FAQ

Video

Video datasets for understanding and generation

Action recognition, temporal grounding, captioning and video generation — with the storage and licensing realities of working with video.

Video is the most expensive modality to store, label and train on, and the most likely to be distributed as a list of links rather than as files.

Three practical realities shape this category. First, scale is measured in hours rather than items, and an hour of video is enormous compared with an hour's worth of images — budget storage and decode throughput before you commit to a set. Second, many video datasets are distributed as URL lists pointing at hosted platforms, which means availability decays as source videos are removed, and two researchers downloading the same dataset a year apart do not get the same data.

Third, annotation is harder to specify than for images. A label can apply to a whole clip, to a time span within it, or to a tracked object across frames, and these are not interchangeable. Check which granularity a dataset provides against what your task needs — clip-level labels can train temporal localisation only weakly, and cannot measure it.

Line chart with a log-scale y-axis labelled Cumulative Hours (1 to 1M) and an x-axis labelled Year Released (before 2004 to 2024), one line per video source: Other, crowdsourced, flickr, human, movies, undisclosed web and youtube. The youtube line jumps past 100K hours in 2014 and ends near 1M; the next highest, Other, ends near 50K.
Cumulative hours of video in public datasets, by where the footage came from (log scale), from the Data Provenance Initiative's audit. YouTube passes 100,000 hours in 2014 and approaches a million by 2024, more than ten times any other source, so most of the video hours on offer depend on one platform keeping its videos online. Image: Data-Provenance-Initiative/Data-Provenance-Collection · Apache-2.0 repository · from “Bridging the Data Provenance Gap Across Text, Speech and Video”, arXiv:2412.17847
DatasetModalitySizeLicenceBest for
OpenS2V-5MMultimodal5M triplesCC BY 4.0Video generation
Text2Video - Pika 2.2 Human PreferencesMultimodal756,000 responsesApache 2.0Objectively evaluating text-to-video models
WM-ABenchVideo100,000 videosApache 2.0Spatial, temporal and material perception
360Motion DatasetVideo72,000 clipsApache 2.03D motion generation or animation models
LEMONADE - Egocentric Video Language AssessmentVideo36,521 pairsCC BY 4.0Video comprehension in multimodal language models
Carla Car Monocular Camera 60 FPSVideo36,000 imagesMITMonocular SLAM and visual odometry
SVLA SO100 Sorting DatasetVideo18 videosApache 2.0Vision-language-action models in robotics
MVBenchVideo4,000 examplesMITTemporal and dynamic understanding
CameraBenchVideo1,071 videosCC BY 4.0 (repo)Vision-language models on video perception
Shoplifting Video DatasetVideo182 filesCC BY 4.0Detect suspicious behaviour in stores
HowTo100MMultimodal136M videosResearch onlyMultimodal text-video-audio models
OpenVid-1MVideo1M videosResearch onlyText-conditioned video generation
Licences in this shortlist — computed from the 12 datasets below. Red marks licences that are unclear or restricted.
Three multiple-choice questions about a travel video, about photo frames touched at a market in Amsterdam, a dinner in Italy and a painting at the Louvre, with correct answers in red. Dashed arrows link each question to coloured highlighted spans on an audio waveform timeline below.
Three CG-Bench questions about one long video, each tied to the stretch of the video that holds the answer, its 'clue' (the coloured spans on the timeline). The benchmark scores whether a model finds that span as well as the answer; a clip-level label could not tell you whether the model looked in the right place. Image (cropped): Figure 1 of the paper · CC BY 4.0 · from Chen et al. 2024, “CG-Bench: Clue-grounded Question Answering Benchmark for Long Video Understanding”, arXiv:2412.12075
№ 01

OpenS2V-5M

Multimodal
Size
5 million subject-text-video triples in 720p, JSON for metadata and annotations (masks, bboxes in RLE)
Licence
CC-BY 4.0

Five million subject, text and video triples at 720p, with JSON metadata covering resolution, frame rate and aesthetic scores plus masks and bounding boxes in RLE format. Built for subject-consistent video generation.

What to train on it

Training video generation conditioned on subjects or text descriptions, developing multi-view video synthesis, and experimenting with text-subject-video models.

Source: innovatiana.com

№ 02

Text2Video - Pika 2.2 Human Preferences

Multimodal
Size
756,000 responses (JSON), low resolution GIF videos, and links to HD videos
Licence
Apache 2.0

About 756,000 human pairwise judgments in JSON comparing videos generated by Pika 2.2 from text prompts, with low-resolution GIF previews bundled and links out to the HD versions. A large preference corpus for video.

