This might just be the frequency illusion at play, but there seem to have been a number of high-profile supply chain attacks of late in major packages. There are several articles on the first few pages of HN right now with different cases.
Looking back ten years to `left-pad`, are there more successful attacks now than ever? I would suspect so, and surely the value of a successful attack has also increased, so are we actually getting better as a broad community at detecting them before package release? It's a complex space, and commercial software houses should do better, but it seems that whilst there are some excellent commercial products (e.g. CI scan tools), generally accessible, idiot friendly tooling is somewhat lacking for projects which start as hobby/amateur code but end up being a dependency in many other projects.
I've cross-posted my comment from the current SAP supply chain attack thread [0].
Yeah, and ultimately no body cares. Everyone assumes it’s just some process miss, and we need to add another step to the process and move on. Fuck ups that would have killed the credibility of projects 10 years ago are now treated as “eeh what are you gonna do. Sometimes you ship malware. Will look into it”
An extreme example is now when I make interactive educational apps for my daughter, I just make Opus use plain js and html; from double pendulums to fluid simulations, works one shot. Before I had hundreds of dependencies.
Luckily with MIT licensed code I can just tell Opus to extract exactly the pieces I need and embed them, and tweaked for my usecase. So far works great for hobby projects, but hopefully in the future productions software will have no dependencies.
The problem with this is now you are solely responsible for managing all of the changes, all of the variation of life. Chrome changed the shape of this API, you are responsible for finding it and updating it. Morocco changed when their daylight savings took effect, now you need to update your date/time handling code. There are a lot of these things that we take for granted because our libraries handle it for us, and with no dependencies you have to do all the work. Not a big deal for making a double-pendulum simulator for your daughter to play with that will stop mattering next week, but is a concern for a company which is trying to build something that can run indefinitely into the future.
I am torn because I like rust over go, and rust is better from an LLM perspective. But the dependency philosophy on rust is basically a security blackhole whereas go is much better.
A portion of context that are required is exported to the compiler. In addition rust binaries are generally smaller both in terms of size and footprint.
The repository names all look like two terms/words from dune (harkonen, mentat, ornithoptor, etc.) followed by a number. This would indicate that the account (possibly GitHub auth/actions token) has been compromised and then used to create the repository.
That doesn't really explain why there is a bunch of GitHub repos created as well.
If I remember correctly from Shai-Hulud 2, the attacker extricated creds by posting them in public github repos with minor easily reversible encryption. I believe it was double b64 last time.
I'm assuming the logic there is that every security researcher and company is going to pull and scan those creds for their stuff and their clients' stuff. So the attacker is just 1 of N people downloading it. As opposed to trying to send it to their own machine directly.
I think it's more about convenience and bypassing filters - developers are already logged in to github, already have access to create repos and publish code, firewalls will allow it. Even fancy HIDS systems will think the git push is rather normal.
If they have a clue, the attacker still will not download that without using a botnet tunnel or Tor at a minimum.
Note though that these credentials aren't even encrypted using some lightweight ECC to prevent others from capturing them, they're posted in cleartext. Embarassment might be part of the point.
I'm curious what they do with various kinds of credentials if they get access.
I can see trying to steal crypto, but what do they do if they get some AWS credentials? Try to run some crypto mining instances? Try to use your account for other types of crimes? Or is it mainly trying to steal data and then ask for ransoms?
It's always crypto. A client got some AWS credentials stolen and without anyone checking the account, the hacker managed to spin up big EC2 instances across many regions. The bill after a month as I recall was around 100K. Since the activity was clearly fraudulent the bill was forgiven eventually. So remember to lock down your AWS keys permissions...
Andy from Lightning here. Thanks for pointing that out, we are updating the CVE. Only the versions from PyPi were affected. The malicious code was not checked into the GitHub repository
Not a security guy here. How did the dependency get compromised, exactly? Did they submit a PR into the main repo at github and it was approved by the maintainers? Or just host compromised versions in other mirrors?
Andy from Lightning here. The malicious code was not submitted to the main repo at Github. It appears our PyPi credentials were leaked and compromised packages were published directly there for versions 2.6.2 and 2.6.3
The decision to run all of my experiments in a monorepo with a single uv.lock continues to be validated. I usually only update it a few times a year. It was pinned at 2.6.1 for lightning \o/
I find this constant churn in the software world to be tiresome. I get it if there is a security update. Or you are building something new; it takes time and a series of updates to reach feature parity on 1.0. But most software is not like that. All these online registries make the problem worse. Any random tool installation pulls in 300 different dependencies.
