - animation generation. These are important research directions, but a research dataset is not automatically a commercially licensed dataset; provenance and usage terms must be checked independently.
Dataset Engineering: Diversity, Deduplication, and Leakage

Visual Variation Is Not Motion Variation
Motion graphics make duplication unusually subtle. The same animation can be rendered with different text, colors, logos, background assets, languages, or aspect ratios. Those variants may be valuable for personalization or robustness, but they should not automatically be counted as independent motion concepts.
The distinction can be stated simply: an unseen render is not necessarily an unseen animation.
A strong dataset inventory should report at least four different quantities when they matter: rendered - record count, independent source - project count, template - family count, and motion - pattern coverage.
Deduplicate By Structure As Well As Appearance
Perceptual hashes are useful for exact or near - visual duplicates, but source - aware motion datasets can support deeper comparisons: layer - graph similarity, normalized keyframe timing, curve similarity, template datasets identifiers, and relationships among derivative assets.
Those checks can reveal records that look different but share essentially the same animation system. They are especially useful when the evaluation claim is about generalizing to new motion structures.
Random splits are not inherently wrong; leakage depends on the dependency structure
A random record - level split can be reasonable when examples are genuinely independent. It becomes weak when multiple records are derivatives of the same underlying template, source project, campaign, or motion pattern.
Claim You Want to Test | Appropriate Grouping Unit |
|---|---|
Generalize to new rendered instances | Record |
Generalize to new motion variations | Motion pattern |
Generalize to new templates | Template family |
Generalize to new project structures | Source project |
Generalize to new campaigns | Campaign |
Generalize to new motion styles | Defined style group |
The split unit should follow the capability claim. Calling every random split “leaky” is as unhelpful as assuming every random split is rigorous.
Synthetic and human - produced motion data solve different problems
Programmatic animation can provide exact parameters, controlled combinations, targeted edge cases, and ground truth that would be difficult to recover from ordinary production footage. Human - produced motion graphics can expose actual production conventions, stylistic choices, compositing decisions, and the irregularities that occur in real creative work.
Neither source is automatically representative of a target application. Synthetic data should be evaluated for coverage and transfer value. Human - produced data should be evaluated for how well the sampled archive represents the deployment distribution. A hybrid corpus may be useful, but “hybrid” is a strategy to test, not an automatic quality guarantee.
Evaluate the Dataset at Three Different Levels