What to train on it

Objectively evaluating text-to-video models, training preference or reward models for RLHF, and analysing current limitations of video diffusion models.

Source: innovatiana.com

№ 03

WM-ABench

Video
Size
Over 100,000 annotated video sequences with multiple choice questions from 6 physical simulators
Licence
Apache 2.0

Over 100,000 annotated video sequences with multiple-choice questions, generated from six different physical simulators, probing whether vision-language models grasp and forecast physics. Simulator provenance gives ground-truth dynamics.

What to train on it

Assessing spatial, temporal and material perception, predicting physical dynamics such as falls and collisions, and validating multimodal vision-language models.

Source: innovatiana.com

№ 04

360Motion Dataset

Video
Size
72,000 rendered clips (36,000 at 480×720 and 36,000 at 378×672; 99 frames, 30 fps), 12 cameras per scene
Licence
Apache-2.0

72,000 Unreal Engine-rendered clips (99 frames at 30 fps; 36,000 at 480x720 and 36,000 at 378x672) of 50 animal entities moving along 121 3D trajectory templates in six scenes, each filmed from 12 surrounding cameras. Built for trajectory-controlled multi-entity video generation (3DTrajMaster).

What to train on it

Training 3D motion generation or animation models, building agents that reproduce movement in immersive environments, and optimising vertical video synthesis for mobile or VR.

Source: innovatiana.com

A radar chart with eighteen labelled spokes, each one an evaluation dimension such as human anatomy, temporal consistency, composition, motion rationality, instance preservation, mechanics, thermotics and multi-view consistency. Several named video-generation models are drawn as overlapping coloured polygons with a legend at the side.
Eighteen separate axes a video generator gets scored on, from human anatomy to physics. A reminder that “looks good” breaks down into many properties that fail independently. Image: Vchitect/VBench · Apache-2.0 repository · from “VBench-2.0: Advancing Video Generation Benchmark Suite for Intrinsic Faithfulness”, arXiv:2503.21755
№ 05

LEMONADE - Egocentric Video Language Assessment

Video
Size
36,521 question-answer pairs over 30 MP4 videos, CSV for the Q/A
Licence
CC BY 4.0

36,521 closed-ended question-answer pairs in CSV, built over just 30 MP4 kitchen egocentric video clips, probing behaviour, temporal reasoning and biomechanics. Question density per video is extremely high, which is the design intent.

What to train on it

Evaluating video comprehension in multimodal language models, testing temporal reasoning over long sequences, and analysing posture and movement from video.

Source: innovatiana.com

№ 06

Carla Car Monocular Camera 60 FPS

Video
Size
36,000 time-stamped PNG image files (nanosecond timestamps), YAML configuration files, and text
Licence
MIT

36,000 nanosecond-timestamped PNG frames from a simulated front-mounted monocular RGB camera on a virtual car in the Carla urban simulator, captured at 60 FPS, with YAML configuration and text files. Built for SLAM and visual odometry.

What to train on it

Developing monocular SLAM and visual odometry, training segmentation for embedded cameras, and simulating autonomous vehicle perception.

Source: innovatiana.com

№ 07

SVLA SO100 Sorting Dataset

Video
Size
18 videos (480x640, 30fps, AV1 codec), 6,633 frames, action and observation data in parquet format
Licence
Apache 2.0

18 videos at 480x640 and 30 fps in AV1, totalling 6,633 frames, paired with action and observation data in Parquet from an SO-100 robot arm performing sorting. Part of the LeRobot collection.

What to train on it

Developing vision-language-action models in robotics, analysing robotic movement for sorting and handling, and testing multimodal learning on video plus sensor data.

Source: innovatiana.com

№ 08

MVBench

Video
Size
4,000 examples in Parquet format, 328 KB
Licence
MIT

4,000 multiple-choice video questions in a 328 KB Parquet file, built by converting static image tasks into dynamic video ones. It spans basic perception through to complex cognition, and bundles most of its source videos; 320 NTU RGB+D clips must be downloaded separately under that dataset's licence.

What to train on it

Evaluating temporal and dynamic understanding in video models, testing temporal reasoning on complex tasks, and automatically creating reliable video benchmarks.

