The more-important and more-widely-used open source software is, the more appealing supply-chain attacks against it are.
The world where it doesn't happen is one where open source doesn't become successful.
I expect that we'll find ways to mitigate stuff like this. Run a lot more software in isolation, have automated checking stuff, make more use of developer reputation, have automated code analysis, have better ways to monitor system changes, have some kind of "trust metric" on packages.
Go back to the 1990s, and most everything I sent online was unencrypted. In 2024, most traffic I send is encrypted. I imagine that changes can be made here too.
Yeah, I think there is a lot of potential for code analysis. There's a limited cross section of ways malware can do interesting things, but many permutations of ways to do that.
So look for the interesting things, like:
accessing other programs' address spaces
reading/writing files
deleting/moving files
sending/receiving network traffic
os system calls and console commands
interacting with hardware
spawning new processes
displaying things on the screen
accessing timing information
Obviously there's legitimate uses for each of these, so that's just the first step.
Next, analyze the data that is being used for that:
what's the source?
what's the destination?
what kind of transformations are being applied to the data?
Then you can watch out for things like:
is it systematically going through directories and doing some operation to all files? (Maybe ransomware, data scrubbing, or just maliciously deleting stuff?)
is it grabbing data from somewhere and sending it somewhere else on the internet? (Stealing data?)
is it using timing information to build data? (Timing attacks to figure out kernel data that should be hidden?)
is it changing OS settings/setup?
Then generate a report of everything it is doing and see if it aligns with what the code is supposed to do. Or you could even build some kind of permissions system around that with more sophistication than the basic "can this app access files? How about the internet?"
Computer programs can be complex, but are ultimately made up of a series of simple operations and it's possible to build an interpreter that can do those operations and then follow everything through to see exactly what is included in the massive amount of data it sends over the network so that you can tell your file sharing program is also for some reason sending /etc/passwords to a random address or listening for something to access a sequence of closed ports and then will do x, y, z, if that ever happens. Back doors could be obvious with the right analysis tools, especially if it's being built from source code (though I believe it's still possible with binaries, just maybe a bit harder).
I mean programming language package managers are just begging to be used as an attack vector. This is why package management should be an OS responsibility across the board and only trusted package sources and publishers should ever be allowed.
I really think every package repository should be opt in and every publisher should be required to verify their identity and along with checksum verification for the downloaded files.
I'm not sure I understand what you are saying. What part of the OS should managed the packages? The creators aka. Microsoft/Linux foundation/Apple/Google, the distributor, or a kernel module? What about cross platform package managers like Nuget, gradle, npm?
The OS package manager. This is already a thing with Python in apt and pacman, where it will give you a fat warning if you try to install a package through pip instead of the actual OS package manager (i.e. pacman -Syu python-numpy instead of pip install numpy)
I don't know much about NPM (having avoided JS as much as possible for my entire life), but golang seems to have a good solution: 'vendoring'. One can choose to lock all external dependencies to local snapshots brought into a project, with no automatic updating, but with the option to manually update them when desired.
Ah, good. I wonder why it isn't used more often -- this wouldn't be such a huge problem then I would hope. (Let me guess -- 'convenience', the archenemy of security.)
I don't think that that's a counter to the specific attack described in the article:
The malicious packages have names that are similar to legitimate ones for the Puppeteer and Bignum.js code libraries and for various libraries for working with cryptocurrency.
That'd be a counter if you have some known-good version of a package and are worried about updates containing malicious software.
But in the described attack, they're not trying to push malicious software into legitimate packages. They're hoping that a dev will accidentally use the wrong package (which presumably is malicious from the get-go).
That won't prevent typo squatting. This article is a out people wanting to add a dependency to "famousLib" and instead typing "famusLib".
What probably help more in Go is the lack of a central repo so you actually need to "go get github.com/whoever..." so typo squatting is a bit be a bit more complicated.
On the other hand it will be an easy fix in NPM by simply adding a check to libraries names and reject names that are too similar since it's centralized.
Not really a language-specific problem. Like, there are numerous languages that have distribution mechanisms for libraries that might potentially be malicious.
Only way I can think that the language might be a factor would be if a language were designed to only run in a restricted mode.