1. Source and Project QA
• Required files parse correctly
• Referenced assets and fonts are accounted for
• Layer IDs and relationships remain intact where required
• Keyframes, interpolation, and expressions are preserved where required
• Version and dependency information is recorded
2. Render QA
• Expected frame rate and dimensions are preserved
• Missing or duplicate frames are detected
• Visible motion is continuous enough for the task
• Typography remains legible when typography is part of the objective
• Source - to - render relationships reproduce the expected result
• Critical temporal defects are documented rather than averaged away
3. Model Evaluation
Dataset QA does not prove model value. Conversely, a model improvement does not prove that every source record is structurally correct. Keep these questions separate.
Model Objective | Useful Evaluation Signals |
|---|---|
Raster text-to-video | Temporal coherence, prompt-motion adherence, object persistence, visual consistency |
Image-to-video | Input correspondence, object persistence, trajectories, camera control |
Editable animation generation | Structural validity, keyframe accuracy, property correctness, constraint satisfaction, render fidelity |
Kinetic typography | Text legibility, motion-semantic alignment, character consistency, timing |
Motion verification | Direction, timing, relative positioning, and event satisfaction |
MoVer is a useful example of task - specific evaluation. Its verification language checks spatio - temporal properties such as direction, timing, and relative positioning, and its published benchmark uses 5,600 synthetic prompts paired with ground - truth verification programs. The lesson is not that every dataset needs a formal verification language; it is that evaluation should test the capabilities the model is supposed to deliver.
What Current Motion - Graphics Research Reveals
Several recent research projects sharpen the dataset design problem.
Research | Dataset or Representation Lesson |
|---|---|
Kinetic Typography Diffusion Model (ECCV 2024) | About 600,000 kinetic-typography videos were generated from 584 professionally designed templates, with static and dynamic captions. Record count and independent template count are therefore different quantities. |
MG-Gen (2025) | Shows why generic image-to-video pipelines can struggle with animated text and object distortion, and explores layer decomposition plus executable animation code. |
MoVer (SIGGRAPH 2025) | Treats motion verification as a separate task and checks spatio-temporal properties in SVG-based motion graphics. |
LottieGPT (2026) | Targets native vector animation using structured Lottie tokens and reports LottieAnimation-660K. |
OmniLottie (CVPR 2026) | Uses parameterized Lottie tokens and introduces MMLottie-2M for multimodal vector-animation generation. |
The broader direction is consistent: models can benefit from representations closer to the structure of the animation task. Flattened video, temporal annotations, editable source, and vector representations should be treated as complementary rather than interchangeable.
Specify a dataset from the model requirement backward
An AI training brief should begin with the representation the model needs. Resolution, frame rate, and codec matter, but they come after the question of what the model must receive or produce.
Requirement | Example |
|---|---|
Rendered output | MP4 or frame sequence |
Source project | After Effects project, MOGRT, or another supported source format |
Vector animation | Lottie or another structured vector representation |
Keyframes | Property, time, value |
Interpolation | Temporal and spatial method, including easing where required |
Layers | Stable IDs, hierarchy, parenting, in/out timing |
Dependencies | Asset and font manifests, application or renderer version |
Source/render pairing | Explicit link between source record and rendered output |
Temporal annotation | Event, trajectory, timing, or motion caption |
Template families | Stable family identifier and derivative rules |
This representation - first sequence prevents a common procurement mistake: buying a large rendered corpus when the target system actually needs structured motion information.
Rights for the render and rights for the source are separate questions
Public availability does not by itself establish a commercial AI - training grant. The applicable license, source rights, jurisdiction, contract, third - party assets, and intended use all matter.
Motion graphics add a source - specific problem. Permission to use or distribute a rendered animation does not necessarily include permission to redistribute the editable project, embedded fonts, plugins, stock elements, footage, or other dependencies. A dataset record should therefore distinguish the rights associated with the render from the restrictions attached to the source project and its dependencies.
For machine - readable provenance, prefer references to authoritative rights records and review history over permanent legal booleans. A field such as “AI - training - permission=true” can become misleading when the underlying evidence changes. Better fields include rights_record_id, rights_record_version, source_record_id, review_status, and review_date, with the authoritative document maintained separately.
A commercial example: match representation to the dataset, not the headline clip count
Wavebreak Media currently lists an Animation & Motion Graphics dataset in 4K and HD as well as an HD vertical version. Its published catalog describes structured metadata and rendered animation coverage.
It also lists more structured creative datasets, including the After Effects Templates Dataset and the JSON Layered Video Compositions Dataset. These offerings illustrate the representation spectrum discussed above rather than proving that one format is best for every model.
A buyer should compare those representations against the target model inputs and outputs before comparing raw record counts.
How much animation training data is enough?
There is no universal minimum. The amount required depends on the model, target distribution, representation, sequence length, annotation depth, training strategy, and the capability being measured.
Use controlled experiments rather than a generic clip - count rule. Report rendered - record count separately from source - project count, template - family count, and motion - pattern coverage. A dataset can grow dramatically through template variants without adding the same proportion of independent motion structure.
A defensible first - party study for motion - data providers
The strongest first - party contribution is not a larger list of dataset features. It is evidence from a real animation archive. The following is a proposed research protocol, not a reported study; no results should be published until the underlying data has been measured and the sample and methodology are documented.
1. Group a documented sample of motion templates by source template or family.
2. Record the source representation, duration, number and types of animated elements, keyframes, animated properties, easing/interpolation, replaceable fields, and whether a render is available.
3. Count rendered variants separately from underlying motion families.
4. Compare a render - only representation with the source representation to document which fields disappear after flattening.
5. Publish the sampling method, grouping rules, extraction procedure, QA checks, and limitations before reporting findings.
For a provider such as Wavebreak Media, a study like this could answer a question competing generic articles cannot: how much information about professional motion design is lost when a structured animation is delivered only as a rendered video?
A Practical Buying Checklist
• What representation is delivered: render, annotation layer, source project, vector structure, or a combination?
• Which motion properties are explicit, and which must be inferred from pixels?
• Are keyframes accompanied by interpolation or easing where that matters?
• Are source projects reproducible with their assets, fonts, plugins, and renderer versions?
• How are template families and derivative records identified?
• How are train/test splits grouped when records share a source template?
• What evidence supports the dataset rights and provenance?
• What QA is performed on the source, render, and delivered package?
• What model evaluation demonstrates value for the intended use case?
• Can the provider deliver the required schema rather than only a large media library?
Frequently Asked Questions

What is a motion graphics dataset?
A collection of rendered or structured examples of designed visual motion, often involving typography, logos, shapes, compositions, transitions, and other graphic elements. It may also contain temporal annotations or editable source structure.
What is animation training data?
Visual or structured information used to train or adapt AI systems to understand or generate animated content. It can include video, captions, trajectories, keyframes, curves, poses, masks, and source data.
How is a motion graphics dataset different from a general video dataset?
General video datasets emphasize broad visual and semantic coverage. Motion graphics datasets place more emphasis on designed movement and may preserve the temporal or structural information used to author that movement.
What information can an editable animation source provide that an MP4 cannot?
Source data can expose layers, property names, keyframes, interpolation, parenting, expressions, controls, dependencies, and source - version relationships that a render normally does not retain.
Why do easing and interpolation matter in animation datasets?
They determine how values change between keyframes. The same start and end states can produce different motion depending on the interpolation and easing.
What is the difference between optical flow and animation curves?
Optical flow estimates apparent pixel motion. Animation curves describe the evolution and interpolation of an authored property. They are different signals.
Can Lottie animations be used as AI training data?
Yes as a representation, but the licensing question depends on the actual source material and dataset terms. Recent research demonstrates Lottie - based training and generation, but research availability does not automatically grant commercial rights.
How should motion - template variants be handled in train/test splits?
Group related records according to the generalization claim. Use template - family or source - project grouping when the goal is to test unseen motion structures.
Are synthetic animations useful for AI training?
They can be useful for controlled motion parameters, edge cases, and ground truth. Their value should be tested against the target distribution rather than assumed from volume alone.
When is rendered video sufficient instead of structured animation data?
Rendered video can be sufficient when the task operates entirely in raster space and only needs visible temporal behavior. Structured data becomes more important when the model must generate, edit, or reason about underlying animation structure.

Jen Togonon
