vchuravy
In Japan you can be arrested while an investigation is in process, only afterwards you will be indicted. Additionally, Japan does not permit defendants to post bail prior to an indictment.
Yes Japan has a really high conviction rate, but that is because they indict only cases were a conviction is likely.
Arrests don't need to lead to the person being indicted.
> I would opt into prebuilt x86_64 generic binaries if Julia had them
The environment varial JULIA_CPU_TARGET [1] is what you are looking for, it controls what micro-architecture Julia emits for and supports multi-versioning.
As an example Julia is built with [2]: generic;sandybridge,-xsaveopt,clone_all;haswell,-rdrnd,base(1)
[1] https://docs.julialang.org/en/v1/manual/environment-variable...
[2] https://github.com/JuliaCI/julia-buildkite/blob/9c9f7d324c94...
Julia in Google Collab
Things that don't work are drivers that update mapped addresses directly. An example of this is CUDA in order to replay one would need to model the driver interactions (and that's even before you get to UVM)
Another great thing is that RR records the process tree and so you can easily look at different processes spawned by your executable.
Most of the time I am the one wrong.
I enjoy https://tratt.net/laurie/research/pubs/html/tratt__dynamical... as a discussion of dynamic typing.
As one of the folks dealing with LLVM bugs in the Julia ecosystem.
Yes it requires a distinct skillet different from working on the higher-level Julia compiler and yes it can sometimes take ages to merge bugfixes upstream, but we actually have a rather good and productive relationship with upstream and the project would get a lot less done if we decided to get rid of LLVM.
In particular GPU support and HPC support (hello PPC) depends on it.
But this is also why we maintain the stance that people need to build Julia against our patchset/fork and will not invest time in bugs filled against Julia builds that didn't use those patches. This happens in particular with distro builds.
Or as the m-Lisp promised to us :) I chuckled when I read:
> The way that common Lisp systems produce executable binaries to be used as application deliverables is by literally dumping the contents of memory into a file with a little header to start things back up again.
Which is pretty much of Julia's sys-/pkgimages work. Pkgimages are an incremental variation on this idea.
One of the novelties in Julia is the world-age system and the limits on dynamisim it introduces on eval.
This now enables to dynamically add and remove threads.
Due to some wonderful C++ features the dynamic linker is forced to unify symbols across shared libraries, even if those symbols have different versions.
This utterly breaks loading multiple libLLVM's except if you build the copy you care about with -no-gnu-unique (or whatever the flag was called)
I have seen wonderful things like the initializers of an already loaded libLLVM being rerun when a new one is loaded.
- Pytorch/Tensorflow: There are several ML Frameworks written in Julia (as well as Julia bindings to ML Frameworks) the biggest Julia native one is likely Flux.jl
Regarding HF Transformers a quick Google points to https://github.com/chengchingwen/Transformers.jl but I have not had any personal experience with.
All of this is build by the community and your mileage may vary.
In my rather biased opinion the strengths of Julia are that the various ML libraries can share implementations, e.g. Pytorch and Tensorflow contain separate Numpy derivatives. One could say that you can write an ML framework in Julia, instead of writting a DSL in Python as part of your C++ ML library. As an example Julia has a GPU compiler so you can write your own layer directly in Julia and integrate it into your pipeline.
The whole systemd-sysext seems like a good way to make that happen.
Especially with reactive programming as an ask there, I would recommend Julia with Pluto.jl (Pluto is a reactive notebook).
> A really dynamically-typed language
Julia ;) It is really dynamic, has meta-programming (macros + staged functions), solid semantics around eval/invokelatest that still allow for optimizations and you can add types at runtime (not modify them though).
The rest of us is still running on racks of Mac Minis
The writing was on the wall for a long while now, and was one of the reasons why the JuliaCommunity stopped advocating Juno/Atom as a platform and instead switched to VSCode
``` using Dates julia> lastdayofmonth(today()) 2022-02-28 ```
But that's function oriented programming for you.