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theory CSP_law_decompo = CSP_proc: (*-------------------------------------------*
| CSP-Prover |
| December 2004 |
| Yoshinao Isobe (AIST JAPAN) |
*-------------------------------------------*)
theory CSP_law_decompo = CSP_proc:
(* The following simplification is sometimes unexpected. *)
(* *)
(* not_None_eq: (x ~= None) = (EX y. x = Some y) *)
declare not_None_eq [simp del]
(*------------------------------------------------*
| |
| laws for monotonicity and congruence |
| |
*------------------------------------------------*)
(*********************************************************
Act_prefix mono
*********************************************************)
lemma domSF_Act_prefix_mono:
"[| a = b ; [[P]]SF ev1 <= [[Q]]SF ev2 |]
==> [[a -> P]]SF ev1 <= [[b -> Q]]SF ev2"
apply (simp add: proc_subsetSF_decompo)
apply (simp add: Act_prefix_evalT_mono)
apply (simp add: Act_prefix_evalF_mono)
done
(*------------------*
| csp law |
*------------------*)
lemma csp_Act_prefix_mono:
"[| a = b ; LET:fp1 df IN P <=F LET:fp2 df IN Q |]
==> LET:fp1 df IN a -> P <=F LET:fp2 df IN b -> Q"
apply (insert fp_type_is[of fp1])
apply (insert fp_type_is[of fp2])
apply (elim disjE)
by (simp_all add: refF_def domSF_Act_prefix_mono)
lemma csp_Act_prefix_cong:
"[| a = b ; LET:fp1 df IN P =F LET:fp2 df IN Q |]
==> LET:fp1 df IN a -> P =F LET:fp2 df IN b -> Q"
by (simp add: csp_eq_ref_iff csp_Act_prefix_mono)
(*********************************************************
Ext_pre_choice mono
*********************************************************)
lemma domSF_Ext_pre_choice_mono:
"[| X = Y ; !! a. a:Y ==> [[Pf a]]SF ev1 <= [[Qf a]]SF ev2 |]
==> [[? :X -> Pf]]SF ev1 <= [[? :Y -> Qf]]SF ev2"
apply (simp add: proc_subsetSF_decompo)
apply (simp add: Ext_pre_choice_evalT_mono)
apply (simp add: Ext_pre_choice_evalF_mono)
done
(*------------------*
| csp law |
*------------------*)
lemma csp_Ext_pre_choice_mono:
"[| X = Y ; !! a. a:Y ==> LET:fp1 df IN Pf a <=F LET:fp2 df IN Qf a |]
==> LET:fp1 df IN ? :X -> Pf <=F LET:fp2 df IN ? :Y -> Qf"
apply (insert fp_type_is[of fp1])
apply (insert fp_type_is[of fp2])
apply (elim disjE)
by (simp_all add: refF_def domSF_Ext_pre_choice_mono)
lemma csp_Ext_pre_choice_cong:
"[| X = Y ; !! a. a:Y ==> LET:fp1 df IN Pf a =F LET:fp2 df IN Qf a |]
==> LET:fp1 df IN ? :X -> Pf =F LET:fp2 df IN ? :Y -> Qf"
by (simp add: csp_eq_ref_iff csp_Ext_pre_choice_mono)
(*********************************************************
Ext choice mono
*********************************************************)
lemma domSF_Ext_choice_mono:
"[| [[P1]]SF ev1 <= [[Q1]]SF ev2 ; [[P2]]SF ev1 <= [[Q2]]SF ev2 |]
==> [[P1 [+] P2]]SF ev1 <= [[Q1 [+] Q2]]SF ev2"
apply (simp add: proc_subsetSF_decompo)
apply (simp add: Ext_choice_evalT_mono)
apply (simp add: Ext_choice_evalF_mono)
done
(*------------------*
| csp law |
*------------------*)
lemma csp_Ext_choice_mono:
"[| LET:fp1 df IN P1 <=F LET:fp2 df IN Q1 ;
LET:fp1 df IN P2 <=F LET:fp2 df IN Q2 |]
==> LET:fp1 df IN P1 [+] P2 <=F LET:fp2 df IN Q1 [+] Q2"
apply (insert fp_type_is[of fp1])
apply (insert fp_type_is[of fp2])
