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"to * n"
:= (n_act_action to n) : action_scope.
Notation
to * n
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "n_act_action", "to" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
dtuple_on
:= [set t : n.-tuple sT | uniq t & t \subset S].
Definition
dtuple_on
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "sT", "tuple", "uniq" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
ntransitive
:= [transitive A, on dtuple_on | to * n].
Definition
ntransitive
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "dtuple_on", "on", "to" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
dtuple_onP t : reflect (injective (tnth t) /\ forall i, tnth t i \in S) (t \in dtuple_on).
Proof. rewrite inE subset_all -forallb_tnth -[in uniq t]map_tnth_enum /=. by apply: (iffP andP) => -[/injectiveP-f_inj /forallP]. Qed.
Lemma
dtuple_onP
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "apply", "dtuple_on", "f_inj", "forallP", "forallb_tnth", "inE", "injectiveP", "map_tnth_enum", "subset_all", "tnth", "uniq" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
n_act_dtuple t a : a \in 'N(S | to) -> t \in dtuple_on -> n_act to t a \in dtuple_on.
Proof. move/astabsP=> toSa /dtuple_onP[t_inj St]; apply/dtuple_onP. split=> [i j | i]; rewrite !tnth_map ?[_ \in S]toSa //. by move/act_inj; apply: t_inj. Qed.
Lemma
n_act_dtuple
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "act_inj", "apply", "astabsP", "dtuple_on", "dtuple_onP", "n_act", "split", "tnth_map", "to" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
"n .-dtuple ( S )"
:= (dtuple_on n S) (format "n .-dtuple ( S )") : set_scope.
Notation
n .-dtuple ( S )
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "dtuple_on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
"[ 'transitive' ^ n A , 'on' S | to ]"
:= (ntransitive n A S to) (n at level 8, format "[ 'transitive' ^ n A , 'on' S | to ]") : form_scope.
Notation
[ 'transitive' ^ n A , 'on' S | to ]
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "ntransitive", "to" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
card_uniq_tuple n (t : n.-tuple sT) : uniq t -> #|t| = n.
Proof. by move/card_uniqP->; apply: size_tuple. Qed.
Lemma
card_uniq_tuple
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "apply", "card_uniqP", "sT", "size_tuple", "tuple", "uniq" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
n_act0 (t : 0.-tuple sT) a : n_act to t a = [tuple].
Proof. exact: tuple0. Qed.
Lemma
n_act0
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "n_act", "sT", "to", "tuple", "tuple0" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
dtuple_on_add n x (t : n.-tuple sT) : ([tuple of x :: t] \in n.+1.-dtuple(S)) = [&& x \in S, x \notin t & t \in n.-dtuple(S)].
Proof. by rewrite !inE memtE !subset_all -!andbA; do !bool_congr. Qed.
Lemma
dtuple_on_add
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "inE", "memtE", "sT", "subset_all", "tuple" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
dtuple_on_add_D1 n x (t : n.-tuple sT) : ([tuple of x :: t] \in n.+1.-dtuple(S)) = (x \in S) && (t \in n.-dtuple(S :\ x)).
Proof. rewrite dtuple_on_add !inE (andbCA (~~ _)); do 2!congr (_ && _). rewrite -!(eq_subset (in_set [in t])) setDE setIC subsetI; congr (_ && _). by rewrite -setCS setCK sub1set !inE. Qed.
Lemma
dtuple_on_add_D1
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "dtuple_on_add", "eq_subset", "inE", "in_set", "sT", "setCK", "setCS", "setDE", "setIC", "sub1set", "subsetI", "tuple" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
dtuple_on_subset n (S1 S2 : {set sT}) t : S1 \subset S2 -> t \in n.-dtuple(S1) -> t \in n.-dtuple(S2).
Proof. by move=> sS12 /[!inE] /andP[-> /subset_trans]; apply. Qed.
Lemma
dtuple_on_subset
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "S1", "S2", "apply", "inE", "sT", "subset_trans" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
n_act_add n x (t : n.-tuple sT) a : n_act to [tuple of x :: t] a = [tuple of to x a :: n_act to t a].
Proof. exact: val_inj. Qed.
Lemma
n_act_add
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "n_act", "sT", "to", "tuple", "val_inj" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
ntransitive0 : [transitive^0 G, on S | to].
Proof. have dt0: [tuple] \in 0.-dtuple(S) by rewrite inE memtE subset_all. apply/imsetP; exists [tuple of Nil sT] => //. by apply/setP=> x; rewrite [x]tuple0 orbit_refl. Qed.
Lemma
ntransitive0
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "Nil", "apply", "imsetP", "inE", "memtE", "on", "orbit_refl", "sT", "setP", "subset_all", "to", "tuple", "tuple0" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
ntransitive_weak k m : k <= m -> [transitive^m G, on S | to] -> [transitive^k G, on S | to].
Proof. move/subnKC <-; rewrite addnC; elim: {m}(m - k) => // m IHm. rewrite addSn => tr_m1; apply: IHm; move: {m k}(m + k) tr_m1 => m tr_m1. have ext_t t: t \in dtuple_on m S -> exists x, [tuple of x :: t] \in m.+1.-dtuple(S). - move=> dt. have [sSt | /subsetPn[x Sx ntx]] := boolP (S \subset t); last first. by ...
Lemma
ntransitive_weak
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "addSn", "addnC", "apply", "card_uniq_tuple", "dtuple_on", "dtuple_on_add", "imsetP", "imset_f", "inE", "last", "ltnn", "n_act", "n_act_add", "on", "setP", "subnKC", "subsetPn", "subset_leq_card", "subset_trans", "to", "tuple", "tupleP", "val_inj" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
ntransitive1 m : 0 < m -> [transitive^m G, on S | to] -> [transitive G, on S | to].
Proof. have trdom1 x: ([tuple x] \in 1.-dtuple(S)) = (x \in S). by rewrite dtuple_on_add !inE memtE subset_all andbT. move=> m_gt0 /(ntransitive_weak m_gt0) {m m_gt0}. case/imsetP; case/tupleP=> x t0; rewrite {t0}(tuple0 t0) trdom1 => Sx trx. apply/imsetP; exists x => //; apply/setP=> y; rewrite -trdom1 trx. by apply...
Lemma
ntransitive1
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "apply", "dtuple_on_add", "imsetP", "inE", "memtE", "ntransitive_weak", "on", "setP", "subset_all", "to", "tuple", "tuple0", "tupleP", "val_inj" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
ntransitive_primitive m : 1 < m -> [transitive^m G, on S | to] -> [primitive G, on S | to].
