trophy-case VS go

You could check cargo-fuzz trophy case, which is a list of issues that have been found via fuzzing.

I've added it to the trophy case.

That said, what's present in what quantities under what circumstances in the Rust fuzzing trophy case does a pretty good job of illustrating how effective the Rust compiler is at ruling out entire classes of bugs.

The same fuzzing techniques applied to Rust yielded a lot of bugs as well. But in Rust's case only 7 out of 340 fuzzer-discovered bugs, or 2%, were memory corruption issues. Naturally, all of the memory corruption bugs were in unsafe code.

https://github.com/rust-fuzz/trophy-case has like 70 of my issues in it, including the nine minidump bugs

If you have found any bugs with this tool, perhaps add them to the Rust fuzz trophy case?

Source: https://github.com/rust-fuzz/trophy-case (over 40 of those are just from me).

But to bring some data, check out the fuzz trophy case. It shows that failures in Rust are most often assertions/panics (equivalent to C++ exception) with memory corruption being relatively rare (it's not never—Rust isn't promising magic—but it's a significant change).

You need to read the list more carefully.

• The list is not for Rust itself, but every program every written in Rust. By itself it doesn't mean much, unless you compare prevalence of issues among Rust programs to prevalence of issues among C programs. For some context, see how memory unsafety is rare compared to assertions and uncaught exceptions: https://github.com/rust-fuzz/trophy-case

• Many of the memory-unsafety issues are on the C FFI boundary, which is unsafe due to C lacking expressiveness about memory ownership of its APIs (i.e. it shows how dangerous is to program where you don't have the Rust borrow checker checking your code).

• Many bugs about missing Send/Sync or evil trait implementations are about type-system loopholes that prevented compiler from catching code that was already buggy. C doesn't have these guarantees in the first place, so lack of them is not a CVE for C, but just how C is designed.

There used to be the GO FIPS branch :

https://github.com/golang/go/tree/dev.boringcrypto/misc/bori...

But it looks dead.

And it looks like https://github.com/golang-fips/go as well.

Now, I’m not going to use C++ again; I left that chapter years ago, and it’s not going to happen. C++ isn’t memory safe and easy to use and would require extended time for developers to adapt. Rust is the new kid on the block, but I’ve heard mixed opinions about its developer experience, and there aren’t many libraries around it yet. LLRD is too new for my taste, but **Go** caught my attention.

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net/http: add methods and path variables to ServeMux patterns Discussion about ServeMux enhancements

Make sure you have Go installed https://go.dev/.

The Go Programming Language

When Go first shipped, it was already well-documented that the only stable ABI on some platforms was via dynamic libraries (such as libc) provided by said platforms. Go knowingly and deliberately ignored this on the assumption that they can get away with it. And then this happened:

https://github.com/golang/go/issues/16606

If that's not "getting burned", I don't know what is. "Trying to provide a nice feature" is an excuse, and it can be argued that it is a valid one, but nevertheless they knew that they were using an unstable ABI that could be pulled out from under them at any moment, and decided that it's worth the risk. I don't see what that has to do with "not being as broadly compatible as they had hoped", since it was all known well in advance.

Sadly, I think that is indeed radically different from Go’s design. Go lacks anything like sum types, and proposals to add them to the language have revealed deep issues that have stalled any development. See https://github.com/golang/go/issues/57644