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OpenModelDB is a community driven database of AI Upscaling models. We aim to provide a better way to find and compare models than existing sources.

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What is OpenModelDB?

OpenModelDB is a community-driven database of AI upscaling models. Its stated goal is to make it easier to find and compare upscaling models than existing sources do, and it organizes a large catalog — the site lists 671 models — around the tasks those models are built for.

What you can do there

  • Browse by subject and purpose. Models are tagged by content type (anime, cartoon, CGI, faces, game screenshots, game textures, manga, pixel art, realistic, text, video frame, and more) and by purpose (general upscaler, denoise, deblur, dehalo, deblocking, anti-aliasing, colorization, compression removal, JPEG artifacts, restoration, inpainting, and others).
  • Compare candidates side by side. Each model entry carries details such as scale factor (1x, 2x, and so on), architecture names, and a description of what it was trained for.
  • Contribute. The "Contribute" section indicates the catalog is maintained by its users rather than a single vendor.

A concrete example

The listing for "90s Sonic 2x (Small)" by pokepress describes a model aimed at footage from Adventures of Sonic the Hedgehog and Sonic SatAm, notes that those shows are cel-based animation with some panning segments above 24fps, and suggests deinterlacing with QTGMC for maximum quality. That is the kind of practical context OpenModelDB entries tend to include: not just a file, but the source material and workflow it suits. Another entry, "StarSample V2.0 Lite NS" by .derpy, targets My Little Pony: Friendship is Magic restoration and notes that V2.0 improved compression handling and reduced artifacting compared with V1.0.

Who it is for

  • Restoration and remaster hobbyists working on old cartoons, anime, or film scans who need a model matched to a specific artifact.
  • Video and image editors who want a starting point before testing models on their own footage.
  • Researchers and tinkerers who want to see what architectures and training targets exist in the field.

The trade-off is typical of community databases: breadth and useful tagging versus uneven depth. Some entries are richly documented, while others are brief, and quality claims come from the model authors rather than independent testing. Treat the descriptions as a shortlist, then run two or three candidates on a representative clip or image before committing.

If you are new to this, start with the tag selector: pick your content type (for example, anime or realistic) and your problem (denoise, deblur, or general upscaling), then read the scale factor and description for the top few results.

How do I choose the right AI upscaling model for my specific content type?

Match the model to the content and the job, not to the model's popularity. OpenModelDB is built around that filtering problem: its browse view lets you narrow models by Subject (Anime, Cartoon, CGI, Faces, Game Screenshots, Game Textures, Manga, Pixel Art, Realistic, Text, Video Frame, AI Generated) and by Purpose (Anti-aliasing, Debanding, Deblur, Denoise, JPEG, Compression Removal, Restoration, General Upscaler, Texture Generation, and more), with an advanced tag selector when one tag isn't enough.

A practical selection routine

  1. Name the source, not just the genre. "Anime" is too broad; "1990s cel-animated TV, interlaced, VHS-sourced" points somewhere specific. On OpenModelDB, tags like Video Frame, Cartoon and Restoration separate models aimed at that case from models trained on clean digital art.
  2. Decide whether you are restoring or enlarging. Restoration models target artifacts (compression, halos, noise, JPEG blocking, deblurring). General upscalers target resolution. Running a restoration model at 4x because it happens to exist usually produces softer output than a purpose-built upscaler.
  3. Pick the scale factor you actually need. A 1x model cannot enlarge; a 2x model can be downscaled afterward, but you pay the cost of the larger pass. If you only need 1080p from 540p, a 2x model is the natural fit.
  4. Check the intended medium. Video Frame and animation-oriented models are often tuned for temporal consistency; still-image models may produce crisper single frames but flicker across a sequence.
  5. Read the model description for caveats. Authors frequently state the exact show, dataset or preprocessing they had in mind. Those notes are the fastest way to know whether your footage is in scope.

What the trade-offs look like

Your situation Better starting point Why
Old cel animation, interlaced source Cartoon + Video Frame + Restoration tags Models trained on that era's compression and line art; deinterlacing is usually a separate step
Modern anime, real-time playback Anime + Restoration, realtime-oriented entries Speed matters more than maximum detail recovery
Live-action film grain, mild softness Realistic + Deblur or General Upscaler Grain-aware training avoids plastic skin and smeared texture
Scanned manga or text pages Manga or Text + Dehalftone/JPEG Preserves line edges and readable glyphs instead of hallucinating strokes
Pixel art or retro game sprites Pixel Art Prevents the model from smoothing intentional hard edges

Deciding between two close candidates

Run the same short clip or crop through both and compare at 100% zoom on the parts you care about: faces, fine text, straight edges, and areas of flat color where artifacts show up as blotches. Watch for "AI smudging" — detail that looks plausible at a glance but dissolves on inspection. For video, check a few seconds across a cut or a pan, since frame-to-frame stability is where many otherwise sharp models fail.

A useful next step: open the browse page, apply your Subject and Purpose tags, then read two or three model descriptions before downloading anything. The descriptions usually tell you more about fit than any ranking does.