Proof. move=> lt1m /(ntransitive_weak lt1m) {m lt1m}tr2G. have trG: [transitive G, on S | to] by apply: ntransitive1 tr2G. have [x Sx _]:= imsetP trG; rewrite (trans_prim_astab Sx trG). apply/maximal_eqP; split=> [|H]; first exact: subsetIl; rewrite subEproper. case/predU1P; first by [left]; case/andP=> sCH /subsetPn[a...
Lemma
ntransitive_primitive
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "actsP", "acts_sub_orbit", "apply", "astab1P", "atransP2", "atrans_acts", "eqEsubset", "eqVneq", "imsetP", "inE", "maximal_eqP", "mem_orbit", "mem_seq1", "memtE", "mulSGid", "ntransitive1", "ntransitive_weak", "on", "orbit_sym", "predU1P", "primitive", "sHG", "split", "...
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
stab_ntransitive m x : 0 < m -> x \in S -> [transitive^m.+1 G, on S | to] -> [transitive^m 'C_G[x | to], on S :\ x | to].
Proof. move=> m_gt0 Sx Gtr; have sSxS: S :\ x \subset S by rewrite subsetDl. case: (imsetP Gtr); case/tupleP=> x1 t1; rewrite dtuple_on_add. case/and3P=> Sx1 nt1x1 dt1 trt1; have Gtr1 := ntransitive1 (ltn0Sn _) Gtr. case: (atransP2 Gtr1 Sx1 Sx) => // a Ga x1ax. pose t := n_act to t1 a. have dxt: [tuple of x :: t] \in m...
Theorem
stab_ntransitive
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "act_inj", "actsP", "apply", "astab1P", "astabsP", "atransP2", "atrans_acts", "dtuple_on", "dtuple_on_add", "dtuple_on_add_D1", "imsetP", "inE", "inj_eq", "last", "ltn0Sn", "n_act", "n_act_dtuple", "ntransitive1", "on", "setIP", "setP", "subsetDl", "to", "tuple", "tup...
This is the forward implication of Aschbacher (15.12).1
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
stab_ntransitiveI m x : x \in S -> [transitive G, on S | to] -> [transitive^m 'C_G[x | to], on S :\ x | to] -> [transitive^m.+1 G, on S | to].
Proof. move=> Sx Gtr Gntr. have t_to_x t: t \in m.+1.-dtuple(S) -> exists2 a, a \in G & exists2 t', t' \in m.-dtuple(S :\ x) & t = n_act to [tuple of x :: t'] a. - case/tupleP: t => y t St. have Sy: y \in S by rewrite dtuple_on_add_D1 in St; case/andP: St. rewrite -(atransP Gtr _ ...
Theorem
stab_ntransitiveI
solvable
solvable/primitive_action.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "div", "seq", "fintype", "tuple", "finset", "fingroup", "action", "gseries" ]
[ "a2", "actK", "actM", "apply", "astab1P", "atransP", "atrans_acts", "dtuple_on_add_D1", "groupM", "groupVr", "imsetP", "last", "n_act", "n_act_add", "n_act_dtuple", "on", "setIP", "setP", "subsetP", "to", "tuple", "tupleP" ]
This is the converse implication of Aschbacher (15.12).1
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
pgroup_fix_mod (p : nat) (G : {group aT}) (S : {set sT}) : p.-group G -> [acts G, on S | to] -> #|S| = #|'Fix_(S | to)(G)| %[mod p].
Proof. move=> pG nSG; have sGD: G \subset D := acts_dom nSG. apply/eqP; rewrite -(cardsID 'Fix_to(G)) eqn_mod_dvd (leq_addr, addKn) //. have: [acts G, on S :\: 'Fix_to(G) | to]; last move/acts_sum_card_orbit <-. rewrite actsD // -(setIidPr sGD); apply: subset_trans (acts_subnorm_fix _ _). by rewrite setIS ?normG. a...
Lemma
pgroup_fix_mod
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "aT", "actsD", "acts_dom", "acts_subnorm_fix", "acts_sum_card_orbit", "addKn", "afixP", "apply", "card_orbit1", "card_orbit_in", "cardsID", "dvdn_indexg", "dvdn_mulr", "dvdn_sum", "eqn_mod_dvd", "expnS", "group", "imsetP", "last", "leq_addr", "mem_orbit", "nat", "normG", ...
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
nontrivial_gacent_pgroup G M : p.-group G -> p.-group M -> {acts G, on group M | to} -> M :!=: 1 -> 'C_(M | to)(G) :!=: 1.
Proof. move=> pG pM [nMG sMR] ntM; have [p_pr p_dv_M _] := pgroup_pdiv pM ntM. rewrite -cardG_gt1 (leq_trans (prime_gt1 p_pr)) 1?dvdn_leq ?cardG_gt0 //= /dvdn. by rewrite gacentE ?(acts_dom nMG) // setIA (setIidPl sMR) -pgroup_fix_mod. Qed.
Lemma
nontrivial_gacent_pgroup
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "acts_dom", "cardG_gt0", "cardG_gt1", "dvdn", "dvdn_leq", "gacentE", "group", "leq_trans", "nMG", "on", "pG", "p_pr", "pgroup_fix_mod", "pgroup_pdiv", "prime_gt1", "setIA", "setIidPl", "to" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
pcore_sub_astab_irr G M : p.-group M -> M \subset R -> acts_irreducibly G M to -> 'O_p(G) \subset 'C_G(M | to).
Proof. move=> pM sMR /mingroupP[/andP[ntM nMG] minM]. have /andP[sGpG nGpG]: 'O_p(G) <| G := gFnormal _ G. have sGD := acts_dom nMG; have sGpD: 'O_p(G) \subset D := gFsub_trans _ sGD. rewrite subsetI sGpG -gacentC //=; apply/setIidPl; apply: minM (subsetIl _ _). rewrite nontrivial_gacent_pgroup ?pcore_pgroup //=. by ...
Lemma
pcore_sub_astab_irr
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "acts_dom", "acts_irreducibly", "acts_subnorm_subgacent", "apply", "gFnormal", "gFsub_trans", "gacentC", "group", "mingroupP", "nMG", "nontrivial_gacent_pgroup", "pcore_pgroup", "sGD", "setIidPl", "split", "subsetI", "subsetIl", "subset_trans", "subxx", "to" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
pcore_faithful_irr_act G M : p.-group M -> M \subset R -> acts_irreducibly G M to -> [faithful G, on M | to] -> 'O_p(G) = 1.
Proof. move=> pM sMR irrG ffulG; apply/trivgP; apply: subset_trans ffulG. exact: pcore_sub_astab_irr. Qed.
