LTX-2.3 vs Wan 2.2: historical benchmark and current options

Runbo Li
Runbo Li
·
· 11 min read
LTX-2.3 vs Wan 2.2 open video models comparison — hero

Quick answer

This is a historical LTX-2.3 versus Wan 2.2 benchmark, retained with its original inputs, outputs, timings and cost assumptions. It should not be read as a September 2026 recommendation. For a new open-weight evaluation, start with LTX 2.5 and MiniMax H3, then use our current open-weight video model guide. Keep the older results below when you specifically need to reproduce LTX-2.3 or Wan 2.2 behavior.

The two headline run numbers: ltx-2.3 returned the same 5-second 720p clip in under 45 seconds against wan-2.2's roughly 4 minutes, about 6x faster, and both charged 240 credits, $0.72 per clip

Compare current video models

Run the same prompt or source image through a current model in Magic Hour and compare accepted outputs.

Compare Video Models

Magic Hour publishes this historical benchmark and supplied the endpoint and credit meter used for both runs. The retained prompt, outputs, timings, and costs support the narrow comparison below; it should not be generalized beyond the tested LTX-2.3 and Wan 2.2 configurations.

Which of the two should you use?

For a new project, do not choose between these two versions from this benchmark alone. LTX-2.3 and Wan 2.2 remain reproducible historical checkpoints, while LTX 2.5 and MiniMax H3 are the current open-weight starting points in this market. If an existing pipeline is pinned to LTX-2.3 or Wan 2.2, use the measured evidence below and verify the exact checkpoint license, runtime and host before changing it.

Here is what the two runs returned, same prompt, same endpoint:

Model

Wall clock

Resolution

Frame rate

File size

Credits

Cost per clip

wan-2.2

About 4 minutes

1280x720

16 fps

2.78 MB

240

$0.72

ltx-2.3

Under 45 seconds

1296x720

24 fps

8.94 MB

240

$0.72

Cost per clip uses the credit-pack rate of $0.003 per credit. At the usage-based Starter rate the same clip comes to about $0.22.

Both jobs used the same prompt ("A red fox trotting through fresh snow in a birch forest at golden hour, camera tracking low alongside it") at 720p and 5 seconds, on one endpoint and one credit meter. You can run either model locally from the published weights instead. The prompt action below provides a starting brief for a currently available model. It does not reproduce either historical run unless the checkpoint, host, duration and resolution match the recorded setup.

A red fox trotting through fresh snow in a birch forest at golden hour, camera tracking low alongside it

What did the historical runs show?

ltx-2.3 finished between 27 and 43 seconds after job creation. wan-2.2 finished between 232 and 247 seconds. That is a 5.4x gap at the narrowest reading of those windows, roughly 6x at the midpoints.

The outputs differ more than the request did. wan-2.2 returned 1280x720 at 16 fps in a 2.78 MB file; ltx-2.3 returned 1296x720 at 24 fps in an 8.94 MB file. Both jobs cost 240 credits, which works out to 48 credits per second of 720p video on either model. The raw create and status responses, the full run log, and both output clips are in the public benchmark repo.

Local measurements show the same ordering. A three-reviewer head-to-head on an RTX 4090 timed Wan 2.2 14B at 4 minutes 20 seconds per 5-second clip and LTX at 1 minute 30, though its LTX baseline was the older LTX-Video 0.9.5, so the ordering transfers and the exact ratio doesn't. In the same head-to-head's three-reviewer scoring, Wan 2.2 took the highest motion-stability score of the open models, 8.7 against LTX-Video's 7.9.

What did contemporaneous users report?

People who run both models locally report the same split our runs measured. One 5090 owner who runs both: "Does Wan have better motion, anatomy, and quality? Absolutely. But when I can make three and a half videos in LTXV in the time it takes to make one in Wan 2.2 thats a significant advantage." Their timings: 9 minutes for a 10-second 720p Wan clip at FP8, 2.5 minutes for the same clip on LTX at BF16, at 24 fps with sound.