What are the differences between models for anime, realistic, and cartoon upscaling?

Models are organized less by a single "anime vs. realistic vs. cartoon" switch and more by the subject and purpose tags you combine: subject tags include Anime, Cartoon, Realistic, CGI, Faces, Game Textures, Manga and Pixel Art; purpose tags include General Upscaler, Restoration, Denoise, Deblur, Dehalo, Compression Removal, Debanding and Texture Generation. At OpenModelDB, those tags are the main way to compare candidates, and the database currently lists 671 models.

What actually differs

  • Training material and intent. An anime model is usually trained on animation frames, so it tends to preserve flat color regions, clean line art and stylized shading. A realistic model is trained on photographic or live-action content, where it must handle natural noise, skin texture, foliage and film grain without turning them into plastic. A cartoon model sits in between: cel animation, older TV masters, visible compression and sometimes interlacing. The Sonic 2x entries in the database are a concrete example — they are described as built for specific 1990s cartoon shows, with a note that deinterlacing may be needed first.
  • What "good" looks like. For anime, the failure mode is usually smeared line work or lost detail in small faces and text. For realistic footage, over-smoothing skin, waxy faces and erased grain are the common complaints. For cartoons, ringing around black outlines, banding in flat backgrounds and leftover compression blocks matter most.
  • Scale factor and speed. Some models are built for 1x restoration rather than enlargement; others target 2x or realtime use. The StarSample V2.0 Lite NS entry is described as originally viable mainly at 1x and improved for 2x in a later release, while Adore is described as a 2x realtime 1080p anime upscaler. Realtime models trade fine detail for speed; heavier architectures trade speed for cleaner output.

A practical comparison

Content Priority Typical tags to start with Main trade-off
Anime Clean lines, stable flat color Anime, Restoration Realtime speed vs. line fidelity
Realistic Natural texture, grain, skin Realistic, Denoise or Deblur Noise removal vs. lost micro-detail
Cartoon Edge integrity, compression cleanup Cartoon, Video Frame, Compression Removal Aggressive cleanup vs. ringing and smearing

How to choose

Start from the source, not the genre label. If you are working with a DVD-era cartoon rip, filter by Cartoon plus Video Frame and look at models trained on similar shows; if you are upscaling a modern anime Blu-ray, Anime plus Restoration is the better starting set. For live-action, decide first whether the problem is noise, blur or compression, then pick a purpose tag before comparing models.

A useful next step: run two or three candidate models on the same short clip — one clean scene, one dark or grainy scene, one with text or fine detail — and compare them at 100% zoom rather than full-frame. The model that wins on your worst scene is usually the safer default.

How can I contribute a new model to the OpenModelDB database?

OpenModelDB is a community-driven catalog of AI upscaling models, so contributions come from people who train or adapt models and want them listed alongside existing entries. The homepage presents "Contribute" as one of its four main sections, which is the intended starting point for adding a model.

What a contribution typically involves

A useful listing needs more than a file link. Based on how existing entries are structured, expect to provide:

  • Model name and author — the display name and who made it.
  • Scale factor — for example 1x, 2x, 4x.
  • Architecture — such as SPAN, RealPLKSR or Real-CUGAN, as shown in current entries.
  • Purpose and subject tags — categories like Anime, Cartoon, Realistic, Video Frame, Restoration or Denoise.
  • A description — what the model is for, what it was trained on, and any practical notes. Existing entries often mention the source material, dataset improvements between versions, and caveats such as interlacing.
  • A comparison or sample output — so users can judge quality rather than take a claim on trust.

Practical next step

Open the Contribute section on OpenModelDB and follow its submission guidance before preparing files. If you are deciding whether a model is worth listing, the test is whether it fills a gap: a model trained for a specific show, a particular compression artifact, or a niche subject is more useful to the database than another general-purpose upscaler with no distinguishing description. Write the entry the way you would want to read it when choosing between five similar models — state the target material, the scale, and the known weaknesses.

What do the different tags and purposes like 'Denoise' or 'Deblur' mean in the context of upscaling models?

These tags describe the specific defect a model was trained to fix, not just the fact that it enlarges an image. In upscaling, a model can be built for a clean 2x enlargement, or for repairing a particular artifact before or during enlargement. The purpose tag tells you which problem the model targets.