Lemma
pcore_faithful_irr_act
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "acts_irreducibly", "apply", "faithful", "group", "irrG", "on", "pcore_sub_astab_irr", "subset_trans", "to", "trivgP" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Sylow's_theorem : [/\ forall P, [max P | p.-subgroup(G) P] = p.-Sylow(G) P, [transitive G, on 'Syl_p(G) | 'JG], forall P, p.-Sylow(G) P -> #|'Syl_p(G)| = #|G : 'N_G(P)| & prime p -> #|'Syl_p(G)| %% p = 1%N].
Proof. pose maxp A P := [max P | p.-subgroup(A) P]; pose S := [set P | maxp G P]. pose oG := orbit 'JG%act G. have actS: [acts G, on S | 'JG]. apply/subsetP=> x Gx; rewrite 3!inE; apply/subsetP=> P; rewrite 3!inE. exact: max_pgroupJ. have S_pG P: P \in S -> P \subset G /\ p.-group P. by rewrite inE => /maxgroupp/...
Theorem
Sylow's_theorem
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Hall_max", "LagrangeI", "Sylow", "act", "actsP", "acts_sub_orbit", "addn0", "afixJG", "apply", "astab1JG", "atransP", "atransP2", "cardG_gt0", "cardJg", "card_Hall", "card_orbit", "cards0", "cardsD1", "dvdn", "eqEsubset", "eqVneq", "group", "group_inj", "imsetP", "in...
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
max_pgroup_Sylow P : [max P | p.-subgroup(G) P] = p.-Sylow(G) P.
Proof. by case Sylow's_theorem. Qed.
Lemma
max_pgroup_Sylow
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Sylow", "Sylow's_theorem", "max" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Sylow_superset Q : Q \subset G -> p.-group Q -> {P : {group gT} | p.-Sylow(G) P & Q \subset P}.
Proof. move=> sQG pQ. have [|P] := @maxgroup_exists _ (p.-subgroup(G)) Q; first exact/andP. by rewrite max_pgroup_Sylow; exists P. Qed.
Lemma
Sylow_superset
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Sylow", "gT", "group", "max_pgroup_Sylow", "maxgroup_exists" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Sylow_exists : {P : {group gT} | p.-Sylow(G) P}.
Proof. by case: (Sylow_superset (sub1G G) (pgroup1 _ p)) => P; exists P. Qed.
Lemma
Sylow_exists
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Sylow", "Sylow_superset", "gT", "group", "pgroup1", "sub1G" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Syl_trans : [transitive G, on 'Syl_p(G) | 'JG].
Proof. by case Sylow's_theorem. Qed.
Lemma
Syl_trans
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Sylow's_theorem", "on" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Sylow_trans P Q : p.-Sylow(G) P -> p.-Sylow(G) Q -> exists2 x, x \in G & Q :=: P :^ x.
Proof. move=> sylP sylQ; have /[!inE] := (atransP2 Syl_trans) P Q. by case=> // x Gx ->; exists x. Qed.
Lemma
Sylow_trans
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Syl_trans", "Sylow", "atransP2", "inE" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Sylow_subJ P Q : p.-Sylow(G) P -> Q \subset G -> p.-group Q -> exists2 x, x \in G & Q \subset P :^ x.
Proof. move=> sylP sQG pQ; have [Px sylPx] := Sylow_superset sQG pQ. by have [x Gx ->] := Sylow_trans sylP sylPx; exists x. Qed.
Lemma
Sylow_subJ
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Px", "Sylow", "Sylow_superset", "Sylow_trans", "group" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Sylow_Jsub P Q : p.-Sylow(G) P -> Q \subset G -> p.-group Q -> exists2 x, x \in G & Q :^ x \subset P.
Proof. move=> sylP sQG pQ; have [x Gx] := Sylow_subJ sylP sQG pQ. by exists x^-1; rewrite (groupV, sub_conjgV). Qed.
Lemma
Sylow_Jsub
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Sylow", "Sylow_subJ", "group", "groupV", "sub_conjgV" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
card_Syl P : p.-Sylow(G) P -> #|'Syl_p(G)| = #|G : 'N_G(P)|.
Proof. by case: Sylow's_theorem P. Qed.
Lemma
card_Syl
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Sylow", "Sylow's_theorem" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
card_Syl_dvd : #|'Syl_p(G)| %| #|G|.
Proof. by case Sylow_exists => P /card_Syl->; apply: dvdn_indexg. Qed.
Lemma
card_Syl_dvd
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Sylow_exists", "apply", "card_Syl", "dvdn_indexg" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
card_Syl_mod : prime p -> #|'Syl_p(G)| %% p = 1%N.
Proof. by case Sylow's_theorem. Qed.
Lemma
card_Syl_mod
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Sylow's_theorem", "prime" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Frattini_arg H P : G <| H -> p.-Sylow(G) P -> G * 'N_H(P) = H.
Proof. case/andP=> sGH nGH sylP; rewrite -normC ?subIset ?nGH ?orbT // -astab1JG. move/subgroup_transitiveP: Syl_trans => ->; rewrite ?inE //. apply/imsetP; exists P; rewrite ?inE //. apply/eqP; rewrite eqEsubset -{1}((atransP Syl_trans) P) ?inE // imsetS //=. by apply/subsetP=> _ /imsetP[x Hx ->]; rewrite inE -(normsP...
Lemma
Frattini_arg
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Syl_trans", "Sylow", "apply", "astab1JG", "atransP", "eqEsubset", "imsetP", "imsetS", "inE", "normC", "normsP", "pHallJ2", "sGH", "subIset", "subgroup_transitiveP", "subsetP" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Sylow_setI_normal G H P : G <| H -> p.-Sylow(H) P -> p.-Sylow(G) (G :&: P).
Proof. case/normalP=> sGH nGH sylP; have [Q sylQ] := Sylow_exists p G. have /maxgroupP[/andP[sQG pQ] maxQ] := Hall_max sylQ. have [R sylR sQR] := Sylow_superset (subset_trans sQG sGH) pQ. have [[x Hx ->] pR] := (Sylow_trans sylR sylP, pHall_pgroup sylR). rewrite -(nGH x Hx) -conjIg pHallJ2. have /maxQ-> //: Q \subset G...
Lemma
Sylow_setI_normal
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Hall_max", "Sylow", "Sylow_exists", "Sylow_superset", "Sylow_trans", "conjIg", "maxgroupP", "normalP", "pHallJ2", "pHall_pgroup", "pgroupS", "psubgroup", "sGH", "subsetI", "subsetIl", "subsetIr", "subset_trans" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
normal_sylowP G : reflect (exists2 P : {group gT}, p.-Sylow(G) P & P <| G) (#|'Syl_p(G)| == 1%N).
