Biggest difference so far is that Minio is just files on disk, Garage chunks all files and has a metadata db.
Minios listing operations were horribly slow, still have to see if Garage resolves that.
Minio _was_ just files on disk. They don't support that mode anymore since 2022-10-29 (see the big yellow warning box at [1]).
[1] https://min.io/docs/minio/linux/operations/install-deploy-ma...
For the same reason, it looks like Garage is not an option for my use case.
I'd kind of expect most blob storage solutions to use abstractions other than just the file system, or at least consider doing so.
I recently built a system to handle millions of documents as a proof of concept and when I was testing it with 10 million files, the server ran out of inodes, before I went over to storing the blobs in some attached storage that had XFS: https://blog.kronis.dev/tutorials/3-4-pidgeot-a-system-for-m...
With abstracted storage (say, files bunches up into X MB large containers or chunked into such when too large, with something else to keep track of what is where) that wouldn't be such an issue, though you might end up with other issues along the way.
It's curious that we don't advocate for storing blobs in relational databases anymore, even though I can also understand the reasoning (or at least why having a separate DB for your system data and your blob data would be a good idea, for backups/test data/deciding where to host what and so on).
Honestly, I'd expect the exact opposite. Filesystems are really good at storing files. Why not leverage all that work?
> I recently built a system to handle millions of documents as a proof of concept and when I was testing it with 10 million files, the server ran out of inodes, before I went over to storing the blobs in some attached storage that had XFS
That's a misconfiguration issue though, not a reason to not store blobs as files on disk. Ext4 can handle 2^32 files. ZFS can handle 2^128(?).
> With abstracted storage (say, files bunches up into X MB large containers or chunked into such when too large, with something else to keep track of what is where) that wouldn't be such an issue, though you might end up with other issues along the way.
A few issues that come to mind for me:
* This requires tuning to actually reduce the number of inodes of used for certain datasets. E.g., if I'm storing large media files, that chunking would _increase_ the number of files on disk, not reduce it. At which point, if inode limits are the issue, we're just making it worse.
* It adds additional complexity. Now you need to account for these chunks, and, if you care about the data, check it periodically.
* You need specific tooling to work with it. Files on a filesystem are.. files on a filesystem. Easy to backup, easy to view. Arbitrary chunking and such requires tooling to perform operations on it. Tooling that may break, or have the wrong versions, or.. etc.
> It's curious that we don't advocate for storing blobs in relational databases anymore, even though I can also understand the reasoning
In my experience, the popular RDBMS out there just aren't good at it. With the way locking semantics and their transaction queueing works, storing and retrieving lots of blobs just isn't performant. You can get away with it for a long time though, and it can be pretty nice when you can.
That's exactly what I did recently on new work: migrated blobs from DB to S3. It significantly reduced load from the servers (and will reduce more, right now the implementation is primitive - just proxying S3, using URL will allow other services to deal with S3 directly). It solved backup nightmare (those people couldn't do backup because their server run out of space every month). I'll admit that backup issue is more like admin incompetence but I work with what I get. Having database shrink from 200GB to 80MB now allows to backup/restore it in seconds rather than hours.
I didn't find any issues with S3 approach. Even transactions solved by a tiny possibility of leaving junk in S3 which is a non-issue. Just upload all data to S3 before commit and delete if commit fails (and if commit fails and delete fails, so be it).
Seaweed design goals / features: https://github.com/seaweedfs/seaweedfs
MinIO: https://min.io/docs/minio/linux/operations/concepts.html
Note Garage list of non goals specify priority features of Seaweed or MinIO, for example erasure coding.
Ceph has an S3 API gateway, but it's a more wholesome solution better suited for larger setups compared to Minio and Garage.
Brad Fitzpatrick was (still is?) living in the future.
Garage, our self-hosted distributed object storage solution - https://news.ycombinator.com/item?id=30256753 - Feb 2022 (130 comments)
But this entire comment thread on the AGPL misses the mark. It doesn't matter that the AGPL hasn't been tested in court or what fine grained distinctions you apply to the license or what the AGPL intends. No company in their right mind would risk using software licensed under the AGPL because the result of being wrong would be catastrophic. The legal advice to be skeptical of the AGPL is absolutely right. There is no conceivable reason to ever use AGPL software when you could simply license it under a commerical license or use a non-AGPL alternative.
Generally when someone licenses something under the AGPL they totally understand this and that is their intention.
The only "cloud" solution that could get closer to that is Storj. [0]
* https://github.com/juicedata/juicefs
I am not affiliated with them, just a regular user.