The main purpose categories

  • General Upscaler — trained mainly to enlarge clean or lightly degraded images without targeting one specific artifact. A safe default when you don't know what's wrong with the source.
  • Denoise — removes noise, such as film grain, sensor noise or compression speckle. Useful for old broadcasts, VHS captures or low-light footage. Over-denoising can erase fine texture, so it is a trade-off.
  • Deblur — attempts to reverse softness caused by motion blur, focus miss or resampling. It can sharpen edges, but may also amplify ringing or halos if the source is not genuinely blurred.
  • Debanding — smooths the stair-step colour bands seen in gradients, common in compressed video and anime skies.
  • Deblock — reduces the square blocking artifacts from heavy video compression.
  • Dehalo — reduces bright or dark rings around high-contrast edges, often left by earlier sharpening.
  • Dedither — removes intentional dithering patterns used to fake gradients in older or limited-palette images.
  • Dehalftone — removes halftone dot patterns, as found in scanned comics, manga or printed material.
  • JPEG — targets the blocky and ringing artifacts of JPEG compression.
  • Restoration — a broader label for repairing aged, degraded or damaged material, often combining several of the above.
  • Colorization — adds colour to grayscale or monochrome sources.
  • Inpainting — fills in missing or removed regions rather than enlarging the whole frame.
  • Texture Generation — invents plausible surface detail where the source has none. This is generative, so results can differ from the original content.
  • Anti-aliasing — softens jagged diagonal edges, common in game textures and pixel art.
  • Compression Removal — a general tag for undoing compression artifacts such as blocking, ringing and banding together.
  • DDS — relates to the DDS texture format, typically for game texture workflows.
  • Pretrained — indicates a model supplied already trained, ready to use rather than requiring your own training.
  • Research — models intended for experimentation or comparison rather than routine production use.

Subject tags are separate

Tags like Anime, Cartoon, Manga, Pixel Art, Faces, Realistic, CGI, Game Textures, Game Screenshots, Video Frame or Text describe the content the model was trained on. They matter because a model tuned for cel animation often handles flat colour and line art well but performs poorly on photographic skin or film grain, and vice versa.

A practical example

A 1990s cartoon capture with interlacing and compression noise needs a different toolchain from a clean modern photo. On OpenModelDB, a listing such as the 90s Sonic 2x models by pokepress is tagged Cartoon, Restoration and Video Frame, and its own description notes that deinterlacing with QTGMC is advisable for maximum quality. That combination tells you it was built for aged animation footage, not for general photography.

How to choose

  1. Identify the dominant defect: noise, blur, banding, blocking, halftone or compression.
  2. Match the purpose tag to that defect.
  3. Match the subject tag to your content type.
  4. Compare sample images at the intended scale factor, since a model may be strong at 2x and weak at 4x.
  5. Test on a short clip or a few frames before committing to a full batch.

As a next step, open OpenModelDB and filter by purpose first, then subject, then review the sample comparisons for the models that remain.

How do I compare the performance and quality of different upscaling models?

Compare models on OpenModelDB by matching the model's stated purpose and subject tags to your source material first, then judging quality within that narrow group. A model trained for 1990s cel animation will usually beat a general-purpose upscaler on that footage and lose badly on live-action film grain, so cross-category rankings are misleading.

OpenModelDB is a community-driven database of AI upscaling models, currently listing 671 models with browse filters for subject (Anime, CGI, Faces, Game Textures, Manga, Pixel Art, Realistic, Video Frame and more) and purpose (Denoise, Deblur, Dehalo, Debanding, JPEG, Compression Removal, Restoration, General Upscaler). Those two axes are the practical comparison unit.

A workable comparison routine

  1. Fix your inputs. Note resolution, whether the source is interlaced, and the dominant artifact (compression, halos, noise, softness). Interlacing matters: the 90s Sonic models by pokepress are described as being for cel-based animation where some segments use panning above 24fps, and the entry suggests deinterlacing with QTGMC first.
  2. Filter by subject and purpose, not by popularity. Narrow to models whose descriptions mention your content type and your main defect.
  3. Compare within a family. Successors often document what changed. StarSample V2.0 Lite NS by .derpy is described as improving on V1.0's dataset, moving from being realistically viable only at 1x to being far more competent at 2x, with better compression understanding and less artifacting and "AI smudging."
  4. Check the scale factor against your target. A 1x restoration model and a 2x upscaler solve different problems. Adore by renarchi is listed as a 2x realtime 1080p anime upscaler and an improved successor to the Fallin models.
  5. Test on clips, not stills, where motion is involved. Temporal stability and flicker rarely show up in a single frame.

What to look at per model

Signal Why it matters
Subject tags Predicts whether textures and edges match your content
Purpose tags Tells you whether it removes artifacts or mainly enlarges
Scale factor Determines whether it fits your output resolution
Architecture name Groups models built on the same base, useful for like-for-like comparison
Description notes Often names the training source, e.g. specific shows or art styles

Practical example

Suppose you are restoring a DVD rip of a 1990s cartoon. Filter to Cartoon and Restoration, and you will land on entries like the 90s Sonic 2x models, one small and one large, both by pokepress and both scoped to Adventures of Sonic the Hedgehog and Sonic SatAm. The small and large variants give you a direct speed-versus-quality trade-off on identical training data, which is a cleaner comparison than pitting two unrelated models against each other. Run both on the same 30-second clip containing panning, then compare edge stability and how much line art wobbles.

As a next step, pick two models that share subject and purpose tags but differ in architecture or scale, and diff them on one clip that contains your worst artifact. Prefer the model whose description explicitly names your content type; treat general-purpose upscalers as the fallback when nothing specific exists.