The specific Wan strengths people name:

  • Face and body consistency in image-to-video; LTX "really seems to struggle with not totally changing subjects in i2v"
  • Anatomy: eyes and eyelids degrade on LTX with multiple people in a scene
  • A deeper LoRA and checkpoint ecosystem from Wan's longer run as the community default

The specific LTX strengths:

  • Speed, in every account that mentions it
  • Synchronized audio in the same pass, which several users call the deciding feature on its own
  • Longer single-shot clips: one user renders 20-second full-HD generations with audio, "impossible with wan unless using very complex workflows"
  • Low-VRAM viability: a 6 GB user runs 720p 10-second clips on LTX-2.3 where Wan capped them at 480p and 5 seconds

The recurring LTX complaint is prompt adherence: "Prompt adherance is very poor", "just too unpredictable". The fix users converge on is rewriting the prompt with an LLM before generation.

A second thread adds the trajectory point: Wan's open releases stopped at 2.2, so its ecosystem is mature but frozen, while LTX keeps getting open releases and new LoRAs. One user with over 2,000 hours on Wan says LTX "has indeed, at this point, replaced WAN for me."

How were these releases licensed?

For a video model, open weights and open source are different claims. Open weights means the checkpoint is downloadable: you can fetch the model and run it. Open source means the license lets you use the weights, modify them, and ship a commercial product on them without a discretionary approval, a territory restriction, or a revenue trigger.

Apache 2.0 clears that bar. A community license with a $10 million revenue threshold or a jurisdiction exclusion does not. By that test, of the leading open-weights families (Wan, Hunyuan, LTX), only Wan 2.2 is open source.

Model

License

Open source by this test

The catch

Wan 2.2

Apache 2.0

None; no rights claimed over outputs

LTX-2 / LTX-2.3

LTX-2 Community License

Paid agreement required at $10M annual revenue

HunyuanVideo

Custom Tencent license

Inapplicable in the EU, UK, and South Korea

HunyuanVideo-1.5

None declared

Repo license field reads NOASSERTION

Mochi 1

Apache 2.0

None

CogVideoX

2B Apache 2.0, 5B custom

2B yes, 5B no

5B models sit under the CogVideoX License

Open-Sora 2.0

Apache 2.0

None

Wan 2.2's license is the simple one: Apache 2.0, and the README adds that Alibaba claims no rights over generated content.

The LTX-2 Community License requires "Commercial Entities", defined as those with annual revenues of at least $10,000,000, to obtain a paid commercial license from Lightricks, and calls commercial use outside that agreement "strictly prohibited". Lightricks' own FAQ describes LTX-2.3 as "free and open source to use under its license"; the license text above is the binding document.

What hardware did these releases require?

Three open families matter as of July 2026: Wan 2.2, LTX-2/2.3, and HunyuanVideo-1.5. Mochi 1, CogVideoX, and Open-Sora came before. Vendors rarely state hardware requirements upfront, so here they are per model:

Model

Size

VRAM to run it

Wan 2.2 A14B

27B MoE, 14B active

6-8 GB quantized; 54-65 GB FP16

Wan 2.2 TI2V-5B

5B

24 GB

Wan 2.1 T2V-1.3B

1.3B

8.19 GB

LTX-2.3

22B

A single RTX 5090

HunyuanVideo-1.5

8.3B

14 GB with offloading

Mochi 1

10B

60 GB; under 20 GB via ComfyUI

Open-Sora 2.0

11B

60.3 GB on one H100

Wan 2.2's 14B model is a two-expert mixture-of-experts: 27B parameters total, 14B active per step. It runs in 6 to 8 GB with GGUF quantization and the T5 text encoder offloaded to CPU, needs roughly 54 to 65 GB at FP16, and the repo's own single-GPU command asks for at least 80 GB. The T5-XXL text encoder, 9.4B parameters on its own, dominates the VRAM budget.

