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lemma
stringlengths
8
343
name
stringlengths
1
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: nat_of_bin 0 = 0%nat.
nat_of_bin0
p : exists n, nat_of_pos p = S n.
nat_of_pos_s
p1 p2 : nat_of_pos p1 = nat_of_pos p2 -> p1=p2.
nat_of_pos_inj
n1 n2 : nat_of_bin n1 = nat_of_bin n2 -> n1=n2.
nat_of_bin_inj
n m :(N.to_nat n < N.to_nat m)%N ->(n < m)%N.
N2Nat_lt
(rty : realFieldType) (a : rty) :- a + a = 0.
subrr'
(rty : realFieldType) (a b : rty) :a - b + b = a.
sub_add_0
(a b : nat) :is_true (leq a (S b)) ->a = S b \/ is_true (leq a b).
leq_case
(y z : nat) :z%:Q = y%:Q + (z%:Q - y%:Q).
s5
(rty : numDomainType) (z : nat) :leq (S O) z ->0 < (z%:R^-1 : rty).
s9
(rty : numDomainType) (z : nat) :leq (S O) z ->(z%:R : rty) != (0%:R : rty).
s10
(y : nat) :leq 2 y ->0 < y%:Q.
sr3
(y : nat) :leq 2 y ->3%:Q / 2%:Q <= y%:Q.
sr4
i1 i2 l :ord (F i1) (F i2) ->ord (F (getOrd i1 l)) (F (getOrd i2 l)).
getOrd_mono
i0 (Hi0 : P i0) : P (getOrd_sub i0).
getOrd_sub_hasP
: [forall (i | P i), max >= F i].
maxP
: [forall (i | P i), min <= F i].
minP
: min <= max.
min_le_max
(rty : realFieldType) (I : finType) (f : I -> rty) (def i : I) :f i <= max xpredT f def.
max_ge
(rty : realFieldType) (I : finType) (f : I -> rty) (def i : I) :min xpredT f def <= f i.
min_le
:(forall s t, reflect (s = t) (eqf s t)) *(forall a b, reflect (a = b) (eqp a b)).
form_prog_dec
: (pcancel picklef unpicklef) /\ (pcancel picklep unpicklep).
pickleP
: pcancel picklef unpicklef.
picklefP
(M : fmodel) :((forall s (w:M), reflect (eval s w) (evalb s w))*(forall p (w v : M), reflect (reach p w v) (reachb p w v)%type)).
eval_reachP
(M:fmodel) (w : M) s : reflect (eval s w) (evalb s w).
evalP
(M:fmodel) : stable (@eval M).
fin_modelP
p s t : prv (s ---> t) -> prv ([p]s ---> [p]t).
rNorm
p u s : prv (u ---> [p]u) -> prv (u ---> s) -> prv (u ---> [p^*]s).
rStar_ind
p s : prv (s ---> [p][p^*]s ---> [p^*]s).
axStar
p : prv (~~: EX p Bot).
axnEXF
p s t : prv (s ---> t) -> prv (EX p s ---> EX p t).
rEXn
p s t : prv (EX p s ---> [p]t ---> EX p (s :/\: t)).
axDBD
p s : prv (~~:[p]s <--> EX p (~~:s)).
dmAX
p s t : prv ([p]s :/\: [p]t ---> [p](s :/\: t)).
axABBA
p s t : prv (EX p (s :\/: t) ---> EX p s :\/: EX p t).
axEOOE
s: prv s -> valid s.
soundness
(M:ts) :(forall s, prv s -> forall (w : M), eval s w) -> stable (@eval M).
soundness_classical
(dn: forall P , ~ ~ P -> P) s:prv s -> forall (M: ts) (v: M), eval s v.
classical_soundness
p s : prv ([p^*](s ---> [p]s) ---> s ---> [p^*]s).
segerberg
s : SEG.prv s <-> prv s.
segerberg_vs_inductive
s : s \in FL s.
FL_refl
p s : [p]s \in FL0 p s.
FL0_refl
:(forall s t : form, t \in FL s -> FL t `<=` FL s) *(forall a (s t : form), t \in FL0 a s -> FL t `<=` FL0 a s `|` FL s).
FL_trans_mut
s t u : t \in FL s -> s \in FL u -> t \in FL u.
FL_trans
u : sf_closed (FL u).
FL_closed
:(forall s : form, size (FL s) <= sizef s) *(forall a s, size (FL0 a s) <= sizep a).