Related questions

More questions →
How to Contribute to OpenModelDB

OpenModelDB is a community-driven database of AI upscaling models, and it has a dedicated Contribute section in its main navigation alongside Browse and Learn. That means the site is built to accept additions from its users rather than being maintained by a single closed team. If you have a model, a correction, or missing metadata, the intended path is to go through that Contribute entry point. The exact submission form fields and review process are not described in the available page content, so treat the steps below as the general workflow the site's structure implies, and confirm specifics once you open the Contribute page.

What OpenModelDB Is, and Why Contributing Matters

The site describes itself as "a community driven database of AI Upscaling models" with the stated aim of providing "a better way to find and compare models than existing sources." At the time of the captured page it listed 671 models.

That framing tells you what a contribution is worth. The database is only as useful as its coverage and accuracy. When you add a model or fix its details, you improve the two things the site is explicitly trying to do: finding models and comparing them.

What a Contribution Typically Consists Of

Because the site organizes models by tags, a useful contribution is usually more than a name and a link. Based on how models are displayed, expect to supply or correct:

  • Model name and author — for example, "2 x 90s Sonic 2x (Small) by pokepress" or "2 x Adore by renarchi."
  • Scale factor — the listing format shows values like 2 x and 1 x.
  • Architecture — visible in listings as labels such as RealPLKSR, Real-CUGAN, and SPAN.
  • Subject tags — the categories the model is trained for, such as Cartoon, Anime, Realistic, Manga, Pixel Art, or Video Frame.
  • Purpose tags — what the model does, such as Restoration, Denoise, Deblur, Dehalo, Compression Removal, or General Upscaler.
  • A description — the model entries include a written summary of what the model is for and any usage notes.

The description field is where contributors add real value. The Sonic models, for instance, note that the source shows are cel-based animation but some segments use panning to achieve above 24fps, so the author recommends QTGMC deinterlacing for maximum quality. That kind of practical note is exactly what helps someone decide whether a model fits their footage.

How to Submit

  1. Open openmodeldb.info and go to the Contribute section in the main navigation.
  2. Provide the model's identifying details: name, author, scale, and architecture.
  3. Assign Subject and Purpose tags. The site also offers an Advanced tag selector on the browse side, which reflects how central tagging is to the database.
  4. Write a description covering what the model targets, its training basis, and any processing caveats (like the deinterlacing note above).
  5. Submit and wait for review. Community databases normally vet entries before or after they appear, so expect your addition to be checked rather than published instantly.

Expected result: your model becomes searchable and comparable alongside the existing entries, and it shows up under the relevant tag filters.

Common Snags

  • Tag mismatch. If you tag a model as Anime when it is really a general Realistic upscaler, it will surface in the wrong searches and undercut the comparison value the site is trying to provide.
  • Thin descriptions. A name and a download link tells a visitor nothing about whether the model suits their source. Note the training material and any preprocessing requirements.
  • Version confusion. The StarSample V2.0 Lite NS entry shows how much a version can change — V2.0 improved the dataset to the point that models went from being viable mainly at 1x to being far more competent at 2x. Make clear which version you are submitting.
  • Assuming instant publication. The page content does not state the review timeline, so do not plan around immediate visibility.

If You Are Not Submitting a Model

Contribution is not limited to new models. Correcting a scale factor, fixing an author credit, or clarifying a description all serve the same goal. If you spot an entry whose tags or notes do not match what the model actually does, that is a contribution worth making through the same Contribute channel.

For the precise submission fields and any account or formatting requirements, open the Contribute page directly — the available site content confirms the entry point exists but does not document the form itself.

What Do the Subject and Purpose Tags Mean on OpenModelDB?

Subject and purpose tags on OpenModelDB are the two filters that answer different questions about a model. Subject tags describe what the model was trained on — anime, cartoon, realistic footage, pixel art, and so on. Purpose tags describe what the model is meant to do to that footage — denoise, deblur, dehalo, upscale, restore, and so on. You pick a subject to match your source material, then a purpose to match the defect or goal you have in mind, and the database narrows from 671 models to the ones actually relevant to your job.

Subject tags: what the model expects as input

Subject tags classify a model by the kind of content it was trained to handle. The site lists these subject categories:

  • AI Generated — output from image or video generators
  • Anime — Japanese-style animation
  • Cartoon — Western-style animation
  • CGI — computer-generated imagery
  • Faces — close-up or prominent human faces
  • Game Screenshots — captured gameplay frames
  • Game Textures — in-game texture assets
  • Manga — black-and-white comic pages
  • Pixel Art — low-resolution sprite-style graphics
  • Realistic — live-action photographic footage
  • Text — text-heavy frames or scans
  • Video Frame — general video frames

The subject tag is a statement about the training data, not a hard restriction. A model tagged Cartoon was trained on cel animation, so it will behave best on cel animation and may produce artifacts on live-action footage. The Sonic example on the site makes this concrete: 90s Sonic 2x (Small) and 90s Sonic 2x (Large) are both tagged Cartoon, Restoration, and Video Frame, and the description says they were designed specifically for Adventures of Sonic the Hedgehog and Sonic SatAm — two specific 1993–1994 shows. That is a very narrow subject match, and using it on unrelated cartoons is a gamble.