apply (elim disjE)
by (simp_all add: refF_def domSF_Ext_choice_mono)
lemma csp_Ext_choice_cong:
"[| LET:fp1 df IN P1 =F LET:fp2 df IN Q1 ;
LET:fp1 df IN P2 =F LET:fp2 df IN Q2 |]
==> LET:fp1 df IN P1 [+] P2 =F LET:fp2 df IN Q1 [+] Q2"
by (simp add: csp_eq_ref_iff csp_Ext_choice_mono)
(*********************************************************
Int choice mono
*********************************************************)
lemma domSF_Int_choice_mono:
"[| [[P1]]SF ev1 <= [[Q1]]SF ev2 ; [[P2]]SF ev1 <= [[Q2]]SF ev2 |]
==> [[P1 |~| P2]]SF ev1 <= [[Q1 |~| Q2]]SF ev2"
apply (simp add: proc_subsetSF_decompo)
apply (simp add: Int_choice_evalT_mono)
apply (simp add: Int_choice_evalF_mono)
done
(*------------------*
| csp law |
*------------------*)
lemma csp_Int_choice_mono:
"[| LET:fp1 df IN P1 <=F LET:fp2 df IN Q1 ;
LET:fp1 df IN P2 <=F LET:fp2 df IN Q2 |]
==> LET:fp1 df IN P1 |~| P2 <=F LET:fp2 df IN Q1 |~| Q2"
apply (insert fp_type_is[of fp1])
apply (insert fp_type_is[of fp2])
apply (elim disjE)
by (simp_all add: refF_def domSF_Int_choice_mono)
lemma csp_Int_choice_cong:
"[| LET:fp1 df IN P1 =F LET:fp2 df IN Q1 ;
LET:fp1 df IN P2 =F LET:fp2 df IN Q2 |]
==> LET:fp1 df IN P1 |~| P2 =F LET:fp2 df IN Q1 |~| Q2"
by (simp add: csp_eq_ref_iff csp_Int_choice_mono)
(*********************************************************
replicated internal choice
*********************************************************)
lemma domSF_Rep_int_choice_mono:
"[| X = Y ; !! a. a:Y ==> [[Pf a]]SF ev1 <= [[Qf a]]SF ev2 |]
==> [[! :X .. Pf]]SF ev1 <= [[! :Y .. Qf]]SF ev2"
apply (simp add: proc_subsetSF_decompo)
apply (simp add: Rep_int_choice_evalT_mono)
apply (simp add: Rep_int_choice_evalF_mono)
done
(*------------------*
| csp law |
*------------------*)
lemma csp_Rep_int_choice_mono:
"[| X = Y ; !! a. a:Y ==> LET:fp1 df IN Pf a <=F LET:fp2 df IN Qf a |]
==> LET:fp1 df IN ! :X .. Pf <=F LET:fp2 df IN ! :Y .. Qf"
apply (insert fp_type_is[of fp1])
apply (insert fp_type_is[of fp2])
apply (elim disjE)
by (simp_all add: refF_def domSF_Rep_int_choice_mono)
lemma csp_Rep_int_choice_cong:
"[| X = Y ; !! a. a:Y ==> LET:fp1 df IN Pf a =F LET:fp2 df IN Qf a |]
==> LET:fp1 df IN ! :X .. Pf =F LET:fp2 df IN ! :Y .. Qf"
by (simp add: csp_eq_ref_iff csp_Rep_int_choice_mono)
(*********************************************************
Conditional mono
*********************************************************)
lemma domSF_Conditional_mono:
"[| b1 = b2 ; [[P1]]SF ev1 <= [[Q1]]SF ev2 ; [[P2]]SF ev1 <= [[Q2]]SF ev2 |]
==> [[IF b1 THEN P1 ELSE P2]]SF ev1 <=
[[IF b2 THEN Q1 ELSE Q2]]SF ev2"
apply (simp add: proc_subsetSF_decompo)
apply (simp add: Conditional_evalT_mono)
apply (simp add: Conditional_evalF_mono)
done
(*------------------*
| csp law |
*------------------*)
lemma csp_Conditional_mono:
"[| b1 = b2 ;
LET:fp1 df IN P1 <=F LET:fp2 df IN Q1 ;
LET:fp1 df IN P2 <=F LET:fp2 df IN Q2 |]
==> LET:fp1 df IN IF b1 THEN P1 ELSE P2 <=F
LET:fp2 df IN IF b2 THEN Q1 ELSE Q2"
apply (insert fp_type_is[of fp1])
apply (insert fp_type_is[of fp2])
apply (elim disjE)
by (simp_all add: refF_def domSF_Conditional_mono)
lemma csp_Conditional_cong:
"[| b1 = b2 ;
