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Replaced the legacy generalised induction idiom with a more robust one
that does not rely on the `{-2}` numerical occurrence selector, using
either new helper lemmas `ubnP` and `ltnSE` or a specific `nat`
induction principle `ltn_ind`.
Added (non-strict in)equality induction helper lemmas
Added `ubnP[lg]?eq` helper lemmas that abstract an integer expression
along with some (in)equality, in preparation for some generalised
induction. Note that while `ubnPleq` is very similar to `ubnP` (indeed
`ubnP M` is basically `ubnPleq M.+1`), `ubnPgeq` is used to remember
that the inductive value remains below the initial one.
Used the change log to give notice to users to update the generalised
induction idioms in their proofs to one of the new forms before
Mathcomp 1.11.
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More arithmetic theorems
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Add all_filter, all_pmap, and all_allpairsP in seq.v
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- Generalizing `ltn_subr`
- Adding `ltn_subl` and `ltn_subr`
- Changing conclusion of `ltn_predl` to `0 < n` instead of `n != 0`
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More lemmas on seqs
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* missing exports of lemmas `commrB`, `commr_sum` and `commr_prod`
* missing `regular_*` canonical exports
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* Lemmas on commutation with big sum and prod
* Added commrB Lemma
* @CohenCyril review
* apply -> apply:
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add existsPn/forallPn lemmas
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Commutative Algebras
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Initial properties of polynomials in R-algebras
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from
`ltngtP m n : compare_nat m n (m <= n) (n <= m) (m < n) (n < m) (n == m) (m == n)`
to
`ltngtP m n : compare_nat m n (n == m) (m == n) (n <= m) (m <= n) (n < m) (m < n)`,
to make it tries to match subterms with `m < n` first, `m <= n`, then `m == n`.
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`V` was wrongly eta-expanded before:
GRing.scale
: forall (R : ringType) (V : lmodType R),
R -> GRing.Zmodule.Pack (GRing.Lmodule.class V) ->
GRing.Zmodule.Pack (GRing.Lmodule.class V)
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More arithmetic theorems
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* Add notation and instances for empty type.
* Update change log.
* Mention void in fintype header.
* Remove unnecessary explicit argument.
* Documentation header for void.
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* Modified the definition of sort to work on any type
* Other Generalizations, fixes and CHANGELOG entry
* Add stability lemmas for `path.sort`
- Inverse the comparison in `merge` and swap arguments of it everywhere.
- Add `sort_rec1` and `sortE` to simplify inductive proofs on `sort`.
- Add `seq.mask_filter`, `mem2E`, `path_mask`, `path_filter`, and `sorted_mask`.
- Generalize `sorted_filter`, `homo_path_in`, `mono_path_in`, `homo_sorted_in`,
and `mono_sorted_in` to non-`eqType`s.
- Add the following lemmas to state the stability of `path.merge` and `path.sort`.
sorted_merge
: forall (T : Type) (leT : rel T),
transitive leT ->
forall s t : seq T, sorted leT (s ++ t) -> merge leT s t = s ++ t
merge_stable_path
: forall (T : Type) (leT leT' : rel T),
total leT ->
forall (x : T) (s1 s2 : seq T),
all (fun y : T => all (leT' y) s2) s1 ->
path [rel x0 y | leT x0 y && (leT y x0 ==> leT' x0 y)] x s1 ->
path [rel x0 y | leT x0 y && (leT y x0 ==> leT' x0 y)] x s2 ->
path [rel x0 y | leT x0 y && (leT y x0 ==> leT' x0 y)] x
(merge leT s1 s2)
merge_stable_sorted
: forall (T : Type) (leT leT' : rel T),
total leT ->
forall s1 s2 : seq T,
all (fun x : T => all (leT' x) s2) s1 ->
sorted [rel x y | leT x y && (leT y x ==> leT' x y)] s1 ->
sorted [rel x y | leT x y && (leT y x ==> leT' x y)] s2 ->
sorted [rel x y | leT x y && (leT y x ==> leT' x y)] (merge leT s1 s2)
sorted_sort
: forall (T : Type) (leT : rel T),
transitive leT -> forall s : seq T, sorted leT s -> sort leT s = s
sort_stable
: forall (T : Type) (leT leT' : rel T),
total leT -> transitive leT' ->
forall s : seq T,
sorted leT' s ->
sorted [rel x y | leT x y && (leT y x ==> leT' x y)] (sort leT s)
filter_sort
: forall (T : Type) (leT : rel T),
total leT -> transitive leT ->
forall (p : pred T) (s : seq T),
[seq x <- sort leT s | p x] = sort leT [seq x <- s | p x]
mask_sort
: forall (T : Type) (leT : rel T),
total leT -> transitive leT ->
forall (s : seq T) (m : bitseq),
{m_s : bitseq | mask m_s (sort leT s) = sort leT (mask m s)}
mask_sort'
: forall (T : Type) (leT : rel T),
total leT -> transitive leT ->
forall (s : seq T) (m : bitseq),
sorted leT (mask m s) ->
{m_s : bitseq | mask m_s (sort leT s) = mask m s}
subseq_sort
: forall (T : eqType) (leT : rel T),
total leT -> transitive leT -> {homo sort leT : t s / subseq t s}
subseq_sort'
: forall (T : eqType) (leT : rel T),
total leT -> transitive leT ->
forall t s : seq T, subseq t s -> sorted leT t -> subseq t (sort leT s)
mem2_sort
: forall (T : eqType) (leT : rel T),
total leT -> transitive leT ->
forall (s : seq T) (x y : T),
leT x y -> mem2 s x y -> mem2 (sort leT s) x y
* Avoid some eta-expansions
* Get the proper fix of `order_path_min` and remove `sort_map_in`
* Update documentation and CHANGELOG entries
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In ssrnat:
- some trivial results in ssrnat `addnKC`, `ltn_predl`, `ltn_predr`, `ltn_subr` and `predn_sub`
- theorems about `n <=/< p +/- m` and `m +/- n <=/< p`
`leq_psubRL`, `ltn_psubLR`, `leq_subRL`, `ltn_subLR`,
`leq_subCl`, `leq_psubCr`, `leq_subCr`, `ltn_subCr`, `ltn_psubCl` and `ltn_subCl`
In div:
- theorems about the euclidean division of additions and subtraction,
+ without preconditions of divisibility:
`edivnD`, `edivnB`, `divnD`, `divnB`, `modnD`, `modnB`
+ with divisibility of one argument:
`divnDMl`, `divnMBl`, `divnBMl`, `divnBl` and `divnBr`
+ specialization of the former theorems for .+1 and .-1:
`edivnS`, `divnS`, `modnS`, `edivn_pred`, `divn_pred` and `modn_pred`
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- Added: `modn_divl` and `divn_modl`.
- Generalized `muln_modr` and `muln_modl` removing hypothesis `0 < p`.
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### Added
- Fintype theorems: `fintype0`, `card_le1P`, `mem_card1`,
`card1P`, `fintype_le1P`, `fintype1`, `fintype1P`.
- Bigop theorems: `big_rmcond`, `bigD1_seq`,
`reindex_enum_val_cond`, `reindex_enum_rank_cond`,
`reindex_enum_val`, `reindex_enum_rank`, `big_set`.
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Fix and improve the test suite and Makefile
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- improve an error message produced by the `check_join` tactic,
- fix the build of the test suite: `make test-suite`, and
- add a new rule `only` to build a subset of MathComp.
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Thanks!
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Reimplement the hierarchy related tools in OCaml
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Also changed eqsVneq.
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