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This is a pre-requisite to use automated formatting tools such as
`ocamlformat`, also, there were quite a few places where the comments
had basically no effect, thus it was confusing for the developer.
p.s: Reading some comments was a lot of fun :)
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Also remove a few undocumented settings
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We make `declaration_hook`s optional arguments everywhere, and thus we
avoid some "fake" functions having to be passed.
This identifies positively the code really using hooks [funind,
rewrite, coercions, program, and canonicals] and helps moving toward
some hope of reification.
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We remove a few aliases present in the lower layers
[`Genintern/Tactypes`] from `Tacexpr`.
IMHO this enlarges the API for no good purpose, and difficults
analysis.
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- remove duplicate type definitions `gram_assoc`, `gram_position`,
- make global `warning_verbose` variable into a parameter.
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write_function
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We remove the `Proof_types` file which was a trivial stub, we also
cleanup a few layers of aliases.
This is not a lot but every little step helps.
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This makes the make-based build system stop linking to Camlp5's
gramlib and instead links to our own gramlib.
We use the style done in the packing of `Stdlib` in OCaml 4.07.
As to introduce a minimal amount of noise in history we use an
autogenerated `gramlib__pack` directory.
Co-authored-by: Gaëtan Gilbert <gaetan.gilbert@skyskimmer.net>
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This is documented in dev/doc/changes.md.
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We group the extension API and datatypes under `Vernacextend`.
This means that the base plugin dependency is now `coq.vernac` from
`coq.stm`.
This is quite important as for example the LSP server won't like to
link the STM in.
LTAC still depends on the STM by means of the ltac_profile part tho.
The next step could be to move the extension point below `Vernacexpr`.
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This provides several advantages to people serializing tactic
scripts. Appearance of the involved constructors is common enough as
to bother to submit this PR.
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This PR fixes an issues that was bugging me for some time, namely that
`Vernacinterp` really means `Vernacextend`.
We thus rename the file and move the associated functions there, which
were incorrectly placed in `Vernacentries`.
Note the beneficial effects on reducing the `.mli` API.
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interpretation scopes
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I think for instance the new code in this diff is cleaner and more
systematic:
~~~diff
VERNAC COMMAND EXTEND VernacDeclareTacticDefinition
-| [ "Ltac" ne_ltac_tacdef_body_list_sep(l, "with") ] => {
+| #[ deprecation; locality; ] [ "Ltac" ne_ltac_tacdef_body_list_sep(l, "with") ] => {
VtSideff (List.map (function
| TacticDefinition ({CAst.v=r},_) -> r
| TacticRedefinition (qid,_) -> qualid_basename qid) l), VtLater
} -> {
- let deprecation, locality = Attributes.(parse Notations.(deprecation ++ locality) atts) in
Tacentries.register_ltac (Locality.make_module_locality locality) ?deprecation l;
}
END
~~~
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Commands need to request the attributes they use, with the API
encouraging them to error on unsupported attributes.
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We do it by passing interning env to ltac interning.
Collecting scopes was already done by side-effect internally to
Constrintern. We expose the side-effect to ltac.
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Ltac_plugin.Taccoerce.CannotCoerceTo.
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This is a step towards limiting calls to the global environment.
Incidentally unify naming evd -> sigma in Termops.
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We can then avoid passing an empty env.
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This introduces a bit of noise in the Dune files but for now I think
it is the best way to do it.
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This avoids all the side effects associated with the manipulation of an
unresolvable flag. In the new design:
- The evar_map stores a set of evars that are candidates for typeclass
resolution, which can be retrieved and set.
We maintain the invariant that it always contains only undefined
evars.
- At the creation time of an evar (new_evar), we classify it as a
potential candidate of resolution.
- This uses a hook to test if the conclusion ends in a typeclass
application. (hook set in typeclasses.ml)
- This is an approximation if the conclusion is an existential (i.e.
not yet determined). In that case we register the evar as
potentially a typeclass instance, and later phases must consider
that case, dropping the evar if it is not a typeclass.
- One can pass the ~typeclass_candidate:false flag to new_evar to
prevent classification entirely. Typically this is for new goals
which should not ever be considered to be typeclass resolution
candidates.
- One can mark a subset of evars unresolvable later if
needed. Typically for clausenv, and marking future goals as
unresolvable even if they are typeclass goals. For clausenv for
example, after turing metas into evars we first (optionally) try a
typeclass resolution on the newly created evars and only then mark
the remaining newly created evars as subgoals. The intent of the
code looks clearer now.
This should prevent keeping testing if undefined evars are classes
all the time and crawling large sets when no typeclasses are present.
- Typeclass candidate evars stay candidates through
restriction/evar-evar solutions.
- Evd.add uses ~typeclass_candidate:false to avoid recomputing if the new
evar is a candidate. There's a deficiency in the API, in most use
cases of Evd.add we should rather use a:
`Evd.update_evar_info : evar_map -> Evar.t -> (evar_info -> evar_info)
-> evar_map`
Usually it is only about nf_evar'ing the evar_info's contents, which
doesn't change the evar candidate status.
- Typeclass resolution can now handle the set of candidates
functionally: it always starts from the set of candidates (and not the
whole undefined_map) and a filter on it, potentially splitting it in
connected components, does proof search for each component in an
evar_map with an empty set of typeclass evars (allowing clean
reentrancy), then reinstates the potential remaining unsolved
components and filtered out typeclass evars at the end of
resolution.
This means no more marking of resolvability/unresolvability
everywhere, and hopefully a more efficient implementation in general.
- This is on top of the cleanup of evar_info's currently but can
be made independent.
[typeclasses] Fix cases.ml: none of the new_evars should be typeclass candidates
Solve bug in inheritance of flags in evar-evar solutions.
Renaming unresolvable to typeclass_candidate (positive) and fix maybe_typeclass_hook
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In general, `Nametab` is not a module you want to open globally as it
exposes very generic identifiers such as `push` or `global`.
Thus, we remove all global opens and qualify `Nametab` access. The
patch is small and confirms the hypothesis that `Nametab` access
happens in few places thus it doesn't need a global open.
It is also very convenient to be able to use `grep` to see accesses to
the namespace table.
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- `CString.strip -> String.trim`
- `CString.split -> String.split_on_char`
As noted by @ppedrot there are some small differences on semantics:
> OCaml's `trim` also takes line feeds (LF) into account. Similarly,
> OCaml's `split` never returns an empty list whereas Coq's `split`
> does on the empty string.
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Almost all of ml4 were removed in the process. The only remaining files
are in the test-suite and probably need a bit of fiddling with coq_makefile,
and there only two really remaning ml4 files containing code.
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We chose to stick to the most general possible API, even though the macro
will not make full use of the possibilities. It makes explicit the various
data expected to be provided in an orthogonal way.
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Those optional arguments did not really make sense. It was pretty clear from
our code base, as all instances where triplicating the same type for TYPED,
RAW_TYPED and GLOB_TYPED.
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