LET:fp1 df IN P1 =F LET:fp2 df IN Q1 ;
LET:fp1 df IN P2 =F LET:fp2 df IN Q2 |]
==> LET:fp1 df IN IF b1 THEN P1 ELSE P2 =F
LET:fp2 df IN IF b2 THEN Q1 ELSE Q2"
by (simp add: csp_eq_ref_iff csp_Conditional_mono)
(*********************************************************
Parallel mono
*********************************************************)
lemma domSF_Parallel_mono:
"[| X = Y ; [[P1]]SF ev1 <= [[Q1]]SF ev2 ; [[P2]]SF ev1 <= [[Q2]]SF ev2 |]
==> [[P1 |[X]| P2]]SF ev1 <= [[Q1 |[X]| Q2]]SF ev2"
apply (simp add: proc_subsetSF_decompo)
apply (simp add: Parallel_evalT_mono)
apply (simp add: Parallel_evalF_mono)
done
(*------------------*
| csp law |
*------------------*)
lemma csp_Parallel_mono:
"[| X = Y ;
LET:fp1 df IN P1 <=F LET:fp2 df IN Q1 ;
LET:fp1 df IN P2 <=F LET:fp2 df IN Q2 |]
==> LET:fp1 df IN P1 |[X]| P2 <=F LET:fp2 df IN Q1 |[Y]| Q2"
apply (insert fp_type_is[of fp1])
apply (insert fp_type_is[of fp2])
apply (elim disjE)
by (simp_all add: refF_def domSF_Parallel_mono)
lemma csp_Parallel_cong:
"[| X = Y ;
LET:fp1 df IN P1 =F LET:fp2 df IN Q1 ;
LET:fp1 df IN P2 =F LET:fp2 df IN Q2 |]
==> LET:fp1 df IN P1 |[X]| P2 =F LET:fp2 df IN Q1 |[Y]| Q2"
by (simp add: csp_eq_ref_iff csp_Parallel_mono)
(*********************************************************
Hiding mono
*********************************************************)
lemma domSF_Hiding_mono:
"[| X = Y ; [[P]]SF ev1 <= [[Q]]SF ev2 |]
==> [[P -- X]]SF ev1 <= [[Q -- X]]SF ev2"
apply (simp add: proc_subsetSF_decompo)
apply (simp add: Hiding_evalT_mono)
apply (simp add: Hiding_evalF_mono)
done
(*------------------*
| csp law |
*------------------*)
lemma csp_Hiding_mono:
"[| X = Y ; LET:fp1 df IN P <=F LET:fp2 df IN Q |]
==> LET:fp1 df IN P -- X <=F LET:fp2 df IN Q -- Y"
apply (insert fp_type_is[of fp1])
apply (insert fp_type_is[of fp2])
apply (elim disjE)
by (simp_all add: refF_def domSF_Hiding_mono)
lemma csp_Hiding_cong:
"[| X = Y ; LET:fp1 df IN P =F LET:fp2 df IN Q |]
==> LET:fp1 df IN P -- X =F LET:fp2 df IN Q -- Y"
by (simp add: csp_eq_ref_iff csp_Hiding_mono)
(*********************************************************
Renaming mono
*********************************************************)
lemma domSF_Renaming_mono:
"[| r1 = r2 ; [[P]]SF ev1 <= [[Q]]SF ev2 |]
==> [[P [[r1]]]]SF ev1 <= [[Q [[r2]]]]SF ev2"
apply (simp add: proc_subsetSF_decompo)
apply (simp add: Renaming_evalT_mono)
apply (simp add: Renaming_evalF_mono)
done
(*------------------*
| csp law |
*------------------*)
lemma csp_Renaming_mono:
"[| r1 = r2 ; LET:fp1 df IN P <=F LET:fp2 df IN Q |]
==> LET:fp1 df IN P [[r1]] <=F LET:fp2 df IN Q [[r2]]"
apply (insert fp_type_is[of fp1])
apply (insert fp_type_is[of fp2])
apply (elim disjE)
by (simp_all add: refF_def domSF_Renaming_mono)
lemma csp_Renaming_cong:
"[| r1 = r2 ; LET:fp1 df IN P =F LET:fp2 df IN Q |]
==> LET:fp1 df IN P [[r1]] =F LET:fp2 df IN Q [[r2]]"
by (simp add: csp_eq_ref_iff csp_Renaming_mono)
(*********************************************************
Sequential composition mono
*********************************************************)
lemma domSF_Seq_compo_mono:
"[| [[P1]]SF ev1 <= [[Q1]]SF ev2 ; [[P2]]SF ev1 <= [[Q2]]SF ev2 |]