Proof. apply: (iffP idP) => [syl1 | [P sylP nPG]]; last first. by rewrite (card_Syl sylP) (setIidPl _) (indexgg, normal_norm). have [P sylP] := Sylow_exists p G; exists P => //. rewrite /normal (pHall_sub sylP); apply/setIidPl; apply/eqP. rewrite eqEcard subsetIl -(LagrangeI G 'N(P)) -indexgI /=. by rewrite -(card_Sy...
Lemma
normal_sylowP
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "LagrangeI", "Sylow", "Sylow_exists", "apply", "card_Syl", "eqEcard", "gT", "group", "indexgI", "indexgg", "last", "muln1", "normal", "normal_norm", "pHall_sub", "setIidPl", "subsetIl" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
trivg_center_pgroup P : p.-group P -> 'Z(P) = 1 -> P :=: 1.
Proof. move=> pP Z1; apply/eqP/idPn=> ntP. have{ntP} [p_pr p_dv_P _] := pgroup_pdiv pP ntP. suff: p %| #|'Z(P)| by rewrite Z1 cards1 gtnNdvd ?prime_gt1. by rewrite /center /dvdn -afixJ -pgroup_fix_mod // astabsJ normG. Qed.
Lemma
trivg_center_pgroup
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "afixJ", "apply", "astabsJ", "cards1", "center", "dvdn", "group", "gtnNdvd", "normG", "pP", "p_pr", "pgroup_fix_mod", "pgroup_pdiv", "prime_gt1" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
p2group_abelian P : p.-group P -> logn p #|P| <= 2 -> abelian P.
Proof. move=> pP lePp2; pose Z := 'Z(P); have sZP: Z \subset P := center_sub P. have [/(trivg_center_pgroup pP) ->|] := eqVneq Z 1; first exact: abelian1. case/(pgroup_pdiv (pgroupS sZP pP)) => p_pr _ [k oZ]. apply: cyclic_center_factor_abelian. have [->|] := eqVneq (P / Z) 1; first exact: cyclic1. have pPq := quotient...
Lemma
p2group_abelian
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Lagrange", "abelian", "abelian1", "addnS", "apply", "card_quotient", "center_sub", "cyclic1", "cyclic_center_factor_abelian", "eqVneq", "gFnorm", "group", "logn", "lognM", "oZ", "pP", "p_pr", "pfactorK", "pgroupS", "pgroup_pdiv", "prime_cyclic", "quotient_pgroup", "trivg...
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
card_p2group_abelian P : prime p -> #|P| = (p ^ 2)%N -> abelian P.
Proof. move=> primep oP; have pP: p.-group P by rewrite /pgroup oP pnatX pnat_id. by rewrite (p2group_abelian pP) // oP pfactorK. Qed.
Lemma
card_p2group_abelian
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "abelian", "group", "p2group_abelian", "pP", "pfactorK", "pgroup", "pnatX", "pnat_id", "prime" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Sylow_transversal_gen (T : {set {group gT}}) G : (forall P, P \in T -> P \subset G) -> (forall p, p \in \pi(G) -> exists2 P, P \in T & p.-Sylow(G) P) -> << \bigcup_(P in T) P >> = G.
Proof. move=> G_T T_G; apply/eqP; rewrite eqEcard gen_subG. apply/andP; split; first exact/bigcupsP. apply: dvdn_leq (cardG_gt0 _) _; apply/dvdn_partP=> // q /T_G[P T_P sylP]. by rewrite -(card_Hall sylP); apply: cardSg; rewrite sub_gen // bigcup_sup. Qed.
Lemma
Sylow_transversal_gen
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Sylow", "apply", "bigcup_sup", "bigcupsP", "cardG_gt0", "cardSg", "card_Hall", "dvdn_leq", "dvdn_partP", "eqEcard", "gT", "gen_subG", "group", "pi", "split", "sub_gen" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Sylow_gen G : <<\bigcup_(P : {group gT} | Sylow G P) P>> = G.
Proof. set T := [set P : {group gT} | Sylow G P]. rewrite -{2}(@Sylow_transversal_gen T G) => [P | q _|]. - by rewrite inE => /and3P[]. - by case: (Sylow_exists q G) => P sylP; exists P; rewrite // inE (p_Sylow sylP). - by congr <<_>>; apply: eq_bigl => P; rewrite inE. Qed.
Lemma
Sylow_gen
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Sylow", "Sylow_exists", "Sylow_transversal_gen", "apply", "eq_bigl", "gT", "group", "inE", "p_Sylow" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Hall_pJsub p pi G H P : pi.-Hall(G) H -> p \in pi -> P \subset G -> p.-group P -> exists2 x, x \in G & P :^ x \subset H.
Proof. move=> hallH pi_p sPG pP. have [S sylS] := Sylow_exists p H; have sylS_G := subHall_Sylow hallH pi_p sylS. have [x Gx sPxS] := Sylow_Jsub sylS_G sPG pP; exists x => //. exact: subset_trans sPxS (pHall_sub sylS). Qed.
Lemma
Hall_pJsub
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Hall", "Sylow_Jsub", "Sylow_exists", "group", "pHall_sub", "pP", "pi", "pi_p", "subHall_Sylow", "subset_trans" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Hall_psubJ p pi G H P : pi.-Hall(G) H -> p \in pi -> P \subset G -> p.-group P -> exists2 x, x \in G & P \subset H :^ x.
Proof. move=> hallH pi_p sPG pP; have [x Gx sPxH] := Hall_pJsub hallH pi_p sPG pP. by exists x^-1; rewrite ?groupV -?sub_conjg. Qed.
Lemma
Hall_psubJ
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Hall", "Hall_pJsub", "group", "groupV", "pP", "pi", "pi_p", "sub_conjg" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Hall_setI_normal pi G K H : K <| G -> pi.-Hall(G) H -> pi.-Hall(K) (H :&: K).
Proof. move=> nsKG hallH; have [sHG piH _] := and3P hallH. have [sHK_H sHK_K] := (subsetIl H K, subsetIr H K). rewrite pHallE sHK_K /= -(part_pnat_id (pgroupS sHK_H piH)); apply/eqP. rewrite (widen_partn _ (subset_leq_card sHK_K)); apply: eq_bigr => p pi_p. have [P sylP] := Sylow_exists p H. have sylPK := Sylow_setI_no...
