Structure EVAL_numRingTheory


Source File Identifier index Theory binding index

signature EVAL_numRingTheory =
sig
  type thm = Thm.thm
  
  (*  Definitions  *)
    val num_canonical_sum_merge_def : thm
    val num_canonical_sum_prod_def : thm
    val num_canonical_sum_scalar2_def : thm
    val num_canonical_sum_scalar3_def : thm
    val num_canonical_sum_scalar_def : thm
    val num_canonical_sum_simplify_def : thm
    val num_ics_aux_def : thm
    val num_interp_cs_def : thm
    val num_interp_m_def : thm
    val num_interp_sp_def : thm
    val num_interp_vl_def : thm
    val num_ivl_aux_def : thm
    val num_monom_insert_def : thm
    val num_spolynom_normalize_def : thm
    val num_spolynom_simplify_def : thm
    val num_varlist_insert_def : thm
  
  (*  Theorems  *)
    val num_rewrites : thm
    val num_ring_thms : thm
    val num_semi_ring : thm
  
  val EVAL_numRing_grammars : type_grammar.grammar * term_grammar.grammar
(*
   [EVAL_ringNorm] Parent theory of "EVAL_numRing"
   
   [num_canonical_sum_merge_def]  Definition
      
      ⊢ num_canonical_sum_merge =
        canonical_sum_merge (semi_ring 0 1 $+ $* )
   
   [num_canonical_sum_prod_def]  Definition
      
      ⊢ num_canonical_sum_prod = canonical_sum_prod (semi_ring 0 1 $+ $* )
   
   [num_canonical_sum_scalar2_def]  Definition
      
      ⊢ num_canonical_sum_scalar2 =
        canonical_sum_scalar2 (semi_ring 0 1 $+ $* )
   
   [num_canonical_sum_scalar3_def]  Definition
      
      ⊢ num_canonical_sum_scalar3 =
        canonical_sum_scalar3 (semi_ring 0 1 $+ $* )
   
   [num_canonical_sum_scalar_def]  Definition
      
      ⊢ num_canonical_sum_scalar =
        canonical_sum_scalar (semi_ring 0 1 $+ $* )
   
   [num_canonical_sum_simplify_def]  Definition
      
      ⊢ num_canonical_sum_simplify =
        canonical_sum_simplify (semi_ring 0 1 $+ $* )
   
   [num_ics_aux_def]  Definition
      
      ⊢ num_ics_aux = ics_aux (semi_ring 0 1 $+ $* )
   
   [num_interp_cs_def]  Definition
      
      ⊢ num_interp_cs = interp_cs (semi_ring 0 1 $+ $* )
   
   [num_interp_m_def]  Definition
      
      ⊢ num_interp_m = interp_m (semi_ring 0 1 $+ $* )
   
   [num_interp_sp_def]  Definition
      
      ⊢ num_interp_sp = interp_sp (semi_ring 0 1 $+ $* )
   
   [num_interp_vl_def]  Definition
      
      ⊢ num_interp_vl = interp_vl (semi_ring 0 1 $+ $* )
   
   [num_ivl_aux_def]  Definition
      
      ⊢ num_ivl_aux = ivl_aux (semi_ring 0 1 $+ $* )
   
   [num_monom_insert_def]  Definition
      
      ⊢ num_monom_insert = monom_insert (semi_ring 0 1 $+ $* )
   
   [num_spolynom_normalize_def]  Definition
      
      ⊢ num_spolynom_normalize = spolynom_normalize (semi_ring 0 1 $+ $* )
   
   [num_spolynom_simplify_def]  Definition
      
      ⊢ num_spolynom_simplify = spolynom_simplify (semi_ring 0 1 $+ $* )
   
   [num_varlist_insert_def]  Definition
      
      ⊢ num_varlist_insert = varlist_insert (semi_ring 0 1 $+ $* )
   