The smaller Wan TI2V-5B generates 720p at 24 fps on a 24 GB RTX 4090, a 5-second clip in under 9 minutes. Wan 2.1's 1.3B model, at 8.19 GB, is still the lowest-VRAM option in the family.

VRAM each open model needs: Wan 2.2's 14B spans 6-8 GB quantized up to 54-65 GB at FP16 with the repo's own command asking for at least 80, LTX-2.3 runs on a single 32 GB RTX 5090, HunyuanVideo-1.5 needs 14 GB with offloading, and Mochi 1 and Open-Sora 2.0 sit near 60 GB

LTX-2.3 is a 22B model that generates synchronized video and audio in one pass, shipped as a full dev checkpoint and an 8-step distilled one, with just over 2 million Hugging Face downloads last month. The base LTX-2 is a 19B variant with fp8 and nvfp4 checkpoints. Lightricks says it runs locally on a single RTX 5090.

HunyuanVideo-1.5 is the lightest of the three current families: 8.3B parameters, a 14 GB minimum with model offloading enabled, and a 75-second 480p generation on a single RTX 4090 with the step-distilled checkpoint.

Three cautions before you download anything:

How were LTX-2.3 and Wan 2.2 run?

The benchmark used a unified hosted API. Magic Hour's video API handled the recorded requests with one request shape and credit balance. The model names and host settings retained below describe that historical catalog; they are not a current availability list. The two requests differed in their model field.

The original article retained this OpenAPI enum alongside the two requests. Keep it as an archival request example, not the full current catalog:

"model": { "default": "default", "type": "string", "enum": [ "default", "ltx-2", "ltx-2.3", "wan-2.2", "seedance-1.5", "seedance-2.0", "seedance-2.0-mini", "kling-2.5", "kling-3.0", "veo3.1", "veo3.1-lite", "sora-2", "kling-1.6", "seedance", "kling-2.5-audio", "veo3.1-audio" ],

The image-to-video product animates a still rather than a written scene. For a new integration, use the current image-to-video endpoint and its model-specific inputs instead of copying the archived enum.

The following table preserves the historical Magic Hour host configuration for resolution, duration and audio. These are host-specific entries from the original article, not universal limits of Google, Kling or the downloadable model weights.

Model

Weights

Max resolution

Max duration per job

Audio

ltx-2.3

Open

1080p

30s

Yes, no extra credits

wan-2.2

Open

1080p

15s

kling-2.5

Closed

1080p

10s

Yes, no extra credits

kling-3.0

Closed

4k

15s

Yes, extra credits

veo3.1

Closed

1080p

56s

Yes, extra credits

veo3.1-lite

Closed

1080p

56s

Yes, extra credits

seedance-1.5

Closed

1080p

12s

Yes, extra credits

seedance-2.0

Closed

720p

15s

Yes, no extra credits

seedance-2.0-mini

Closed

720p

15s

Yes, no extra credits

sora-2

Closed

720p

60s

Yes, no extra credits

In that archived table, LTX-2.3 was listed up to 30 seconds and Wan 2.2 up to 15, with no audio for Wan 2.2. Do not apply the table’s old model list or maxima to a new host or a current replacement release.

Maximum seconds per job for every model in the API enum: sora-2 leads at 60 and the veo3.1 family at 56, ltx-2.3 runs 30-second jobs with audio included, and wan-2.2 stops at 15 with no audio, the only model in the list that generates none

The recorded jobs followed the asynchronous create, status-poll and download workflow. Retain the original request, responses and downloaded MP4 when reproducing the benchmark. A completed job is not by itself proof that the clip passed editorial or product-quality review.

For a new integration, select an explicit current model and record what actually ran. The current endpoint documentation identifies LTX-2.5 as the free-tier default; default can change with the recommendation. A legacy model name is not a checkpoint pin: replacement routing can upgrade an old identifier. To reproduce LTX-2.3, retain its original weights and runtime or obtain an explicit version guarantee from the host.

What does the hosted path not get you?