==> [[P1 ;; P2]]SF ev1 <= [[Q1 ;; Q2]]SF ev2"
apply (simp add: proc_subsetSF_decompo)
apply (simp add: Seq_compo_evalT_mono)
apply (simp add: Seq_compo_evalF_mono)
done
(*------------------*
| csp law |
*------------------*)
lemma csp_Seq_compo_mono:
"[| LET:fp1 df IN P1 <=F LET:fp2 df IN Q1 ;
LET:fp1 df IN P2 <=F LET:fp2 df IN Q2 |]
==> LET:fp1 df IN P1 ;; P2 <=F LET:fp2 df IN Q1 ;; Q2"
apply (insert fp_type_is[of fp1])
apply (insert fp_type_is[of fp2])
apply (elim disjE)
by (simp_all add: refF_def domSF_Seq_compo_mono)
lemma csp_Seq_compo_cong:
"[| LET:fp1 df IN P1 =F LET:fp2 df IN Q1 ;
LET:fp1 df IN P2 =F LET:fp2 df IN Q2 |]
==> LET:fp1 df IN P1 ;; P2 =F LET:fp2 df IN Q1 ;; Q2"
by (simp add: csp_eq_ref_iff csp_Seq_compo_mono)
(*********************************************************
Timeout mono
*********************************************************)
(*------------------*
| csp law |
*------------------*)
lemma csp_Timeout_mono:
"[| LET:fp1 df IN P1 <=F LET:fp2 df IN Q1 ;
LET:fp1 df IN P2 <=F LET:fp2 df IN Q2 |]
==> LET:fp1 df IN P1 [> P2 <=F LET:fp2 df IN Q1 [> Q2"
apply (rule csp_Ext_choice_mono)
apply (rule csp_Int_choice_mono)
apply (simp_all)
apply (simp add: refF_def)
apply (insert fp_type_is[of fp1])
apply (insert fp_type_is[of fp2])
apply (elim disjE)
apply (simp_all add: proc_subsetSF_decompo)
apply (simp_all add: evalT_def evalF_def)
done
lemma csp_Timeout_cong:
"[| LET:fp1 df IN P1 =F LET:fp2 df IN Q1 ;
LET:fp1 df IN P2 =F LET:fp2 df IN Q2 |]
==> LET:fp1 df IN P1 [> P2 =F LET:fp2 df IN Q1 [> Q2"
by (simp add: csp_eq_ref_iff csp_Timeout_mono)
(*------------------------------------------------------*
| alias |
*------------------------------------------------------*)
lemmas csp_free_mono =
csp_Ext_choice_mono csp_Int_choice_mono csp_Parallel_mono
csp_Hiding_mono csp_Renaming_mono csp_Seq_compo_mono
lemmas csp_mono = csp_free_mono
csp_Act_prefix_mono csp_Ext_pre_choice_mono
csp_Rep_int_choice_mono csp_Conditional_mono
lemmas csp_free_cong =
csp_Ext_choice_cong csp_Int_choice_cong csp_Parallel_cong
csp_Hiding_cong csp_Renaming_cong csp_Seq_compo_cong
lemmas csp_cong = csp_free_cong
csp_Act_prefix_cong csp_Ext_pre_choice_cong
csp_Rep_int_choice_cong csp_Conditional_cong
lemmas csp_free_decompo = csp_free_mono csp_free_cong
lemmas csp_decompo = csp_mono csp_cong
lemmas csp_rm_head_mono = csp_Act_prefix_mono csp_Ext_pre_choice_mono
lemmas csp_rm_head_cong = csp_Act_prefix_cong csp_Ext_pre_choice_cong
lemmas csp_rm_head = csp_rm_head_mono csp_rm_head_cong
(****************** to add them again ******************)
declare not_None_eq [simp]
end
lemma domSF_Act_prefix_mono:
[| a = b; [[P]]SF ev1 ≤ [[Q]]SF ev2 |] ==> [[a -> P]]SF ev1 ≤ [[b -> Q]]SF ev2
lemma csp_Act_prefix_mono:
[| a = b; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN a -> P <=F LET:fp2 df IN b -> Q
lemma csp_Act_prefix_cong:
[| a = b; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN a -> P =F LET:fp2 df IN b -> Q
lemma domSF_Ext_pre_choice_mono:
[| X = Y; !!a. a ∈ Y ==> [[Pf a]]SF ev1 ≤ [[Qf a]]SF ev2 |] ==> [[? :X -> Pf]]SF ev1 ≤ [[? :Y -> Qf]]SF ev2
lemma csp_Ext_pre_choice_mono:
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a <=F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ? :X -> Pf <=F LET:fp2 df IN ? :Y -> Qf
lemma csp_Ext_pre_choice_cong:
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a =F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ? :X -> Pf =F LET:fp2 df IN ? :Y -> Qf
lemma domSF_Ext_choice_mono:
[| [[P1]]SF ev1 ≤ [[Q1]]SF ev2; [[P2]]SF ev1 ≤ [[Q2]]SF ev2 |] ==> [[P1 [+] P2]]SF ev1 ≤ [[Q1 [+] Q2]]SF ev2
lemma csp_Ext_choice_mono:
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 [+] P2 <=F
LET:fp2 df IN Q1 [+] Q2
lemma csp_Ext_choice_cong:
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 [+] P2 =F
LET:fp2 df IN Q1 [+] Q2
lemma domSF_Int_choice_mono:
[| [[P1]]SF ev1 ≤ [[Q1]]SF ev2; [[P2]]SF ev1 ≤ [[Q2]]SF ev2 |] ==> [[P1 |~| P2]]SF ev1 ≤ [[Q1 |~| Q2]]SF ev2
lemma csp_Int_choice_mono:
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 |~| P2 <=F
LET:fp2 df IN Q1 |~| Q2
lemma csp_Int_choice_cong:
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 |~| P2 =F
LET:fp2 df IN Q1 |~| Q2
lemma domSF_Rep_int_choice_mono:
[| X = Y; !!a. a ∈ Y ==> [[Pf a]]SF ev1 ≤ [[Qf a]]SF ev2 |] ==> [[! :X .. Pf]]SF ev1 ≤ [[! :Y .. Qf]]SF ev2
lemma csp_Rep_int_choice_mono:
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a <=F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ! :X .. Pf <=F LET:fp2 df IN ! :Y .. Qf
lemma csp_Rep_int_choice_cong:
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a =F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ! :X .. Pf =F LET:fp2 df IN ! :Y .. Qf
lemma domSF_Conditional_mono:
[| b1 = b2; [[P1]]SF ev1 ≤ [[Q1]]SF ev2; [[P2]]SF ev1 ≤ [[Q2]]SF ev2 |] ==> [[IF b1 THEN P1 ELSE P2]]SF ev1 ≤ [[IF b2 THEN Q1 ELSE Q2]]SF ev2
lemma csp_Conditional_mono:
[| b1 = b2; LET:fp1 df IN P1 <=F LET:fp2 df IN Q1; LET:fp1 df IN P2 <=F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN IF b1 THEN P1 ELSE P2 <=F LET:fp2 df IN IF b2 THEN Q1 ELSE Q2
lemma csp_Conditional_cong:
[| b1 = b2; LET:fp1 df IN P1 =F LET:fp2 df IN Q1; LET:fp1 df IN P2 =F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN IF b1 THEN P1 ELSE P2 =F LET:fp2 df IN IF b2 THEN Q1 ELSE Q2
lemma domSF_Parallel_mono:
[| X = Y; [[P1]]SF ev1 ≤ [[Q1]]SF ev2; [[P2]]SF ev1 ≤ [[Q2]]SF ev2 |] ==> [[P1 |[X]| P2]]SF ev1 ≤ [[Q1 |[X]| Q2]]SF ev2
lemma csp_Parallel_mono:
[| X = Y; LET:fp1 df IN P1 <=F LET:fp2 df IN Q1; LET:fp1 df IN P2 <=F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN P1 |[X]| P2 <=F LET:fp2 df IN Q1 |[Y]| Q2
lemma csp_Parallel_cong:
[| X = Y; LET:fp1 df IN P1 =F LET:fp2 df IN Q1; LET:fp1 df IN P2 =F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN P1 |[X]| P2 =F LET:fp2 df IN Q1 |[Y]| Q2
lemma domSF_Hiding_mono:
[| X = Y; [[P]]SF ev1 ≤ [[Q]]SF ev2 |] ==> [[P -- X]]SF ev1 ≤ [[Q -- X]]SF ev2
lemma csp_Hiding_mono:
[| X = Y; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN P -- X <=F LET:fp2 df IN Q -- Y
lemma csp_Hiding_cong:
[| X = Y; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN P -- X =F LET:fp2 df IN Q -- Y
lemma domSF_Renaming_mono:
[| r1 = r2; [[P]]SF ev1 ≤ [[Q]]SF ev2 |] ==> [[P [[r1]]]]SF ev1 ≤ [[Q [[r2]]]]SF ev2