Lemma
Hall_setI_normal
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Hall", "Sylow_exists", "Sylow_setI_normal", "apply", "card_Hall", "eq_bigr", "nsKG", "pHallE", "pHall_sub", "pHall_subl", "p_part", "part_pnat_id", "pgroupS", "pi", "pi_p", "sHG", "setIC", "setSI", "subHall_Sylow", "subsetIl", "subsetIr", "subset_leq_card", "widen_partn"...
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
coprime_mulG_setI_norm H G K R : K * R = G -> G \subset 'N(H) -> coprime #|K| #|R| -> (K :&: H) * (R :&: H) = G :&: H.
Proof. move=> defG nHG coKR; apply/eqP; rewrite eqEcard mulG_subG /= -defG. rewrite !setSI ?mulG_subl ?mulG_subr //=. rewrite coprime_cardMg ?(coKR, coprimeSg (subsetIl _ _), coprime_sym) //=. pose pi := \pi(K); have piK: pi.-group K by apply: pgroup_pi. have pi'R: pi^'.-group R by rewrite /pgroup -coprime_pi' /=. have...
Lemma
coprime_mulG_setI_norm
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Hall_setI_normal", "apply", "cardG_gt0", "card_Hall", "coprime", "coprimeSg", "coprime_cardMg", "coprime_mulpG_Hall", "coprime_pi'", "coprime_sym", "defG", "eqEcard", "group", "mulG_subG", "mulG_subl", "mulG_subr", "nHG", "normG", "normal", "normsI", "nsHG", "partnC", "p...
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
pgroup_nil p P : p.-group P -> nilpotent P.
Proof. move: {2}_.+1 (ltnSn #|P|) => n. elim: n gT P => // n IHn pT P; rewrite ltnS=> lePn pP. have [Z1 | ntZ] := eqVneq 'Z(P) 1. by rewrite (trivg_center_pgroup pP Z1) nilpotent1. rewrite -quotient_center_nil IHn ?morphim_pgroup // (leq_trans _ lePn) //. rewrite card_quotient ?normal_norm ?center_normal // -divgS ?s...
Lemma
pgroup_nil
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "card_quotient", "center_normal", "divgS", "eqVneq", "gT", "group", "leq_trans", "ltnNge", "ltnS", "ltnSn", "ltn_Pdiv", "morphim_pgroup", "nilpotent", "nilpotent1", "normal_norm", "pP", "quotient_center_nil", "subsetIl", "trivg_card_le1", "trivg_center_pgroup" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
pgroup_sol p P : p.-group P -> solvable P.
Proof. by move/pgroup_nil; apply: nilpotent_sol. Qed.
Lemma
pgroup_sol
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "apply", "group", "nilpotent_sol", "pgroup_nil", "solvable" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
small_nil_class G : nil_class G <= 5 -> nilpotent G.
Proof. move=> leK5; case: (ltnP 5 #|G|) => [lt5G | leG5 {leK5}]. by rewrite nilpotent_class (leq_ltn_trans leK5). apply: pgroup_nil (pdiv #|G|) _ _; apply/andP; split=> //. by case: #|G| leG5 => //; do 5!case=> //. Qed.
Lemma
small_nil_class
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "apply", "leq_ltn_trans", "ltnP", "nil_class", "nilpotent", "nilpotent_class", "pdiv", "pgroup_nil", "split" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
nil_class2 G : (nil_class G <= 2) = (G^`(1) \subset 'Z(G)).
Proof. rewrite subsetI der_sub; apply/idP/commG1P=> [clG2 | L3G1]. by apply/(lcn_nil_classP 2); rewrite ?small_nil_class ?(leq_trans clG2). by apply/(lcn_nil_classP 2) => //; apply/lcnP; exists 2. Qed.
Lemma
nil_class2
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "apply", "commG1P", "der_sub", "lcnP", "lcn_nil_classP", "leq_trans", "nil_class", "small_nil_class", "subsetI" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
nil_class3 G : (nil_class G <= 3) = ('L_3(G) \subset 'Z(G)).
Proof. rewrite subsetI lcn_sub; apply/idP/commG1P=> [clG3 | L4G1]. by apply/(lcn_nil_classP 3); rewrite ?small_nil_class ?(leq_trans clG3). by apply/(lcn_nil_classP 3) => //; apply/lcnP; exists 3. Qed.
Lemma
nil_class3
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "apply", "commG1P", "lcnP", "lcn_nil_classP", "lcn_sub", "leq_trans", "nil_class", "small_nil_class", "subsetI" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
nilpotent_maxp_normal pi G H : nilpotent G -> [max H | pi.-subgroup(G) H] -> H <| G.
Proof. move=> nilG /maxgroupP[/andP[sHG piH] maxH]. have nHN: H <| 'N_G(H) by rewrite normal_subnorm. have{maxH} hallH: pi.-Hall('N_G(H)) H. apply: normal_max_pgroup_Hall => //; apply/maxgroupP. rewrite /psubgroup normal_sub // piH; split=> // K. by rewrite subsetI -andbA andbCA => /andP[_ /maxH]. rewrite /normal...
Lemma
nilpotent_maxp_normal
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Hall", "apply", "char", "char_norms", "max", "maxgroupP", "nilpotent", "nilpotent_sub_norm", "normal", "normal_Hall_pcore", "normal_max_pgroup_Hall", "normal_sub", "normal_subnorm", "pcore_char", "pi", "psubgroup", "sHG", "setIS", "setIidPl", "split", "subsetI", "subsetIl"...
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
nilpotent_Hall_pcore pi G H : nilpotent G -> pi.-Hall(G) H -> H :=: 'O_pi(G).
Proof. move=> nilG hallH; have maxH := Hall_max hallH; apply/eqP. rewrite eqEsubset pcore_max ?(pHall_pgroup hallH) //. exact: nilpotent_maxp_normal maxH. by rewrite (normal_sub_max_pgroup maxH) ?pcore_pgroup ?pcore_normal. Qed.
Lemma
nilpotent_Hall_pcore
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Hall", "Hall_max", "apply", "eqEsubset", "nilpotent", "nilpotent_maxp_normal", "normal_sub_max_pgroup", "pHall_pgroup", "pcore_max", "pcore_normal", "pcore_pgroup", "pi" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
nilpotent_pcore_Hall pi G : nilpotent G -> pi.-Hall(G) 'O_pi(G).
Proof. move=> nilG; case: (@maxgroup_exists _ (psubgroup pi G) 1) => [|H maxH _]. by rewrite /psubgroup sub1G pgroup1. have hallH := normal_max_pgroup_Hall maxH (nilpotent_maxp_normal nilG maxH). by rewrite -(nilpotent_Hall_pcore nilG hallH). Qed.