Purpose tags: what the model is meant to fix or produce

Purpose tags describe the transformation the model performs. The site lists:

  • Anti-aliasing — smoothing jagged edges
  • Colorization — adding color to grayscale
  • Compression Removal — reducing compression artifacts
  • DDS — handling DDS texture formats
  • Debanding — removing color banding
  • Deblur — sharpening blurred detail
  • Dedither — removing dithering patterns
  • Dehalftone — removing halftone print patterns
  • Dehalo — removing ringing/halo artifacts
  • Denoise — reducing noise
  • General Upscaler — broad upscaling without a narrow specialty
  • Inpainting — filling in missing or damaged regions
  • JPEG — repairing JPEG artifacts
  • Pretrained — a base model intended for further training
  • Research — experimental or academic models
  • Restoration — general repair of degraded footage
  • Texture Generation — creating texture detail

A single model can carry several purpose tags. StarSample V2.0 Lite NS is tagged Anime and Restoration, and its description explains that V2.0 improved its handling of compression and reduced "AI smudging" — that is a purpose claim about compression removal and artifact suppression, not just a subject claim.

How the two tag types work together

The tags are designed to be combined, not read in isolation. A practical selection flow looks like this:

  1. Identify your subject. Is your source anime, live-action, a game screenshot, pixel art, or something else? Filter by that subject first.
  2. Identify your purpose. Is the problem noise, blur, compression, halos, banding, or is the goal simply to upscale clean footage? Filter by that purpose second.
  3. Read the model description. Tags are broad; descriptions are specific. The Sonic models are tagged Cartoon + Restoration, but the description reveals they target two named shows and even recommends QTGMC deinterlacing for maximum quality — details the tags alone cannot convey.
  4. Check the scale factor. Model names often carry a multiplier such as 2x or 1x. Adore is described as a "2x model for Realtime 1080p anime upscaler," while StarSample V2.0 Lite NS is listed at 1x. Match the scale factor to your target resolution.

Why the distinction matters when choosing

Subject and purpose tags fail in different ways if you ignore them:

  • Wrong subject → the model applies detail patterns from the wrong domain. A pixel-art model run on photographic footage can invent blocky edges that were never there.
  • Wrong purpose → the model does work you did not ask for. A denoise model run on already-clean footage can soften real detail; a general upscaler run on heavily compressed video may amplify the compression instead of removing it.

The site's stated aim is to let you "find and compare models" better than existing sources, and the tag system is the mechanism for that comparison. Two models can share a subject but differ in purpose — for example, two Anime models where one is a General Upscaler and the other is Restoration — and the purpose tag is what tells you which one fits a degraded source versus a clean one.

A quick reference

If your source is… Start with subject tag… And if the problem is… Add purpose tag…
Cel animation from a specific show Cartoon Grain, scratches, compression Restoration
Modern anime Anime Blur or softness Deblur
Live-action film Realistic Noise Denoise
Retro game sprites Pixel Art Blocky scaling General Upscaler
Scanned manga Manga Halftone dots Dehalftone
AI-generated image AI Generated Banding Debanding

Use the subject tag to match the model to your material and the purpose tag to match it to your defect. When the two overlap with several candidates, the model description — not the tags — is where you confirm the specific shows, resolutions, and scale factors a model was built for.

What Is OpenModelDB?

OpenModelDB is a community-driven database of AI upscaling models, hosted at openmodeldb.info. It exists to make finding and comparing upscaling models easier than scattered forum posts, GitHub repos, and Discord threads allow. If you already know you need an upscaler but don't know which model fits your source material, OpenModelDB is built for that decision. If you want to publish or document a model you trained, it also has a contribution path.

What you can actually do on the site

The homepage states the goal directly: "We aim to provide a better way to find and compare models than existing sources." In practice that means three activities, reflected in the site's own navigation: Browse, Learn, and Contribute.

  • Browse — filter and search the model catalog.
  • Learn — background material on upscaling concepts and model behavior.
  • Contribute — add or improve model entries.

The catalog is not a small curated list. The homepage reports 671 models at the time of writing, which is the main reason a database structure matters here: at that scale, browsing by hand stops working and filtering becomes the primary tool.

How the catalog is organized

Models are tagged along two independent axes, which is what makes comparison possible rather than just search.

Subject — what the model was built to handle:

  • AI Generated
  • Anime
  • Cartoon
  • CGI
  • Faces
  • Game Screenshots
  • Game Textures
  • Manga
  • Pixel Art
  • Realistic
  • Text
  • Video Frame

Purpose — what the model is supposed to fix or produce:

  • Anti-aliasing
  • Colorization
  • Compression Removal
  • DDS
  • Debanding
  • Deblur
  • Dedither
  • Dehalftone
  • Dehalo
  • Denoise
  • General Upscaler
  • Inpainting
  • JPEG
  • Pretrained
  • Research
  • Restoration
  • Texture Generation

There is also an Advanced tag selector for combining these conditions rather than picking one at a time. This matters because real tasks are usually compound: restoring a compressed cartoon video frame is a different filter combination than cleaning up pixel art.