lemma csp_Renaming_mono:
[| r1 = r2; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN P [[r1]] <=F LET:fp2 df IN Q [[r2]]
lemma csp_Renaming_cong:
[| r1 = r2; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN P [[r1]] =F LET:fp2 df IN Q [[r2]]
lemma domSF_Seq_compo_mono:
[| [[P1]]SF ev1 ≤ [[Q1]]SF ev2; [[P2]]SF ev1 ≤ [[Q2]]SF ev2 |] ==> [[P1 ;; P2]]SF ev1 ≤ [[Q1 ;; Q2]]SF ev2
lemma csp_Seq_compo_mono:
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 ;; P2 <=F
LET:fp2 df IN Q1 ;; Q2
lemma csp_Seq_compo_cong:
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 ;; P2 =F
LET:fp2 df IN Q1 ;; Q2
lemma csp_Timeout_mono:
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 [> P2 <=F
LET:fp2 df IN Q1 [> Q2
lemma csp_Timeout_cong:
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 [> P2 =F
LET:fp2 df IN Q1 [> Q2
lemmas csp_free_mono:
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 [+] P2 <=F
LET:fp2 df IN Q1 [+] Q2
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 |~| P2 <=F
LET:fp2 df IN Q1 |~| Q2
[| X = Y; LET:fp1 df IN P1 <=F LET:fp2 df IN Q1; LET:fp1 df IN P2 <=F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN P1 |[X]| P2 <=F LET:fp2 df IN Q1 |[Y]| Q2
[| X = Y; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN P -- X <=F LET:fp2 df IN Q -- Y
[| r1 = r2; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN P [[r1]] <=F LET:fp2 df IN Q [[r2]]
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 ;; P2 <=F
LET:fp2 df IN Q1 ;; Q2
lemmas csp_mono:
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 [+] P2 <=F
LET:fp2 df IN Q1 [+] Q2
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 |~| P2 <=F
LET:fp2 df IN Q1 |~| Q2
[| X = Y; LET:fp1 df IN P1 <=F LET:fp2 df IN Q1; LET:fp1 df IN P2 <=F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN P1 |[X]| P2 <=F LET:fp2 df IN Q1 |[Y]| Q2
[| X = Y; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN P -- X <=F LET:fp2 df IN Q -- Y
[| r1 = r2; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN P [[r1]] <=F LET:fp2 df IN Q [[r2]]
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 ;; P2 <=F
LET:fp2 df IN Q1 ;; Q2
[| a = b; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN a -> P <=F LET:fp2 df IN b -> Q
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a <=F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ? :X -> Pf <=F LET:fp2 df IN ? :Y -> Qf
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a <=F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ! :X .. Pf <=F LET:fp2 df IN ! :Y .. Qf
[| b1 = b2; LET:fp1 df IN P1 <=F LET:fp2 df IN Q1; LET:fp1 df IN P2 <=F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN IF b1 THEN P1 ELSE P2 <=F LET:fp2 df IN IF b2 THEN Q1 ELSE Q2
lemmas csp_free_cong:
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 [+] P2 =F
LET:fp2 df IN Q1 [+] Q2
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 |~| P2 =F
LET:fp2 df IN Q1 |~| Q2
[| X = Y; LET:fp1 df IN P1 =F LET:fp2 df IN Q1; LET:fp1 df IN P2 =F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN P1 |[X]| P2 =F LET:fp2 df IN Q1 |[Y]| Q2
[| X = Y; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN P -- X =F LET:fp2 df IN Q -- Y