This is why I have been building, for my own usecases, a new language + compiler + vm that is completely source based. The compiler does not understand linking. You must vendor every single dependency you use, including the standard library, so that it makes its way into the bytecode. The register VM itself is a few thousand lines of freestanding C. Any competent programmer can audit it over a weekend.
v1 deliberately keeps FFI (outside of a bounded set of linux syscalls) outside the current spec as libc has the habit of infecting everything it touches and I want to keep Vm0 freestanding. The last time I compiled the VM, it produced a 70KB binary and supported a loader with structural verification, the entire instruction set using a threaded interpreter, a simple Cheney+MS GC, concurrency via an Erlang-style M:N scheduler working on a single thread, and 20-odd marshaled functions.
Most software in the world does not need anything more than this. Everyone acts as if they are building the next Google.
Looking back ten years to `left-pad`, are there more successful attacks now than ever? I would suspect so, and surely the value of a successful attack has also increased, so are we actually getting better as a broad community at detecting them before package release? It's a complex space, and commercial software houses should do better, but it seems that whilst there are some excellent commercial products (e.g. CI scan tools), generally accessible, idiot friendly tooling is somewhat lacking for projects which start as hobby/amateur code but end up being a dependency in many other projects.
I've cross-posted my comment from the current SAP supply chain attack thread [0].
[0]: https://news.ycombinator.com/item?id=47964003
An extreme example is now when I make interactive educational apps for my daughter, I just make Opus use plain js and html; from double pendulums to fluid simulations, works one shot. Before I had hundreds of dependencies.
Luckily with MIT licensed code I can just tell Opus to extract exactly the pieces I need and embed them, and tweaked for my usecase. So far works great for hobby projects, but hopefully in the future productions software will have no dependencies.
https://github.com/search?q=A%20Mini%20Shai-Hulud%20has%20Ap...
> The attack steals credentials, authentication tokens, environment variables, and cloud secrets, while also attempting to poison GitHub repositories.
If I remember correctly from Shai-Hulud 2, the attacker extricated creds by posting them in public github repos with minor easily reversible encryption. I believe it was double b64 last time.
I'm assuming the logic there is that every security researcher and company is going to pull and scan those creds for their stuff and their clients' stuff. So the attacker is just 1 of N people downloading it. As opposed to trying to send it to their own machine directly.
If they have a clue, the attacker still will not download that without using a botnet tunnel or Tor at a minimum.
Note though that these credentials aren't even encrypted using some lightweight ECC to prevent others from capturing them, they're posted in cleartext. Embarassment might be part of the point.
In the meantime, please use 2.6.1 until we publish 2.6.4.
For more details: https://github.com/Lightning-AI/pytorch-lightning/security/a...
"deependujha hi @thebaptiste, thanks for inquiring. Release of 2.6.2 is blocked due to some internal reasons. Will notify once release is made. "
I'd hate it if they knew of the problem that long ago and didn't warn until now. If someone has more info and can clarify I'd be thankful.
https://github.com/Lightning-AI/pytorch-lightning/issues/216...
FYI, pip added cooldowns in 26.1:
To use:I can see trying to steal crypto, but what do they do if they get some AWS credentials? Try to run some crypto mining instances? Try to use your account for other types of crimes? Or is it mainly trying to steal data and then ask for ransoms?
https://github.com/Lightning-AI/pytorch-lightning/security/a...
This is why I have been building, for my own usecases, a new language + compiler + vm that is completely source based. The compiler does not understand linking. You must vendor every single dependency you use, including the standard library, so that it makes its way into the bytecode. The register VM itself is a few thousand lines of freestanding C. Any competent programmer can audit it over a weekend.
v1 deliberately keeps FFI (outside of a bounded set of linux syscalls) outside the current spec as libc has the habit of infecting everything it touches and I want to keep Vm0 freestanding. The last time I compiled the VM, it produced a 70KB binary and supported a loader with structural verification, the entire instruction set using a threaded interpreter, a simple Cheney+MS GC, concurrency via an Erlang-style M:N scheduler working on a single thread, and 20-odd marshaled functions.
Most software in the world does not need anything more than this. Everyone acts as if they are building the next Google.
Think twice before looking at a package and most importantly, always pin your dependencies.