Source: innovatiana.com

A bar and line chart of average annotation accuracy across five training rounds: non-expert annotators (green) rise from 75% to 89% and expert annotators (yellow) from 84% to 96%.
How accurately people labelled camera motion for CameraBench over five rounds of training. Even the experts started at 84%: in video the label definitions themselves — a zoom versus a forward move, for instance — have to be taught, and a dataset is only as consistent as that teaching. Image: sy77777en/CameraBench · CC BY 4.0 repository · from “Towards Understanding Camera Motions in Any Video”, arXiv:2504.15376
№ 09

CameraBench

Video
Size
Approximately 1,071 video clips, 87 KB in parquet format
Licence
CC BY 4.0 (GitHub repository licence; the catalogue card says MIT)

Over a thousand manually annotated video clips built to improve understanding of camera movements in video. Expert labels and natural-language captions describe the motion in each clip, so generative and discriminative multimodal vision models can be evaluated on how well they perceive camera work.

What to train on it

Evaluating vision-language models on video perception, analysing camera movements in video sequences, and fine-tuning multimodal models for video tasks.

Source: innovatiana.com

№ 10

Shoplifting Video Dataset

Video
Size
182 files (.mp4 videos) — 640×480 resolution — 30 FPS — 2 classes
Licence
CC BY 4.0

182 MP4 clips at 640x480 and 30 FPS in two classes, showing normal behaviour and simulated shoplifting staged in a lab. Small and synthetic in the sense of being acted, so generalisation to real CCTV is unproven.

What to train on it

Training models to detect suspicious behaviour in stores, testing action recognition on video streams, and prototyping intelligent surveillance systems.

Source: innovatiana.com

№ 11

HowTo100M

Multimodal
Size
About 136 million video clips with narration, from 1.22 million YouTube videos (about 134,000 hours)
Licence
Research use; the videos remain under YouTube's terms (no MIT licence found; the repository's Apache 2.0 covers code)

Roughly 136 million video clips paired with their automatically transcribed narration, drawn from 1.22 million YouTube instructional videos: about 134,000 hours (15 years) of video across more than 23,000 tasks. Covers cooking, DIY, beauty and sport; individual videos remain under YouTube's terms.

What to train on it

Training multimodal text-video-audio models, pre-training for video search and captioning, and improving video-guided assistants and zero-shot video-text search.

Source: innovatiana.com

№ 12

OpenVid-1M

Video
Size
Over 1 million text-to-video videos in HD video format (≥512×512), including an OpenVidHD subset of 433K 1080p videos. Large ZIP files to decompress, CSV files for text-video pairs. Total size approximately several terabytes (OpenVidHD ~4.5 TB).
Licence
CC BY 4.0 tag, but the card says research and non-commercial purposes only; the source videos keep the licences of Panda-70M, ChronoMagic, Open-Sora-Plan and CelebV-HQ

Over a million HD text-to-video clips at 512x512 or above, with a 433,000-clip 1080p OpenVidHD subset, distributed as large ZIPs with CSV caption pairings and running to several terabytes. The card limits it to research and non-commercial purposes, and the source videos keep the licences of the datasets they came from.

What to train on it

Training text-conditioned video generation, improving video quality and resolution through fine-tuning, and researching video architectures on realistic data.

Source: innovatiana.com

A 3x3 grid of one simulated city street seen from a car, each panel labelled: RGB, depth (logarithmic), semantic segmentation, instance segmentation, normals, LiDAR projected on camera, semantic LiDAR projected, radar detections and depth (raw encoding).
One frame from CARLA, the simulator behind the 60 FPS monocular camera set on this list, with eight other sensor and label outputs rendered alongside it. In real video the labels are the expensive part; in simulation they arrive free and pixel-aligned, and the cost moves to the gap between rendered streets and real ones. Image: carla-simulator/carla · MIT (code) and CC-BY (assets) repository · from “CARLA: An Open Urban Driving Simulator”, arXiv:1711.03938

How this list was put together

Drawn from the datasets in Dataset Finder filed under this topic, then checked by hand against what this page covers. A tag is a filing decision, not a description, so records that carried the tag without being about the topic were removed, and relevant records filed elsewhere were added. The order puts the closest fit first.

Sizes and licences come from each dataset's own documentation, vague wording included. Where we found a re-upload or catalogue card stating a licence that the original release contradicts — a CC0 tag on Flickr photographs, MIT on data whose terms require a signed agreement — the entry gives the original terms and says so. The comparison table abbreviates licences; hover a cell for the full wording.

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