[| r1 = r2; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN P [[r1]] =F LET:fp2 df IN Q [[r2]]
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 ;; P2 =F
LET:fp2 df IN Q1 ;; Q2
lemmas csp_cong:
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 [+] P2 =F
LET:fp2 df IN Q1 [+] Q2
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 |~| P2 =F
LET:fp2 df IN Q1 |~| Q2
[| X = Y; LET:fp1 df IN P1 =F LET:fp2 df IN Q1; LET:fp1 df IN P2 =F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN P1 |[X]| P2 =F LET:fp2 df IN Q1 |[Y]| Q2
[| X = Y; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN P -- X =F LET:fp2 df IN Q -- Y
[| r1 = r2; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN P [[r1]] =F LET:fp2 df IN Q [[r2]]
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 ;; P2 =F
LET:fp2 df IN Q1 ;; Q2
[| a = b; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN a -> P =F LET:fp2 df IN b -> Q
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a =F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ? :X -> Pf =F LET:fp2 df IN ? :Y -> Qf
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a =F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ! :X .. Pf =F LET:fp2 df IN ! :Y .. Qf
[| b1 = b2; LET:fp1 df IN P1 =F LET:fp2 df IN Q1; LET:fp1 df IN P2 =F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN IF b1 THEN P1 ELSE P2 =F LET:fp2 df IN IF b2 THEN Q1 ELSE Q2
lemmas csp_free_decompo:
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 [+] P2 <=F
LET:fp2 df IN Q1 [+] Q2
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 |~| P2 <=F
LET:fp2 df IN Q1 |~| Q2
[| X = Y; LET:fp1 df IN P1 <=F LET:fp2 df IN Q1; LET:fp1 df IN P2 <=F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN P1 |[X]| P2 <=F LET:fp2 df IN Q1 |[Y]| Q2
[| X = Y; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN P -- X <=F LET:fp2 df IN Q -- Y
[| r1 = r2; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN P [[r1]] <=F LET:fp2 df IN Q [[r2]]
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 ;; P2 <=F
LET:fp2 df IN Q1 ;; Q2
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 [+] P2 =F
LET:fp2 df IN Q1 [+] Q2
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 |~| P2 =F
LET:fp2 df IN Q1 |~| Q2
[| X = Y; LET:fp1 df IN P1 =F LET:fp2 df IN Q1; LET:fp1 df IN P2 =F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN P1 |[X]| P2 =F LET:fp2 df IN Q1 |[Y]| Q2
[| X = Y; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN P -- X =F LET:fp2 df IN Q -- Y
[| r1 = r2; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN P [[r1]] =F LET:fp2 df IN Q [[r2]]
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 ;; P2 =F
LET:fp2 df IN Q1 ;; Q2
lemmas csp_decompo:
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 [+] P2 <=F
LET:fp2 df IN Q1 [+] Q2
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 |~| P2 <=F
LET:fp2 df IN Q1 |~| Q2
[| X = Y; LET:fp1 df IN P1 <=F LET:fp2 df IN Q1; LET:fp1 df IN P2 <=F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN P1 |[X]| P2 <=F LET:fp2 df IN Q1 |[Y]| Q2
[| X = Y; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN P -- X <=F LET:fp2 df IN Q -- Y
