Git LFS Alternatives: Object Storage, CDN Hosting, and DVC

Two different problems send teams looking for Git LFS alternatives. One is the LFS meter, meaning bandwidth packs and storage quotas. The other is that the files never belonged in Git at all. The fix is different in each case, so start by deciding where the bytes should live.

Each row below is a different place to put a large file, not a different brand of the same thing.

Two of those rows get skipped in most comparisons. Release assets attach files to a Git tag, which suits installers and shipped binaries, though GitHub caps a single release asset at 2 GB and the files are tied to the release rather than to a commit. Transfer tools solve a one-time handoff instead of ongoing hosting, whether that is a consumer send (see the WeTransfer alternative page for the API-driven version) or a box you run yourself (see transfer.sh alternative). Neither one is a place to serve an asset from on every page load. The rest of this post covers the four rows that are.

Git was designed for source code — small text files that diff efficiently. When teams need to track large binary files (design assets, machine learning models, video, compiled binaries), Git struggles. Every clone downloads the entire history of every file, and large binaries bloat the repository size permanently.

Git LFS (Large File Storage) solves this by replacing large files in your repository with small pointer files. The actual file content lives on a separate LFS server, and Git downloads only the versions you check out. Your repository stays small, clones are fast, and git log works normally.

On paper, it is elegant. In practice, teams run into real problems — and those problems get worse as the project grows.

Bandwidth limits and storage quotas

GitHub includes 10 GB of free LFS storage and 10 GB of bandwidth per month on Free and Pro plans. After that, you buy data packs for additional capacity. This sounds reasonable until your CI/CD pipeline clones the repository 50 times a day, each time pulling LFS files. A team of 10 developers plus 3 CI runners can burn through the bandwidth quota in a week.

GitLab offers 10 GB of LFS storage on free plans, but bandwidth is counted against your overall transfer limit.

Bitbucket LFS is the tightest of the three: the Free plan ships just 1 GB of LFS storage, Standard raises it to 5 GB, and beyond that you buy space in $10-per-100 GB packs. Because Bitbucket meters LFS storage against the same namespace limits, a repo full of design assets or model checkpoints hits the ceiling fast, and every Pipelines run that pulls those objects counts against the transfer budget. Self-hosted solutions avoid these limits but introduce the operational cost of running your own LFS server. If the meter is the problem rather than Git integration, a Git LFS pricing alternative drops the quota model entirely: prepaid credits, no per-repo cap, no bandwidth packs.

CI/CD complications

Every CI/CD pipeline that clones the repository needs LFS credentials. This means:

• Configuring git lfs install in your CI environment
• Storing LFS credentials as CI secrets
• Handling LFS authentication failures (which produce cryptic error messages)
• Paying bandwidth costs for every CI run

Many teams end up adding GIT_LFS_SKIP_SMUDGE=1 to skip LFS downloads in CI, then selectively fetching only the files they need. This works but adds complexity to every pipeline.

# Common CI workaround: skip LFS, then selectively fetch
GIT_LFS_SKIP_SMUDGE=1 git clone https://github.com/org/repo.git
cd repo
git lfs pull --include="assets/needed-file.bin"

Migration pain

Once LFS is set up, migrating existing large files into LFS requires rewriting Git history with git lfs migrate. This changes every commit hash, breaks open pull requests, and forces every team member to re-clone the repository. It is a one-way door that affects the entire team.

# Migrate existing files to LFS — rewrites ALL history
git lfs migrate import --include="*.psd,*.zip" --everything
# Every team member must now re-clone

LFS locking

Binary files cannot be merged. If two people edit the same Photoshop file simultaneously, one person's work is lost. Git LFS has a file locking feature to prevent this, but it requires explicit git lfs lock and git lfs unlock commands. Teams frequently forget to lock files, and locked files that are not unlocked block other team members.

Storage costs at scale

LFS stores every version of every tracked file. If you have a 500 MB machine learning model that gets updated weekly, after a year you have 26 GB of LFS storage for that single file. At GitHub's pricing, that is meaningful. Deleting old LFS objects requires running git lfs prune, which only works locally — the server-side storage is harder to reclaim.

The most direct alternative is to stop storing large files in Git entirely. Use a dedicated file storage service and reference files by URL in your codebase.

How it works with [cdn22.net](/git-lfs-storage):

# Upload the asset to cdn22.net
curl -X POST https://api.cdn22.net/v1/files \
  -H "Authorization: YOUR_API_KEY" \
  -F "file=@model-weights.bin" \
  -F "folderId=ASSETS_FOLDER_ID"

# Response includes a permanent CDN URL
# https://cdn.cdn22.net/p/abc123/model-weights.bin

Store the URL in a configuration file or environment variable. Your CI/CD pipeline downloads assets via HTTP — no LFS credentials, no Git authentication, no bandwidth quotas.

