ProvingGround
Proving Ground: Tools for Automated Mathematics
A system under development for (semi-)automated theorem proving, with foundations homotopy type theory, using machine learning, both by reinforcement learing using backward-propagation and using natural language processing to assimilate part of the mathematics literature.
Documentation
- The main documentation is on the website , including scaladocs. The same site also hosts working notes.
- The notes folder contains Jupyter notebooks illustrating some of the code.
- Some documentation is in the project wiki.
Try it with zero installation
You can try the project with zero installation on scastie, for example the HoTT worksheet.
If you want to try your own worksheet add the library provvingground-core-jvm
(which can be found with scastie's search). More worksheets and info will be posted soon.
Contributors
This project has greatly benefited by contributions from
- Dymtro Mitin
- Tomoaki Hashizaki
- Olivier Roland
- Sayantan Khan
The principal developer is Siddhartha Gadgil (Department of Mathematics, Indian Institute of Science, Bangalore).
Running
Servers
Two rudimentary servers are available as binaries, which you can download and run. You need Java 8 installed. In Unix systems you may need to run chmod +x ...
to make the files executable.
Start one of these servers and visit localhost:8080
on a browser to run. You can also specify the port by starting with a -p
option (and interface using -i
).
Note that the second server also includes most of the first server.
These will be frequently updated with new features.
From Source
At present the best way to interact with most of the code is to use a console in either mill or sbt
(the primary build tool is now mill).
Note that trepplein is a git submodule and is a dependency of part of the code, so you will have to clone submodules.
The simpliest way to do this is to clone the project with submodules :
git clone --recurse-submodules --single-branch https://github.com/siddhartha-gadgil/ProvingGround.git
or if you have already clone the project without submodules, you can fetch them afterwards :
git submodule update --init
To pop up a console with the core code in scope, run (you need Java 8 installed, but mill need not be installed as it has a bootstrap script):
./mill -i core.jvm.repl
For running with some IO code (e.g. parsing lean exports), instead run
./mill -i mantle.repl
and
./mill -i nlp.repl
for the natural language processing part.
To experiment with natural language processing, a basic server can be started by running
./mill nlp.run
and going to localhost:8080
on the browser. To experiment with the code, you can use the --watch
flag so the system restarts after shutting down from the browser.
Similarly, one can experiment with a small part of the HoTT implementation by running
./mill mantle.run
Using a Notebook interface
A useful way to experiment is to use a notebook instead of a repl session to ensure persistence. To do this:
- Install Jupyter and the almond kernel
- Generate a binary in the
notes/bin
folder. The first time you do this, you may need to runmkdir notes/bin
in the shell first (should not be needed anymore).
./mill core.jvm.bin
This generates the binary and gives the command to use in jupyter-lab or the classic jupyter notebook. Note that you must launch jupyter-lab in the notes folder.
To replicate the behaviour of a notebook (generated this way) with the same source, note that the first code line shows the git has, for example from import $cp.bin.provingground-core-jvm-686ded3e77.fat.jar
we see that the git hash is 686ded3e77. To use the jar for this version, run the following
git checkout 686ded3e77
./mill core.jvm.bin
You can then run the notebook.