[| r1 = r2; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN P [[r1]] <=F LET:fp2 df IN Q [[r2]]
[|
LET:fp1 df IN P1 <=F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 <=F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 ;; P2 <=F
LET:fp2 df IN Q1 ;; Q2
[| a = b; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN a -> P <=F LET:fp2 df IN b -> Q
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a <=F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ? :X -> Pf <=F LET:fp2 df IN ? :Y -> Qf
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a <=F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ! :X .. Pf <=F LET:fp2 df IN ! :Y .. Qf
[| b1 = b2; LET:fp1 df IN P1 <=F LET:fp2 df IN Q1; LET:fp1 df IN P2 <=F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN IF b1 THEN P1 ELSE P2 <=F LET:fp2 df IN IF b2 THEN Q1 ELSE Q2
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 [+] P2 =F
LET:fp2 df IN Q1 [+] Q2
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 |~| P2 =F
LET:fp2 df IN Q1 |~| Q2
[| X = Y; LET:fp1 df IN P1 =F LET:fp2 df IN Q1; LET:fp1 df IN P2 =F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN P1 |[X]| P2 =F LET:fp2 df IN Q1 |[Y]| Q2
[| X = Y; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN P -- X =F LET:fp2 df IN Q -- Y
[| r1 = r2; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN P [[r1]] =F LET:fp2 df IN Q [[r2]]
[|
LET:fp1 df IN P1 =F
LET:fp2 df IN Q1;
LET:fp1 df IN P2 =F
LET:fp2 df IN Q2 |]
==>
LET:fp1 df IN P1 ;; P2 =F
LET:fp2 df IN Q1 ;; Q2
[| a = b; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN a -> P =F LET:fp2 df IN b -> Q
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a =F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ? :X -> Pf =F LET:fp2 df IN ? :Y -> Qf
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a =F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ! :X .. Pf =F LET:fp2 df IN ! :Y .. Qf
[| b1 = b2; LET:fp1 df IN P1 =F LET:fp2 df IN Q1; LET:fp1 df IN P2 =F LET:fp2 df IN Q2 |] ==> LET:fp1 df IN IF b1 THEN P1 ELSE P2 =F LET:fp2 df IN IF b2 THEN Q1 ELSE Q2
lemmas csp_rm_head_mono:
[| a = b; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN a -> P <=F LET:fp2 df IN b -> Q
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a <=F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ? :X -> Pf <=F LET:fp2 df IN ? :Y -> Qf
lemmas csp_rm_head_cong:
[| a = b; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN a -> P =F LET:fp2 df IN b -> Q
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a =F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ? :X -> Pf =F LET:fp2 df IN ? :Y -> Qf
lemmas csp_rm_head:
[| a = b; LET:fp1 df IN P <=F LET:fp2 df IN Q |] ==> LET:fp1 df IN a -> P <=F LET:fp2 df IN b -> Q
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a <=F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ? :X -> Pf <=F LET:fp2 df IN ? :Y -> Qf
[| a = b; LET:fp1 df IN P =F LET:fp2 df IN Q |] ==> LET:fp1 df IN a -> P =F LET:fp2 df IN b -> Q
[| X = Y; !!a. a ∈ Y ==> LET:fp1 df IN Pf a =F LET:fp2 df IN Qf a |] ==> LET:fp1 df IN ? :X -> Pf =F LET:fp2 df IN ? :Y -> Qf