   [num_rewrites]  Theorem
      
      ⊢ ((∀n. 0 + n = n) ∧ (∀n. n + 0 = n) ∧
         (∀n m. NUMERAL n + NUMERAL m = NUMERAL (numeral$iZ (n + m))) ∧
         (∀n. 0 * n = 0) ∧ (∀n. n * 0 = 0) ∧
         (∀n m. NUMERAL n * NUMERAL m = NUMERAL (n * m)) ∧
         (∀n. 0 − n = 0) ∧ (∀n. n − 0 = n) ∧
         (∀n m. NUMERAL n − NUMERAL m = NUMERAL (n − m)) ∧
         (∀n. 0 ** NUMERAL (BIT1 n) = 0) ∧
         (∀n. 0 ** NUMERAL (BIT2 n) = 0) ∧ (∀n. n ** 0 = 1) ∧
         (∀n m. NUMERAL n ** NUMERAL m = NUMERAL (n ** m)) ∧ SUC 0 = 1 ∧
         (∀n. SUC (NUMERAL n) = NUMERAL (SUC n)) ∧ PRE 0 = 0 ∧
         (∀n. PRE (NUMERAL n) = NUMERAL (PRE n)) ∧
         (∀n. NUMERAL n = 0 ⇔ n = ZERO) ∧ (∀n. 0 = NUMERAL n ⇔ n = ZERO) ∧
         (∀n m. NUMERAL n = NUMERAL m ⇔ n = m) ∧ (∀n. n < 0 ⇔ F) ∧
         (∀n. 0 < NUMERAL n ⇔ ZERO < n) ∧
         (∀n m. NUMERAL n < NUMERAL m ⇔ n < m) ∧ (∀n. 0 > n ⇔ F) ∧
         (∀n. NUMERAL n > 0 ⇔ ZERO < n) ∧
         (∀n m. NUMERAL n > NUMERAL m ⇔ m < n) ∧ (∀n. 0 ≤ n ⇔ T) ∧
         (∀n. NUMERAL n ≤ 0 ⇔ n ≤ ZERO) ∧
         (∀n m. NUMERAL n ≤ NUMERAL m ⇔ n ≤ m) ∧ (∀n. n ≥ 0 ⇔ T) ∧
         (∀n. 0 ≥ n ⇔ n = 0) ∧ (∀n m. NUMERAL n ≥ NUMERAL m ⇔ m ≤ n) ∧
         (∀n. ODD (NUMERAL n) ⇔ ODD n) ∧ (∀n. EVEN (NUMERAL n) ⇔ EVEN n) ∧
         ¬ODD 0 ∧ EVEN 0) ∧
        (∀n m.
           (ZERO = BIT1 n ⇔ F) ∧ (BIT1 n = ZERO ⇔ F) ∧
           (ZERO = BIT2 n ⇔ F) ∧ (BIT2 n = ZERO ⇔ F) ∧
           (BIT1 n = BIT2 m ⇔ F) ∧ (BIT2 n = BIT1 m ⇔ F) ∧
           (BIT1 n = BIT1 m ⇔ n = m) ∧ (BIT2 n = BIT2 m ⇔ n = m)) ∧
        (SUC ZERO = BIT1 ZERO ∧ (∀n. SUC (BIT1 n) = BIT2 n) ∧
         ∀n. SUC (BIT2 n) = BIT1 (SUC n)) ∧
        (numeral$iiSUC ZERO = BIT2 ZERO ∧
         numeral$iiSUC (BIT1 n) = BIT1 (SUC n) ∧
         numeral$iiSUC (BIT2 n) = BIT2 (SUC n)) ∧
        (∀n m.
           numeral$iZ (ZERO + n) = n ∧ numeral$iZ (n + ZERO) = n ∧
           numeral$iZ (BIT1 n + BIT1 m) = BIT2 (numeral$iZ (n + m)) ∧
           numeral$iZ (BIT1 n + BIT2 m) = BIT1 (SUC (n + m)) ∧
           numeral$iZ (BIT2 n + BIT1 m) = BIT1 (SUC (n + m)) ∧
           numeral$iZ (BIT2 n + BIT2 m) = BIT2 (SUC (n + m)) ∧
           SUC (ZERO + n) = SUC n ∧ SUC (n + ZERO) = SUC n ∧
           SUC (BIT1 n + BIT1 m) = BIT1 (SUC (n + m)) ∧
           SUC (BIT1 n + BIT2 m) = BIT2 (SUC (n + m)) ∧
           SUC (BIT2 n + BIT1 m) = BIT2 (SUC (n + m)) ∧
           SUC (BIT2 n + BIT2 m) = BIT1 (numeral$iiSUC (n + m)) ∧
           numeral$iiSUC (ZERO + n) = numeral$iiSUC n ∧
           numeral$iiSUC (n + ZERO) = numeral$iiSUC n ∧
           numeral$iiSUC (BIT1 n + BIT1 m) = BIT2 (SUC (n + m)) ∧
           numeral$iiSUC (BIT1 n + BIT2 m) = BIT1 (numeral$iiSUC (n + m)) ∧
           numeral$iiSUC (BIT2 n + BIT1 m) = BIT1 (numeral$iiSUC (n + m)) ∧
           numeral$iiSUC (BIT2 n + BIT2 m) = BIT2 (numeral$iiSUC (n + m))) ∧
        (∀n m.
           ZERO * n = ZERO ∧ n * ZERO = ZERO ∧
           BIT1 n * m = numeral$iZ (numeral$iDUB (n * m) + m) ∧
           BIT2 n * m = numeral$iDUB (numeral$iZ (n * m + m))) ∧
        (∀n. numeral$iDUB (BIT1 n) = BIT2 (numeral$iDUB n) ∧
             numeral$iDUB (BIT2 n) = BIT2 (BIT1 n) ∧
             numeral$iDUB ZERO = ZERO) ∧ (ZERO = ZERO ⇔ T) ∧ (0 = 0 ⇔ T)
   