Lemma
nilpotent_pcore_Hall
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Hall", "maxgroup_exists", "nilpotent", "nilpotent_Hall_pcore", "nilpotent_maxp_normal", "normal_max_pgroup_Hall", "pgroup1", "pi", "psubgroup", "sub1G" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
nilpotent_pcoreC pi G : nilpotent G -> 'O_pi(G) \x 'O_pi^'(G) = G.
Proof. move=> nilG; have trO: 'O_pi(G) :&: 'O_pi^'(G) = 1. by apply: coprime_TIg; apply: (@pnat_coprime pi); apply: pcore_pgroup. rewrite dprodE //. rewrite (sameP commG1P trivgP) -trO subsetI commg_subl commg_subr. by rewrite !gFsub_trans ?gFnorm. apply/eqP; rewrite eqEcard mul_subG ?pcore_sub // (TI_cardMg trO)...
Lemma
nilpotent_pcoreC
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "TI_cardMg", "apply", "card_Hall", "commG1P", "commg_subl", "commg_subr", "coprime_TIg", "dprodE", "eqEcard", "gFnorm", "gFsub_trans", "leqnn", "mul_subG", "nilpotent", "nilpotent_pcore_Hall", "partnC", "pcore_pgroup", "pcore_sub", "pi", "pnat_coprime", "subsetI", "trivgP" ...
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
sub_nilpotent_cent2 H K G : nilpotent G -> K \subset G -> H \subset G -> coprime #|K| #|H| -> H \subset 'C(K).
Proof. move=> nilG sKG sHG; rewrite coprime_pi' // => p'H. have sub_Gp := sub_Hall_pcore (nilpotent_pcore_Hall _ nilG). have [_ _ cGpp' _] := dprodP (nilpotent_pcoreC \pi(K) nilG). by apply: centSS cGpp'; rewrite sub_Gp ?pgroup_pi. Qed.
Lemma
sub_nilpotent_cent2
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "apply", "centSS", "coprime", "coprime_pi'", "dprodP", "nilpotent", "nilpotent_pcoreC", "nilpotent_pcore_Hall", "pgroup_pi", "pi", "sHG", "sKG", "sub_Hall_pcore" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
pi_center_nilpotent G : nilpotent G -> \pi('Z(G)) = \pi(G).
Proof. move=> nilG; apply/eq_piP => /= p. apply/idP/idP=> [|pG]; first exact: (piSg (center_sub _)). move: (pG); rewrite !mem_primes !cardG_gt0; case/andP=> p_pr _. pose Z := 'O_p(G) :&: 'Z(G); have ntZ: Z != 1. rewrite meet_center_nil ?pcore_normal // trivg_card_le1 -ltnNge. rewrite (card_Hall (nilpotent_pcore_Hal...
Lemma
pi_center_nilpotent
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "apply", "cardG_gt0", "cardSg", "card_Hall", "center_sub", "dvdn_trans", "eq_piP", "group", "logn_gt0", "ltnNge", "ltn_exp2l", "meet_center_nil", "mem_primes", "nilpotent", "nilpotent_pcore_Hall", "pG", "pZ", "p_part", "p_pr", "pcore_normal", "pcore_pgroup", "pgroupS", "p...
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Sylow_subnorm p G P : p.-Sylow('N_G(P)) P = p.-Sylow(G) P.
Proof. apply/idP/idP=> sylP; last first. apply: pHall_subl (subsetIl _ _) (sylP). by rewrite subsetI normG (pHall_sub sylP). have [/subsetIP[sPG sPN] pP _] := and3P sylP. have [Q sylQ sPQ] := Sylow_superset sPG pP; have [sQG pQ _] := and3P sylQ. rewrite -(nilpotent_sub_norm (pgroup_nil pQ) sPQ) {sylQ}//. rewrite su...
Lemma
Sylow_subnorm
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Sylow", "Sylow_superset", "apply", "cardSg", "card_Hall", "dvdn_leq", "eqEcard", "eq_sym", "last", "nilpotent_sub_norm", "normG", "pHall_sub", "pHall_subl", "pP", "part_pnat_id", "partn_dvd", "pgroupS", "pgroup_nil", "setSI", "subEproper", "subsetI", "subsetIP", "subsetI...
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
nil_class_pgroup (gT : finGroupType) (p : nat) (P : {group gT}) : p.-group P -> nil_class P <= maxn 1 (logn p #|P|).-1.
Proof. move=> pP; move def_c: (nil_class P) => c. elim: c => // c IHc in gT P def_c pP *; set e := logn p _. have nilP := pgroup_nil pP; have sZP := center_sub P. have [e_le2 | e_gt2] := leqP e 2. by rewrite -def_c leq_max nil_class1 (p2group_abelian pP). have pPq: p.-group (P / 'Z(P)) by apply: quotient_pgroup. rewr...
Lemma
nil_class_pgroup
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "add1n", "apply", "center_sub", "gT", "geq_max", "group", "leqP", "leq_max", "leq_sub2r", "leq_subLR", "leq_trans", "logn", "ltnS", "ltn_log_quotient", "maxn", "meet_center_nil", "nat", "nilP", "nil_class", "nil_class0", "nil_class1", "nil_class_quotient_center", "p2group...
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Zgroup (gT : finGroupType) (A : {set gT})
:= [forall (V : {group gT} | Sylow A V), cyclic V].
Definition
Zgroup
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Sylow", "cyclic", "gT", "group" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
ZgroupS G H : H \subset G -> Zgroup G -> Zgroup H.
Proof. move=> sHG /forallP zgG; apply/forall_inP=> V /SylowP[p p_pr /and3P[sVH]]. case/(Sylow_superset (subset_trans sVH sHG))=> P sylP sVP _. by have:= zgG P; rewrite (p_Sylow sylP); apply: cyclicS. Qed.
Lemma
ZgroupS
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "SylowP", "Sylow_superset", "Zgroup", "apply", "cyclicS", "forallP", "forall_inP", "p_Sylow", "p_pr", "sHG", "subset_trans" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
morphim_Zgroup G : Zgroup G -> Zgroup (f @* G).
Proof. move=> zgG; wlog sGD: G zgG / G \subset D. by rewrite -morphimIdom; apply; rewrite (ZgroupS _ zgG, subsetIl) ?subsetIr. apply/forall_inP=> fV /SylowP[p pr_p sylfV]. have [P sylP] := Sylow_exists p G. have [|z _ ->] := @Sylow_trans p _ _ (f @* P)%G _ _ sylfV. by apply: morphim_pHall (sylP); apply: subset_tran...