The hosted catalog has expanded beyond the two families in the old table. The current model reference documents LTX-2.5, MiniMax H3 and Wan 3.0 alongside Wan 2.2. A hosted model’s input controls, duration and licensing path may differ from running public weights; verify the exact endpoint for the job you need.

Choose the deployment path from the controls the project actually requires:

  • An exact checkpoint and runtime when historical reproduction matters.
  • LoRAs, quantization, seeds and inference steps when the workflow requires those controls; verify that the chosen runtime or endpoint exposes them.
  • The selected host’s supported resolution, duration and audio. The current model reference still lists Wan 2.2 without generated audio.

Separate the benchmark's historical dollar assumptions from the rate quoted for a new API job:

The original benchmark's $0.72-per-clip figure used a credit-pack assumption of $3 per 1,000 credits. Its approximately $0.22 usage-based estimate used a different billing assumption. These are the article's historical cost calculations, not a new quote. Check current API billing and the model credit table for a new job. Free trials and signup offers are account-specific; this guide does not promise 400 signup credits or 100 recurring daily credits.

Open Magic Hour to review the current account offer. No coupon discount is assumed in the cost comparison.

Self-host instead if you need LoRA fine-tuning, one of the unserved models, or parameter-level control. The hardware for that path is in the VRAM table above. For the broader hosted-tool market, see our guide to AI video generation tools for creators and studios.

What should you evaluate now?

For a new evaluation, compare LTX 2.5 and MiniMax H3 using the same source assets, prompt intent, duration, resolution and acceptance rubric. LTX 2.5 is the current Lightricks model family. MiniMax H3 provides community-licensed base checkpoints for first/last-frame and multimodal-reference workflows; its official repository also documents hosted components that are not part of the downloadable base release.

Retain Wan 2.2 or LTX-2.3 when compatibility, an existing fine-tune, known hardware behavior or benchmark reproducibility matters. Treat the figures in this article as results from the recorded historical setup, not forecasts for a different checkpoint, host, GPU or billing plan.

If you prefer a hosted route, compare the current video AI API options and record the exact model behind each endpoint. A hosted provider can update a model independently of the public weights.

Frequently asked questions

The retained hosted runs establish a latency and output-format difference for one prompt and configuration, not a universal quality winner. LTX-2.3 finished roughly six times faster in those jobs. The separate community reports elsewhere in this article discuss motion and consistency, but they are not a controlled quality test of the two retained outputs.

For a current open-weight shortlist, evaluate LTX 2.5 and MiniMax H3 first. Read each release's current model and code licenses before calling it open source or commercially unrestricted. Wan 2.2 and LTX-2.3 remain relevant for reproducing older workflows, but they are not the current market frontier.

There is no defensible universal winner. Compare LTX 2.5 and MiniMax H3 on your own accepted-output criteria, hardware and license needs. Use the historical LTX-2.3 and Wan 2.2 evidence here only when those exact versions are the subject of the decision.

No. LTX-2 and LTX-2.3 are open weights under the LTX-2 Community License, which requires companies with at least $10 million in annual revenue to obtain a paid commercial license. Anyone under that threshold can use it commercially at no cost under the license's terms.

From 6 to 8 GB for the quantized 14B model with the text encoder offloaded, 54 to 65 GB at FP16, and at least 80 GB for the repo's official single-GPU command. The 5B version runs 720p at 24 fps on a 24 GB RTX 4090.

A hosted API removes the need to operate your own GPU. The original jobs used 240 credits per five-second 720p clip, with the historical $0.72 credit-pack assumption. For a new request, use the current endpoint model, settings and billing quote; an accepted legacy model identifier does not guarantee the original LTX-2.3 checkpoint will run.

Runbo Li
Runbo Li
CEO of Magic Hour
Runbo Li is the Co-founder and CEO of Magic Hour, where he builds AI video and image tools for content creation. He is a Y Combinator W24 founder and former Data Scientist at Meta, where he worked on 0-1 consumer social products in New Product Experimentation. He writes about AI video generation, AI image creation, creative workflows, and creator tools.
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