# In your CI pipeline — download assets via HTTP
curl -O https://cdn.cdn22.net/p/abc123/model-weights.bin

Advantages:

• No Git history bloat — large files never enter the repository
• No bandwidth quotas on Git hosting
• CDN delivery — assets are served from edge locations, not pulled from a Git server
• CI/CD pipelines just use curl — no LFS setup required
• Version management is explicit (upload a new file, get a new URL)

Trade-offs:

• File versions are not tied to Git commits (you manage the mapping yourself)
• Requires a separate service account and API key
• No automatic diffing or history in git log

This approach works well for CI/CD artifact storage where build outputs, test fixtures, and deployment assets need to be shared across pipelines without polluting the Git repository.

DVC is designed specifically for machine learning workflows. It tracks large files, datasets, and model artifacts outside Git, using cloud storage (S3, GCS, Azure Blob) as the backend.

How it works:

# Initialize DVC in your Git repository
dvc init

# Track a large file — creates a .dvc pointer file
dvc add data/training-set.tar.gz

# Push the actual data to your configured remote (S3, GCS, etc.)
dvc push

# Another developer pulls the data
dvc pull

DVC creates .dvc pointer files (similar to LFS pointer files) that are committed to Git. The actual data lives on your own cloud storage.

Advantages:

• You control the storage backend — use your own S3 bucket with your own pricing
• Pipeline tracking — DVC can define data processing pipelines with dependency graphs
• Experiment tracking — built-in support for ML experiment comparison
• No bandwidth quotas from Git hosting providers

Trade-offs:

• Another tool to install and learn (Python-based, pip install)
• You manage the cloud storage infrastructure yourself
• Team onboarding requires DVC setup on every developer's machine
• Not widely adopted outside of ML/data science workflows

git-annex is the oldest and most flexible large file solution for Git. It predates Git LFS and supports a wide range of storage backends — local drives, SSH remotes, S3, rsync, even BitTorrent.

How it works:

# Initialize git-annex
git annex init "my laptop"

# Add a large file
git annex add large-video.mp4

# Sync with a remote
git annex sync --content

Advantages:

• Extremely flexible storage backends
• Content can exist on multiple remotes simultaneously
• Fine-grained control over which files are present locally
• Works fully offline — sync when ready

Trade-offs:

• Complex — the learning curve is steep compared to Git LFS
• Limited support on Windows
• Not well-supported by GitHub, GitLab, or Bitbucket (no built-in UI integration)
• Sparse community compared to Git LFS or DVC

The simplest alternative is to skip any Git integration entirely. Upload large files to S3 (or any object storage), and reference them by URL or version tag in your codebase.

# Upload with a version tag
aws s3 cp model-v2.3.bin s3://my-assets/models/model-v2.3.bin

# Reference in your config file
echo "MODEL_URL=https://my-assets.s3.amazonaws.com/models/model-v2.3.bin" >> .env

Advantages:

• Zero Git tooling overhead
• Full control over storage, pricing, and retention
• Works with any CI/CD system via standard AWS CLI

Trade-offs:

• Manual version management (you choose the naming convention)
• No integration with Git history — git log shows nothing about file changes
• Requires AWS credentials management
• No built-in CDN (unless you add CloudFront yourself)

Each alternative optimizes for a different use case. Here is how they compare across the dimensions that matter most.

cdn22.net is not a Git replacement. It holds the files people download rather than diff, and it fits these cases:

• Public web and app assets. Images, fonts, WebP, and SVG that your app references by URL get served from the edge instead of a Git host. See file storage with a CDN.
• Downloads a user clicks. Installers, sample datasets, and press kits need a stable link and no login. See large file transfer.
• Files embedded in a site or its docs. Diagrams, PDFs, and demo recordings referenced from documentation pages. See static website assets.
• Build artifacts moving between pipeline stages, where the only requirement is that the next job can fetch the bytes. See CI/CD artifact storage.
• Shareable large files for teammates or clients. Upload once through the file upload API, hand over the permanent link, delete it when the work ships.

Two things it will not do. Checking out an old commit does not roll an asset back with it, and there is no equivalent of git lfs lock to stop two designers editing the same PSD. Those are Git LFS features, and no CDN hands them back.

Cost is the other half of the decision. Git LFS bills in quota packs per Git host, while cdn22.net bills prepaid credits against stored bytes and delivery. Run your real numbers through the CDN storage cost calculator or read the affordable CDN pricing breakdown before moving anything.

Despite its pain points, Git LFS is the right tool in specific scenarios:

• Your large files change infrequently. If you track a handful of binary assets that update once a month, the bandwidth costs are negligible and the Git integration is convenient.
• Your team expects Git semantics. Designers and artists who use Git want git pull to give them the latest assets without learning a second tool.
• You are on a self-hosted Git server. Running your own GitLab or Gitea instance with LFS eliminates bandwidth quotas entirely. The storage costs are just disk space on your server.
• You need file versions tied to code commits. If reverting to commit abc123 must also revert the binary assets to their state at that commit, LFS (or DVC/git-annex) provides this automatically.

The honest recommendation: start by asking whether large files belong in your Git repository at all. If they do, Git LFS is the simplest starting point. If they do not — if they are build artifacts, deployment assets, media files, or ML models that change on a different cadence than your code — it is cleaner to store large build assets on a CDN or in direct cloud storage.