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Commit 9fee5de2 authored by Florian Rabe's avatar Florian Rabe
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Dear authors,
thanks for your careful response and corrections. I think the work is
interesting and I recommend publication.
After reading the corrected version, I am still a bit worried with
regards to the placement of the work in the broader ITP context.
IMO, a key goal of a paper like this is not only to present a particular
export / data choice, but to help the reader understand why these
choices were made, and how they do compare to other approaches.
IMVHO designing a data format seems quite a bit of an art, and many
subtle details tend to become important once the format is used, usually
in ways that were not anticipated.
I don't think the lack of validation for the export is a major flaw, as
the accomplishment of the export is an interesting experiment worth
sharing. But as noted, it goes a very different route.
It is thus important to detail the concrete placement of this particular
export technology w.r.t. approaches used in other systems, where the
data export has been motivated from the start by concrete, non-trivial
uses cases.
For example, Coq has enjoyed machine-friendly export of meta-data for a
while, in the form of SerAPI, and several non-trivial applications have
been developed with it [4,5,6].
While there are significant differences between the approaches there, it
should be noted that these have been validated with sizable developments
such as the Mathematical Components library or CompCert.
Usually, such approaches do rely on on-demand export of data [but not in
all cases], and different representation trade-offs. Export on the Coq
side is faithful and further transformations happen on the application
side, but the approach tends to be quite low-overhead.
There also is a growing body of work that is exporting proof information
from Coq, such as [1,2] (and quite a few ongoing projects) for ML use.
While MMT is a more generic format, it seems still open how well it will
perform for example in ML applications. IMO, the reader should be aware
of that different approaches as to be able to properly judge the
strengths and weaknesses of each approach by themselves.
Again, differences on the approaches are IMO non-trivial, as in these
cases the export format is quite driven by the use cases, but to the
best of my knowledge, use of the Coq exported data in Machine Learning
applications has provided a large amount of feedback that have
influenced quite a few aspects of the export design.
I think that section 6.3 should reference a very relevant line of work [7].
[1] Generating Correctness Proofs with Neural Networks
https://arxiv.org/abs/1907.07794
[2] Learning to Prove Theorems via Interacting with Proof Assistants
https://arxiv.org/abs/1905.09381
[3] Context-aware Generation of Proof Scripts for Theorem Proving
https://easychair.org/publications/preprint/sZBH
[4] Pengyu Nie, Karl Palmskog, Junyi Jessy Li, and Milos Gligoric
Learning to Format Coq Code Using Language Models
The Coq Workshop
[5] Pengyu Nie, Karl Palmskog, Junyi Jessy Li, and Milos Gligoric
Deep Generation of Coq Lemma Names Using Elaborated Terms
International Joint Conference on Automated Reasoning
(IJCAR 2020), to appear, Paris, France, 2020.
[6] Ahmet Celik, Karl Palmskog, Marinela Parovic, Emilio Jesús Gallego Arias, and Milos Gligoric
Mutation Analysis for Coq
International Conference on Automated Software Engineering
(ASE 2019), 539-551, San Diego, CA, USA, November 2019.
[7] Karl Palmskog, Ahmet Celik, and Milos Gligoric
piCoq: Parallel Regression Proving for Large-Scale Verification Projects
International Symposium on Software Testing and Analysis
(ISSTA 2018), 344-355, Amsterdam, The Netherlands, July 2018.
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