What a model entry tells you

Each entry pairs the model with its intended use and its architecture, which is the information you need before downloading anything. From the listings visible on the homepage:

Model Scale Architecture Intended use
90s Sonic 2x (Small) by pokepress 2x RealPLKSR Footage from Adventures of Sonic the Hedgehog and Sonic SatAm (1993–1994)
90s Sonic 2x (Large) by pokepress 2x Real-CUGAN Same source material as the Small variant
Adore by renarchi 2x SPAN Realtime 1080p anime upscaling; described as an improved successor to the Fallin models
StarSample V2.0 Lite NS by .derpy 1x — Restoration of My Little Pony: Friendship is Magic, plus similar art

Two things are worth noticing in that table. First, the same source material can have multiple entries at different sizes or architectures — the Sonic pair differs only in that respect, so the choice between them is a tradeoff, not a correctness question. Second, entries carry practical caveats. The Sonic models note that some segments use panning to exceed 24fps, so the author recommends QTGMC deinterlacing if you want maximum quality. That kind of note is the difference between a model working and a model disappointing you.

The StarSample entry shows how version notes are handled: V2.0 is described as improving on V1.0's dataset across the board, moving the models from realistically viable only at 1x to competent at 2x, with better compression handling and less artifacting and "AI smudging." The dataset draws from a wider variety of sources despite being smaller than V1.0 when tiled. That is the level of detail to read before assuming a newer version is automatically the right pick for your footage.

Choosing a model: the decision path

  1. Identify your source type. Anime, live-action realistic footage, game textures, and pixel art each point to different subject tags.
  2. Identify the defect or goal. If the problem is compression artifacts, filter for Compression Removal or JPEG rather than General Upscaler.
  3. Check the scale factor. A 2x model and a 1x model are not interchangeable for a given pipeline; the Sonic and Adore entries are both 2x, while StarSample V2.0 is discussed at both 1x and 2x with different results.
  4. Read the notes, not just the tags. Deinterlacing requirements, source-specific training, and version caveats live in the description.
  5. Compare candidates on the same dimensions. When two models target your material, compare architecture, scale, and stated purpose side by side before testing.

When OpenModelDB is the right tool — and when it isn't

It fits when you have a defined upscaling task and need to find or compare candidate models, or when you want to document a model for others. It is less useful if you are looking for a single recommended model with no filtering — the value is in the tags and comparison structure, not in a ranked list. It also won't tell you how to run a model inside your specific toolchain; that belongs to the model's own documentation.

If you contribute, the same structure applies in reverse: a useful entry states the subject, the purpose, the scale, the architecture, and the conditions under which the model performs well or poorly.

How OpenModelDB Compares AI Upscaling Models Differently

OpenModelDB is a community-driven database of AI upscaling models that organizes its catalog by subject (what the content is) and purpose (what the model does), rather than by the framework or repository a model happens to live in. That structure is the core difference: instead of browsing scattered release threads or GitHub repos, you filter a single list of models by the problem you're trying to solve. As of the site's current listing, it indexes 671 models.

The organizing principle: subject + purpose

Most sources for finding upscaling models are organized around the model author, the training framework, or the release channel. OpenModelDB instead exposes two parallel taxonomies that you combine:

  • Subject — the type of content the model targets: AI Generated, Anime, Cartoon, CGI, Faces, Game Screenshots, Game Textures, Manga, Pixel Art, Realistic, Text, Video Frame.
  • Purpose — the task the model performs: Anti-aliasing, Colorization, Compression Removal, DDS, Debanding, Deblur, Dedither, Dehalftone, Dehalo, Denoise, General Upscaler, Inpainting, JPEG, Pretrained, Research, Restoration, Texture Generation.

This means a single query can be as narrow as "Cartoon + Restoration" or "Video Frame + Deblur," and the results are models tagged for exactly that combination. An "Advanced tag selector" lets you stack these filters further.

What each model entry tells you

The comparison value comes from what's shown per model. A typical entry includes:

Field What it gives you
Model name + scale e.g. "2x Adore," "1x StarSample V2.0 Lite NS" — the native upscale factor
Author Who trained it (e.g. pokepress, renarchi, .derpy.)
Architecture e.g. RealPLKSR, Real-CUGAN, SPAN — useful when comparing models built on the same base
Subject / Purpose tags The filters above, applied to that model
Description The intended source material, caveats, and version notes

The description field is where practical comparison happens. For example, the 90s Sonic 2x models (Small and Large variants by pokepress) are both tagged Cartoon / Restoration / Video Frame and both target Adventures of Sonic the Hedgehog and Sonic SatAm — the difference is the architecture (Compact vs. RealPLKSR) and the size tradeoff implied by the names. The description also flags a real workflow detail: some segments use panning to exceed 24fps, so the author recommends QTGMC deinterlacing for maximum quality.

Similarly, StarSample V2.0 Lite NS by .derpy. is described as a restoration model for My Little Pony: Friendship is Magic that also works on similar art. The version note is the comparison-relevant part: V2.0 improves the dataset over V1.0, moving the models from being realistically viable only at 1x to being far more competent at 2x, with better compression handling and less "AI smudging." That kind of version-to-version delta is exactly what you'd otherwise have to reconstruct from scattered release posts.