Lemma
morphim_Zgroup
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "SylowP", "Sylow_exists", "Sylow_trans", "Zgroup", "ZgroupS", "apply", "cyclicJ", "forall_inP", "morphimIdom", "morphim_cyclic", "morphim_pHall", "pHall_sub", "pr_p", "sGD", "subsetIl", "subsetIr", "subset_trans" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
nil_Zgroup_cyclic G : Zgroup G -> nilpotent G -> cyclic G.
Proof. have [n] := ubnP #|G|; elim: n G => // n IHn G /ltnSE-leGn ZgG nilG. have [->|[p pr_p pG]] := trivgVpdiv G; first by rewrite -cycle1 cycle_cyclic. have /dprodP[_ defG Cpp' _] := nilpotent_pcoreC p nilG. have /cyclicP[x def_p]: cyclic 'O_p(G). have:= forallP ZgG 'O_p(G)%G. by rewrite (p_Sylow (nilpotent_pcore...
Lemma
nil_Zgroup_cyclic
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Zgroup", "ZgroupS", "apply", "centsP", "cycle1", "cycleM", "cycle_cyclic", "cycle_id", "cyclic", "cyclicP", "defG", "def_p", "dprodP", "forallP", "leq_trans", "ltnSE", "nilpotent", "nilpotentS", "nilpotent_pcoreC", "nilpotent_pcore_Hall", "order", "p'natE", "pG", "p_Sy...
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
normal_pgroup r P N : p.-group P -> N <| P -> r <= logn p #|N| -> exists Q : {group gT}, [/\ Q \subset N, Q <| P & #|Q| = (p ^ r)%N].
Proof. elim: r gT P N => [|r IHr] gTr P N pP nNP le_r. by exists (1%G : {group gTr}); rewrite sub1G normal1 cards1. have [NZ_1 | ntNZ] := eqVneq (N :&: 'Z(P)) 1. by rewrite (TI_center_nil (pgroup_nil pP)) // cards1 logn1 in le_r. have: p.-group (N :&: 'Z(P)) by apply: pgroupS pP; rewrite /= setICA subsetIl. case/pg...
Lemma
normal_pgroup
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Cauchy", "Lagrange", "TI_center_nil", "apply", "card_quotient", "cards1", "centsC", "cents_norm", "cycle_subG", "eqVneq", "eqxx", "expnS", "gT", "group", "inv_quotientN", "leq_trans", "logn", "logn1", "lognM", "logn_prime", "ltnS", "morphim_normal", "morphim_pgroup", "...
B & G 1.22 p.9
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
Baer_Suzuki x G : x \in G -> (forall y, y \in G -> p.-group <<[set x; x ^ y]>>) -> x \in 'O_p(G).
Proof. have [n] := ubnP #|G|; elim: n G x => // n IHn G x /ltnSE-leGn Gx pE. set E := x ^: G; have{} pE: {in E &, forall x1 x2, p.-group <<[set x1; x2]>>}. move=> _ _ /imsetP[y1 Gy1 ->] /imsetP[y2 Gy2 ->]. rewrite -(mulgKV y1 y2) conjgM -2!conjg_set1 -conjUg genJ pgroupJ. by rewrite pE // groupMl ?groupV. have sE...
Theorem
Baer_Suzuki
solvable
solvable/sylow.v
[ "mathcomp", "ssreflect", "ssrbool", "ssrfun", "eqtype", "ssrnat", "seq", "div", "fintype", "prime", "bigop", "finset", "fingroup", "morphism", "automorphism", "quotient", "action", "cyclic", "gproduct", "gfunctor", "commutator", "pgroup", "center", "nilpotent" ]
[ "Dx", "Px", "Sylow", "Sylow_Jsub", "Sylow_superset", "apply", "cardJg", "cardsU1", "class_norm", "class_refl", "class_subG", "conjSg", "conjUg", "conjgM", "conjg_set1", "eqEsubset", "existsP", "gT", "genGid", "genJ", "genS", "gen_subG", "group", "groupJ", "groupMl", ...
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
tree
:= Node { children : seq tree }.
Inductive
tree
test_suite
test_suite/test_guard.v
[ "mathcomp", "boot" ]
[ "seq" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
ptree (T : Type)
:= singleton of T | branch of list (ptree T).
Inductive
ptree
test_suite
test_suite/test_guard.v
[ "mathcomp", "boot" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
tree_has (T : Type) (p : pred T) (t : ptree T) : bool
:= match t with | singleton x => p x | branch ts => has (tree_has p) ts end.
Fixpoint
tree_has
test_suite
test_suite/test_guard.v
[ "mathcomp", "boot" ]
[ "has", "ptree" ]
has
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
tree_all (T : Type) (p : pred T) (t : ptree T) : bool
:= match t with | singleton x => p x | branch ts => all (tree_all p) ts end.
Fixpoint
tree_all
test_suite
test_suite/test_guard.v
[ "mathcomp", "boot" ]
[ "all", "ptree" ]
all
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
traverse_id (t : tree) : tree
:= Node (map traverse_id (children t)).
Fixpoint
traverse_id
test_suite
test_suite/test_guard.v
[ "mathcomp", "boot" ]
[ "map", "tree" ]
map
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
tree_foldr (T R : Type) (f : T -> R -> R) (z : R) (t : ptree T) : R
:= match t with | singleton x => f x z | branch ts => foldr (fun t z' => tree_foldr f z' t) z ts end.
Fixpoint
tree_foldr
test_suite
test_suite/test_guard.v
[ "mathcomp", "boot" ]
[ "foldr", "ptree" ]
foldr
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
tree_foldl (T R : Type) (f : R -> T -> R) (z : R) (t : ptree T) : R
:= match t with | singleton x => f z x | branch ts => foldl (tree_foldl f) z ts end.
Fixpoint
tree_foldl
test_suite
test_suite/test_guard.v
[ "mathcomp", "boot" ]
[ "foldl", "ptree" ]
foldl
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
eq_tree (x y : tree) {struct x} : bool
:= all2 eq_tree (children x) (children y).
Fixpoint
eq_tree
test_suite
test_suite/test_guard.v
[ "mathcomp", "boot" ]
[ "all2", "tree" ]
all2
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
s_of_pq (p q : {i01 R}) : {i01 R}
:= (1 - ((1 - p%:num)%:i01%:num * (1 - q%:num)%:i01%:num))%:i01.
Definition
s_of_pq
test_suite
test_suite/test_interval_inference.v
[ "HB", "structures", "mathcomp", "ssreflect", "ssrfun", "ssrbool", "ssrnat", "eqtype", "choice", "order", "interval", "ssralg", "orderedzmod", "numdomain", "numfield", "ssrint", "interval_inference", "Order.TTheory", "Order.Syntax", "GRing.Theory", "Num.Theory" ]
[ "num" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
s_of_p0 (p : {i01 R}) : s_of_pq p 0%:i01 = p.