   [num_ring_thms]  Theorem
      
      ⊢ is_semi_ring (semi_ring 0 1 $+ $* ) ∧
        (∀vm p.
           num_interp_sp vm p = num_interp_cs vm (num_spolynom_simplify p)) ∧
        (((∀vm c. num_interp_sp vm (SPconst c) = c) ∧
          (∀vm i. num_interp_sp vm (SPvar i) = varmap_find i vm) ∧
          (∀vm p1 p2.
             num_interp_sp vm (SPplus p1 p2) =
             num_interp_sp vm p1 + num_interp_sp vm p2) ∧
          ∀vm p1 p2.
            num_interp_sp vm (SPmult p1 p2) =
            num_interp_sp vm p1 * num_interp_sp vm p2) ∧
         (∀x v2 v1. varmap_find End_idx (Node_vm x v1 v2) = x) ∧
         (∀x v2 v1 i1.
            varmap_find (Right_idx i1) (Node_vm x v1 v2) =
            varmap_find i1 v2) ∧
         (∀x v2 v1 i1.
            varmap_find (Left_idx i1) (Node_vm x v1 v2) = varmap_find i1 v1) ∧
         ∀i. varmap_find i Empty_vm = @x. T) ∧
        ((∀t2 t1 l2 l1 c2 c1.
            num_canonical_sum_merge (Cons_monom c1 l1 t1)
              (Cons_monom c2 l2 t2) =
            case list_compare index_compare l1 l2 of
              LESS =>
                Cons_monom c1 l1
                  (num_canonical_sum_merge t1 (Cons_monom c2 l2 t2))
            | EQUAL =>
              Cons_monom (c1 + c2) l1 (num_canonical_sum_merge t1 t2)
            | GREATER =>
              Cons_monom c2 l2
                (num_canonical_sum_merge (Cons_monom c1 l1 t1) t2)) ∧
         (∀t2 t1 l2 l1 c1.
            num_canonical_sum_merge (Cons_monom c1 l1 t1)
              (Cons_varlist l2 t2) =
            case list_compare index_compare l1 l2 of
              LESS =>
                Cons_monom c1 l1
                  (num_canonical_sum_merge t1 (Cons_varlist l2 t2))
            | EQUAL =>
              Cons_monom (c1 + 1) l1 (num_canonical_sum_merge t1 t2)
            | GREATER =>
              Cons_varlist l2
                (num_canonical_sum_merge (Cons_monom c1 l1 t1) t2)) ∧
         (∀t2 t1 l2 l1 c2.
            num_canonical_sum_merge (Cons_varlist l1 t1)
              (Cons_monom c2 l2 t2) =
            case list_compare index_compare l1 l2 of
              LESS =>
                Cons_varlist l1
                  (num_canonical_sum_merge t1 (Cons_monom c2 l2 t2))
            | EQUAL =>
              Cons_monom (1 + c2) l1 (num_canonical_sum_merge t1 t2)
            | GREATER =>
              Cons_monom c2 l2
                (num_canonical_sum_merge (Cons_varlist l1 t1) t2)) ∧
         (∀t2 t1 l2 l1.
            num_canonical_sum_merge (Cons_varlist l1 t1)
              (Cons_varlist l2 t2) =
            case list_compare index_compare l1 l2 of
              LESS =>
                Cons_varlist l1
                  (num_canonical_sum_merge t1 (Cons_varlist l2 t2))
            | EQUAL =>
              Cons_monom (1 + 1) l1 (num_canonical_sum_merge t1 t2)
            | GREATER =>
              Cons_varlist l2
                (num_canonical_sum_merge (Cons_varlist l1 t1) t2)) ∧