How this differs from other sources

  • Framework/repo browsing (e.g. a model zoo tied to one architecture) shows you what exists for that framework. OpenModelDB shows models across architectures — RealPLKSR, Real-CUGAN, SPAN, and others appear side by side — so you compare by outcome, not by implementation.
  • Release threads and forums give you the author's announcement, but tags and cross-model filtering are usually absent. Here, the same model is reachable from multiple filter paths.
  • Single-purpose lists (e.g. anime-only or photo-only) can't answer cross-domain questions. The subject taxonomy here spans anime, live-action video frames, game textures, text, and pixel art in one index.

The stated aim is to make finding and comparing models better than existing sources — the mechanism is the shared tag vocabulary plus per-model metadata, not a ranking or benchmark score.

What it does not do

The listing is descriptive, not evaluative. There's no built-in quality ranking, no benchmark leaderboard, and no automatic recommendation. You still read the description and judge fit for your source material. The "Relevance" sort and the tag filters narrow the field; they don't tell you which model wins.

Community-driven coverage

Because it's community-driven, coverage grows as contributors add models and tags. That's the tradeoff to keep in mind: breadth and cross-architecture comparison come from volunteer contributions, so a very new or niche model may not be listed yet, and tag accuracy depends on contributors. For the 671 models currently indexed, the payoff is a single filterable surface instead of a dozen disconnected sources.

Practical takeaway

If you know your content type and your problem, start with the two filters — subject and purpose — then use the model description to compare scale, architecture, and version notes. If you're choosing between models built on the same architecture, the description's version history and caveats are the deciding information. If you need a benchmark ranking, this isn't that tool; it's a structured catalog for narrowing candidates.

How to Find an AI Upscaling Model on OpenModelDB

OpenModelDB is a community-driven database of AI upscaling models, and the fastest way to find one is to use its Browse filters. Start by choosing a Subject (what your source footage or image contains) and a Purpose (what you want the model to do), then narrow the results with the Advanced tag selector. At the time of writing the database lists 671 models, so filtering is the practical way to reach a shortlist rather than scrolling the full catalog.

Start with the two main filters

The Browse page exposes two primary filter groups, and combining them is what turns a large catalog into a usable list.

Subject — what is in your source

Pick the category that matches your material:

  • AI Generated
  • Anime
  • Cartoon
  • CGI
  • Faces
  • Game Screenshots
  • Game Textures
  • Manga
  • Pixel Art
  • Realistic
  • Text
  • Video Frame

Purpose — what you want the model to do

Pick the task you need performed:

  • Anti-aliasing
  • Colorization
  • Compression Removal
  • DDS
  • Debanding
  • Deblur
  • Dedither
  • Dehalftone
  • Dehalo
  • Denoise
  • General Upscaler
  • Inpainting
  • JPEG
  • Pretrained
  • Research
  • Restoration
  • Texture Generation

A useful habit is to set Subject first, because a model trained on anime line art behaves very differently from one trained on photographic faces. Then add Purpose to remove models that solve a different problem.

Use the Advanced tag selector

The Advanced tag selector is where you refine beyond the two main groups. Use it when your first pass returns too many results or results that are close but not quite right.

Practical ways to narrow:

  • Add tags that describe your specific defect (for example a compression or haloing problem) rather than a broad category.
  • Combine a broad Subject with a narrow Purpose when the broad Subject alone returns too much.
  • Remove one filter at a time if you drop to zero results, so you can see which constraint was too strict.

Read the model card before you commit

Each result carries metadata that tells you whether the model actually fits your case. The listing shows the model name, author, scale factor, architecture, and tags. For example, a result might read:

  • 2x 90s Sonic 2x (Small) by pokepress — designed for upscaling footage from Adventures of Sonic the Hedgehog and Sonic SatAm (1993–1994). The description notes these are cel-based animation but that some segments use panning to achieve >24fps, so you may want to use QTGMC to deinterlace for maximum quality. Tags: Cartoon, Restoration, Video Frame, RealPLKSR.
  • 2x Adore by renarchi — a 2x model for a realtime 1080p anime upscaler, described as an improved successor to the Fallin models using the same architecture and purpose. Tags: Anime, Restoration, SPAN.
  • 1x StarSample V2.0 Lite NS by .derpy. — a model for restoring My Little Pony: Friendship is Magic that also works decently on similar art. The description states V2.0 improves on V1.0's dataset, moving from being realistically viable only at 1x to being far more competent at 2x, with better compression understanding and less artifacting and "AI smudging."

What to check on each card:

Field Why it matters
Scale factor (1x, 2x, etc.) Tells you the output size you should expect
Architecture Indicates the model family and how it is run
Tags Confirms the subject and purpose match
Description Explains the intended source and any preprocessing advice

A worked example

Suppose you are restoring a cel-animated cartoon from the early 1990s and the source is interlaced.