Proof. by apply/val_inj; rewrite /= subr0 mulr1 subKr. Qed.
Lemma
s_of_p0
test_suite
test_suite/test_interval_inference.v
[ "HB", "structures", "mathcomp", "ssreflect", "ssrfun", "ssrbool", "ssrnat", "eqtype", "choice", "order", "interval", "ssralg", "orderedzmod", "numdomain", "numfield", "ssrint", "interval_inference", "Order.TTheory", "Order.Syntax", "GRing.Theory", "Num.Theory" ]
[ "apply", "mulr1", "s_of_pq", "subKr", "subr0", "val_inj" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_dup1 : forall n : nat, odd n.
Proof. move=> /[dup] m n; suff: odd n by []. Abort.
Lemma
test_dup1
test_suite
test_suite/test_intro_rw.v
[ "mathcomp", "ssreflect", "ssrfun", "ssrbool", "ssrnat" ]
[ "nat", "odd" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_dup2 : let n := 1 in False.
Proof. move=> /[dup] m n; have : m = n := erefl. Abort.
Lemma
test_dup2
test_suite
test_suite/test_intro_rw.v
[ "mathcomp", "ssreflect", "ssrfun", "ssrbool", "ssrnat" ]
[ "False" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_swap1 : forall (n : nat) (b : bool), odd n = b.
Proof. move=> /[swap] b n; suff: odd n = b by []. Abort.
Lemma
test_swap1
test_suite
test_suite/test_intro_rw.v
[ "mathcomp", "ssreflect", "ssrfun", "ssrbool", "ssrnat" ]
[ "nat", "odd" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_swap1 : let n := 1 in let b := true in False.
Proof. move=> /[swap] b n; have : odd n = b := erefl. Abort.
Lemma
test_swap1
test_suite
test_suite/test_intro_rw.v
[ "mathcomp", "ssreflect", "ssrfun", "ssrbool", "ssrnat" ]
[ "False", "odd" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_apply A B : forall (f : A -> B) (a : A), False.
Proof. move=> /[apply] b. Check (b : B). Abort.
Lemma
test_apply
test_suite
test_suite/test_intro_rw.v
[ "mathcomp", "ssreflect", "ssrfun", "ssrbool", "ssrnat" ]
[ "False", "apply" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_swap_plus P Q : P -> Q -> False.
Proof. move=> + /[dup] q. suff: P -> Q -> False by []. Abort.
Lemma
test_swap_plus
test_suite
test_suite/test_intro_rw.v
[ "mathcomp", "ssreflect", "ssrfun", "ssrbool", "ssrnat" ]
[ "False" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_dup_plus2 P : P -> let x := 0 in False.
Proof. move=> + /[dup] y. suff: P -> let x := 0 in False by []. Abort.
Lemma
test_dup_plus2
test_suite
test_suite/test_intro_rw.v
[ "mathcomp", "ssreflect", "ssrfun", "ssrbool", "ssrnat" ]
[ "False" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_swap_plus P Q R : P -> Q -> R -> False.
Proof. move=> + /[swap]. suff: P -> R -> Q -> False by []. Abort.
Lemma
test_swap_plus
test_suite
test_suite/test_intro_rw.v
[ "mathcomp", "ssreflect", "ssrfun", "ssrbool", "ssrnat" ]
[ "False" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_swap_plus2 P : P -> let x := 0 in let y := 1 in False.
Proof. move=> + /[swap]. suff: P -> let y := 1 in let x := 0 in False by []. Abort.
Lemma
test_swap_plus2
test_suite
test_suite/test_intro_rw.v
[ "mathcomp", "ssreflect", "ssrfun", "ssrbool", "ssrnat" ]
[ "False" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test (F : realFieldType) (x y : F) : x + 2 * y <= 3 -> 2 * x + y <= 3 -> x + y <= 2.
Proof. lra. Qed.
Lemma
test
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_rat (x y : rat) : x + 2 * y <= 3 -> 2 * x + y <= 3 -> x + y <= 2.
Proof. lra. Qed.
Lemma
test_rat
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[ "rat" ]
Print Assumptions test. (* Closed under the global context *)
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_realDomain (R : realDomainType) (x y : R) : x + 2 * y <= 3 -> 2 * x + y <= 3 -> x + y <= 2.
Proof. lra. Qed.
Lemma
test_realDomain
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_realDomain' (R : realDomainType) (x : int) (y : R) : x%:~R + 2 * y <= 3 -> (2 * x)%:~R + y <= 3 -> x%:~R + y <= 2.
Proof. lra. Qed.
Lemma
test_realDomain'
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[ "int" ]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_cast : 0 <= 2 :> F.
Proof. lra. Qed.
Lemma
test_cast
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_div x y : x / 2 + y <= 3 -> x + y / 2 <= 3 -> x + y <= 4.
Proof. lra. Qed.
Example
test_div
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_div_mul x : 1 / (2 * x) <= 1 / 2 / x + 1.
Proof. lra. Qed.
Example
test_div_mul
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_div_inv x : 1 / x^-1 <= x + 1.
Proof. lra. Qed.
Example
test_div_inv
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_div_opp x : (- x)^-1 <= - x^-1 + 1.
Proof. lra. Qed.
Example
test_div_opp
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_div_exp x : (x ^+ 2) ^-1 <= x ^-1 ^+ 2 + 1.
Proof. lra. Qed.
Example
test_div_exp
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_lt x y : x + 2 * y < 3 -> 2 * x + y <= 3 -> x + y < 2.
Proof. lra. Qed.
Lemma
test_lt
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_eq x y : x + 2 * y = 3 -> 2 * x + y <= 3 -> x + y <= 2.
Proof. lra. Qed.
Lemma
test_eq
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_eqop x y : x + 2 * y == 3 -> 2 * x + y <= 3 -> x + y <= 2.
Proof. lra. Qed.
Lemma
test_eqop
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_prop_in_middle (C : Prop) x : x <= 2 -> C -> x <= 3.
Proof. lra. Qed.
Lemma
test_prop_in_middle
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_opp x : x <= 2 -> -x >= -2.
Proof. lra. Qed.
Lemma
test_opp
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d
test_iff x : x <= 2 <-> -x >= -2.
Proof. lra. Qed.
Lemma
test_iff
test_suite
test_suite/test_lra.v
[ "mathcomp", "all_boot", "ssralg", "ssrnum", "ssrint", "rat", "arithmetic_tactic" ]
[]
https://github.com/math-comp/math-comp
91d97df9cf3204b4dab84f4e24bc633e84b6473d