         (∀s1. num_canonical_sum_merge s1 Nil_monom = s1) ∧
         (∀v6 v5 v4.
            num_canonical_sum_merge Nil_monom (Cons_monom v4 v5 v6) =
            Cons_monom v4 v5 v6) ∧
         ∀v8 v7.
           num_canonical_sum_merge Nil_monom (Cons_varlist v7 v8) =
           Cons_varlist v7 v8) ∧
        ((∀t2 l2 l1 c2 c1.
            num_monom_insert c1 l1 (Cons_monom c2 l2 t2) =
            case list_compare index_compare l1 l2 of
              LESS => Cons_monom c1 l1 (Cons_monom c2 l2 t2)
            | EQUAL => Cons_monom (c1 + c2) l1 t2
            | GREATER => Cons_monom c2 l2 (num_monom_insert c1 l1 t2)) ∧
         (∀t2 l2 l1 c1.
            num_monom_insert c1 l1 (Cons_varlist l2 t2) =
            case list_compare index_compare l1 l2 of
              LESS => Cons_monom c1 l1 (Cons_varlist l2 t2)
            | EQUAL => Cons_monom (c1 + 1) l1 t2
            | GREATER => Cons_varlist l2 (num_monom_insert c1 l1 t2)) ∧
         ∀l1 c1.
           num_monom_insert c1 l1 Nil_monom = Cons_monom c1 l1 Nil_monom) ∧
        ((∀t2 l2 l1 c2.
            num_varlist_insert l1 (Cons_monom c2 l2 t2) =
            case list_compare index_compare l1 l2 of
              LESS => Cons_varlist l1 (Cons_monom c2 l2 t2)
            | EQUAL => Cons_monom (1 + c2) l1 t2
            | GREATER => Cons_monom c2 l2 (num_varlist_insert l1 t2)) ∧
         (∀t2 l2 l1.
            num_varlist_insert l1 (Cons_varlist l2 t2) =
            case list_compare index_compare l1 l2 of
              LESS => Cons_varlist l1 (Cons_varlist l2 t2)
            | EQUAL => Cons_monom (1 + 1) l1 t2
            | GREATER => Cons_varlist l2 (num_varlist_insert l1 t2)) ∧
         ∀l1. num_varlist_insert l1 Nil_monom = Cons_varlist l1 Nil_monom) ∧
        ((∀c0 c l t.
            num_canonical_sum_scalar c0 (Cons_monom c l t) =
            Cons_monom (c0 * c) l (num_canonical_sum_scalar c0 t)) ∧
         (∀c0 l t.
            num_canonical_sum_scalar c0 (Cons_varlist l t) =
            Cons_monom c0 l (num_canonical_sum_scalar c0 t)) ∧
         ∀c0. num_canonical_sum_scalar c0 Nil_monom = Nil_monom) ∧
        ((∀l0 c l t.
            num_canonical_sum_scalar2 l0 (Cons_monom c l t) =
            num_monom_insert c (list_merge index_lt l0 l)
              (num_canonical_sum_scalar2 l0 t)) ∧
         (∀l0 l t.
            num_canonical_sum_scalar2 l0 (Cons_varlist l t) =
            num_varlist_insert (list_merge index_lt l0 l)
              (num_canonical_sum_scalar2 l0 t)) ∧
         ∀l0. num_canonical_sum_scalar2 l0 Nil_monom = Nil_monom) ∧
        ((∀c0 l0 c l t.
            num_canonical_sum_scalar3 c0 l0 (Cons_monom c l t) =
            num_monom_insert (c0 * c) (list_merge index_lt l0 l)
              (num_canonical_sum_scalar3 c0 l0 t)) ∧
         (∀c0 l0 l t.
            num_canonical_sum_scalar3 c0 l0 (Cons_varlist l t) =
            num_monom_insert c0 (list_merge index_lt l0 l)