  1. Set Subject to Cartoon.
  2. Set Purpose to Restoration.
  3. Open the Advanced tag selector and add Video Frame if you are working frame-by-frame.
  4. Read the remaining cards and prefer one whose description names your type of source — the 90s Sonic models above explicitly target 1993–1994 cel animation.
  5. Note any preprocessing the description recommends, such as deinterlacing with QTGMC before upscaling.

If your material is anime rather than Western cartoon, switch Subject to Anime and look for models like Adore that are described for realtime 1080p anime upscaling.

Common sticking points

  • Zero results. You have over-constrained. Drop the Advanced tags first, then relax Purpose, then Subject.
  • Results that look right but perform poorly. The Subject tag is broad; the description often names a narrower source. Match the description to your actual footage.
  • Ignoring the scale factor. A 1x model will not enlarge your image; it is for restoration at the same resolution.
  • Skipping preprocessing. Some model descriptions assume prior steps such as deinterlacing. Doing those first changes the result.

When to use OpenModelDB

Use it when you already know what your source contains and what defect you want fixed, and you want to compare candidate models rather than guess. Its stated aim is to make finding and comparing models better than existing sources, and the Subject/Purpose/tag structure is what delivers that. If you are still deciding what kind of model you need, browse by Subject alone first to see what categories exist, then add Purpose once you recognize your task.

Website Overview

An active inbound-mail setup with incomplete authentication may leave the domain more open to impersonation. Provider hosting alone does not close that gap.

Domain and Registration

Transfer-protection status is present, helping reduce the risk of unauthorized domain transfers. The domain has about 3 years of registration history; its current configuration provides more context than age alone. The registrar is NameCheap, Inc., a widely used domain service provider. The domain uses the common .info extension, which is not an independent safety signal.

DNS and Email

The observed email authentication setup is incomplete: DMARC is missing. Nameservers are provided by Namecheap, indicating managed DNS hosting. MX records point to the registrar-servers.com email service. No CNAME was found; the observed records resolve directly to addresses. DNSSEC signatures were not detected, so this additional DNS authenticity protection is not confirmed.

TLS and Certificates

The certificate uses an RSA 2048-bit public key, offering broad client compatibility. The server supplied a complete certificate chain. No organization name is present in the certificate; the available fields are consistent with domain validation. The certificate was issued by Let's Encrypt, commonly associated with automated certificate services. The certificate's total validity is about 89 days, consistent with a short renewal cycle.

HTTP and Browser Security

The response lacks these common security headers: CSP, X-Content-Type-Options, Referrer-Policy, Permissions-Policy, clickjacking protection. CORS permits any origin to read this response. This is common for public resources; sensitive responses need narrower handling. No X-Powered-By header was found, reducing one common source of backend fingerprinting information. The x-cache, x-served-by, via response header indicates a CDN or caching proxy in the delivery path. No obvious internal addresses or debug information were found in the headers.

Technology Stack Analysis

The public page identifies Next.js, Fastly without precise versions, leaving fewer clues for version-specific scanning.

Search and Social Sharing

No homepage canonical URL was detected. If duplicate URLs exist, consolidation may be less explicit. The title has 11 characters, within a common display range. A meta description is present, with 147 characters. The observed directives allow indexing and link following. No Generator meta tag is publicly exposed.

Hosting and Email

DNSNamecheap
HostingFastly
Emailregistrar-servers.com
Approximate IP geolocation (inferred; a CDN or proxy may differ from the origin server) United States flagUnited States Inferred 185.199.108.153

Registration details

RDAP / WHOIS

RegistrarNameCheap, Inc.
Registered2023-01-28
Expires2027-01-28
Domain statusclient transfer prohibited
Nameserversdns1.registrar-servers.com、dns2.registrar-servers.com
DNSSECunsigned

DNS records

DNS

TypeNameValueTTLPriority
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Aopenmodeldb.info185.199.110.1531800—
Aopenmodeldb.info185.199.111.1531800—
MXopenmodeldb.infoeforward1.registrar-servers.com180010
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MXopenmodeldb.infoeforward4.registrar-servers.com180015
MXopenmodeldb.infoeforward5.registrar-servers.com180020
NSopenmodeldb.infodns1.registrar-servers.com1800—
NSopenmodeldb.infodns2.registrar-servers.com1800—
TXTopenmodeldb.infov=spf1 include:spf.efwd.registrar-servers.com ~all1800—

TLS and certificates

TLS / SSL

AssessmentNormal configuration
Supported protocolsTLSv1.2、TLSv1.3
Negotiated protocolTLSv1.3
Certificate subjectopenmodeldb.info
IssuerLet's Encrypt
Valid until2026-11-16T23:18 · Remaining when checked: 38 days
Verification detailsCertificate trust: Passed · Hostname match: Passed

HTTP response headers

HTTP

HeaderValue
content-typetext/html; charset=utf-8
cache-controlmax-age=600
serverGitHub.com
strict-transport-securitymax-age=31556952
access-control-allow-origin*

Identified technologies

Next.jsFastly

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Meta descriptionOpenModelDB is a community driven database of AI Upscaling models. We aim to provide a better way to find and compare models than existing sources.
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