FL_size
a s : isBox_spec a s (isBox a s).
isBoxP
a s : isCBox_spec a s (isCBox a s).
isCBoxP
F s : s \in F -> forall b, (s, b) \in flipcl F.
flipcl_refl
F s : s \in flipcl F -> drop_sign s \in F.
flip_drop_sign
F : flip_closed (flipcl F).
closed_flipcl
F : size (flipcl F) <= 2 * size F.
size_flipcl
s t : fImp s t^+ \in C -> s^- \in C \/ t^+ \in C.
hint_imp_pos
s t : fImp s t^- \in C -> s^+ \in C /\ t^- \in C.
hint_imp_neg
p0 p1 s b : ([p0;;p1]s, b) \in C -> ([p0][p1]s, b) \in C.
hint_box_con
p0 p1 s : [p0 + p1]s^+ \in C -> [p0]s^+ \in C /\ [p1]s^+ \in C.
hint_box_ch
p0 p1 s : [p0 + p1]s^- \in C -> [p0]s^- \in C \/ [p1]s^- \in C.
hint_dia_ch
p s : [p^*]s^+ \in C -> s^+ \in C /\ [p][p^*]s^+ \in C.
hint_box_star
p s : [p^*]s^- \in C -> s^- \in C \/ [p][p^*]s^- \in C.
hint_dia_star
C a s : (s^+ \in R a C) = ([pV a]s^+ \in C).
RE
a s C : s^- \notin R a C.
Rpos
a (C C' : clause) : R a (C `|` C') = (R a C `|` R a C').
RU
a (s : sform) :R a [fset s] = if s is [pV b]u^+ then if (a == b) then [fset u^+] else fset0 else fset0.
R1
a : R a fset0 = fset0.
R0
F a : sf_closed F ->forall C, C \in powerset (flipcl F) -> R a C \in powerset (flipcl F).
RinU
C a s : (s^+ \in Rc a C) = ([(pV a)^^]s^+ \in C).
RcE
(C: clause) a : prv ([af C] ---> [pV a][af R a C]).
box_request
p q s : prv ([p;;q]s <--> [p][q]s).
ax_Con
p q s : prv (EX (p;;q) s <--> EX p (EX q s)).
ax_ConE
p q s : prv ([p + q]s <--> ([p]s :/\: [q]s)).
ax_Ch
p q s : prv (EX (p + q) s <--> ((EX p s) :\/: (EX q s))).
ax_ChE
s t : prv ([s??]t <--> (s ---> t)).
ax_test
p s : prv (s ---> [p^^](EX p s)).
ax_convBB
p s : prv (s ---> [p](EX p^^ s)).
ax_convBF
p s : prv (EX p [p^^]s ---> s).
ax_convEF
p s : prv (EX (p^^) [p]s ---> s).
ax_convEB
p s : prv ([(p^^)^^]s <--> [p]s).
ax_conv
p q s : prv ([(p;;q)^^]s <--> [q^^;;p^^]s).
ax_conv_con
p q s : prv ([(p+q)^^]s <--> [p^^ + q^^]s).
ax_conv_ch
p s t :prv (s ---> t) -> prv (EX p t ---> t) -> prv (EX (p^*) s ---> t).
rStarE_ind
p s : prv ([(p^*)^^]s <--> [(p^^)^*]s).
ax_conv_star
s t : prv ([t??^^]s <--> [t??]s).
ax_conv_test
s p q : (forall t, prv ([p]t <--> [q]t)) -> prv ([p^*]s <--> [q^*]s).
rStar_eq
:(forall (s : form), prv (cnf s <--> s)) /\(forall (p : prog) (s : form), prv ([cnp true p]s <--> [p^^]s) * prv ([cnp false p]s <--> [p]s)).
cnf_eq_mut
s : prv (cnf s <--> s).
ax_cnf
s : prv (cnf s ---> s).
ax_cnfE
s : prv (s ---> cnf s).
ax_cnfI
: (forall s, is_cnf (cnf s)) * (forall p b, is_cnp (cnp b p)).
is_cn_mut
:(forall s, is_cnf s -> forall t, t \in FL s -> is_cnf t)*(forall p s, is_cnp p -> is_cnf s -> forall t, t \in FL0 p s -> is_cnf t).
FL_cnf_mut
s : is_cnf s -> (forall t, t \in FL s -> is_cnf t).
FL_cnf
:(forall s, sizef (cnf s) <= 2 * sizef s)*(forall p b, sizep (cnp b p) <= 2 * sizep p).
size_cnf_mut
s : sizef (cnf s) <= 2 * sizef s.
size_cnf
s C : prv ([af C] ---> s) -> href (s^- |` C).
refI1n
s C : href (s^- |` C) -> prv ([af C] ---> s).
refE1n
C : ~~ lcons C -> prv ([af C] ---> Bot).
ax_lcons
C s : prv ([af C] ---> [af s^+ |` C] :\/: [af s^- |` C]).
bigxm
C : C \in PU -> ~~ S |> C -> href C.
adm_P1
p s : [p]s \in F -> s \in F.
sfc_box
C : pref F C -> href C.
href_of
s : valid s -> prv s.
completeness
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