              (num_canonical_sum_scalar3 c0 l0 t)) ∧
         ∀c0 l0. num_canonical_sum_scalar3 c0 l0 Nil_monom = Nil_monom) ∧
        ((∀c1 l1 t1 s2.
            num_canonical_sum_prod (Cons_monom c1 l1 t1) s2 =
            num_canonical_sum_merge (num_canonical_sum_scalar3 c1 l1 s2)
              (num_canonical_sum_prod t1 s2)) ∧
         (∀l1 t1 s2.
            num_canonical_sum_prod (Cons_varlist l1 t1) s2 =
            num_canonical_sum_merge (num_canonical_sum_scalar2 l1 s2)
              (num_canonical_sum_prod t1 s2)) ∧
         ∀s2. num_canonical_sum_prod Nil_monom s2 = Nil_monom) ∧
        ((∀c l t.
            num_canonical_sum_simplify (Cons_monom c l t) =
            if c = 0 then num_canonical_sum_simplify t
            else if c = 1 then
              Cons_varlist l (num_canonical_sum_simplify t)
            else Cons_monom c l (num_canonical_sum_simplify t)) ∧
         (∀l t.
            num_canonical_sum_simplify (Cons_varlist l t) =
            Cons_varlist l (num_canonical_sum_simplify t)) ∧
         num_canonical_sum_simplify Nil_monom = Nil_monom) ∧
        ((∀vm x. num_ivl_aux vm x [] = varmap_find x vm) ∧
         ∀vm x x' t'.
           num_ivl_aux vm x (x'::t') =
           varmap_find x vm * num_ivl_aux vm x' t') ∧
        ((∀vm. num_interp_vl vm [] = 1) ∧
         ∀vm x t. num_interp_vl vm (x::t) = num_ivl_aux vm x t) ∧
        ((∀vm c. num_interp_m vm c [] = c) ∧
         ∀vm c x t. num_interp_m vm c (x::t) = c * num_ivl_aux vm x t) ∧
        ((∀vm a. num_ics_aux vm a Nil_monom = a) ∧
         (∀vm a l t.
            num_ics_aux vm a (Cons_varlist l t) =
            a + num_ics_aux vm (num_interp_vl vm l) t) ∧
         ∀vm a c l t.
           num_ics_aux vm a (Cons_monom c l t) =
           a + num_ics_aux vm (num_interp_m vm c l) t) ∧
        ((∀vm. num_interp_cs vm Nil_monom = 0) ∧
         (∀vm l t.
            num_interp_cs vm (Cons_varlist l t) =
            num_ics_aux vm (num_interp_vl vm l) t) ∧
         ∀vm c l t.
           num_interp_cs vm (Cons_monom c l t) =
           num_ics_aux vm (num_interp_m vm c l) t) ∧
        ((∀i. num_spolynom_normalize (SPvar i) = Cons_varlist [i] Nil_monom) ∧
         (∀c. num_spolynom_normalize (SPconst c) =
              Cons_monom c [] Nil_monom) ∧
         (∀l r.
            num_spolynom_normalize (SPplus l r) =
            num_canonical_sum_merge (num_spolynom_normalize l)
              (num_spolynom_normalize r)) ∧
         ∀l r.
           num_spolynom_normalize (SPmult l r) =
           num_canonical_sum_prod (num_spolynom_normalize l)
             (num_spolynom_normalize r)) ∧
        ∀x. num_spolynom_simplify x =
            num_canonical_sum_simplify (num_spolynom_normalize x)
   
   [num_semi_ring]  Theorem
      
      ⊢ is_semi_ring (semi_ring 0 1 $+ $* )
   
   
*)
end


Source File Identifier index Theory binding index

HOL 4, Trindemossen-1