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• Faig-constructors

F-aig-zif

(f-aig-zif c a b) constructs an FAIG representing a kind of pass gate style mux.

Signature

(f-aig-zif c a b) → *

This mainly exists to support 4v-zif in sexpr-to-faig conversion.

Definitions and Theorems

Function: f-aig-zif

(defun f-aig-zif (c a b)
  (declare (xargs :guard t))
  (let ((__function__ 'f-aig-zif))
    (declare (ignorable __function__))
    (b* ((c (f-aig-unfloat c)))
      (t-aig-ite* c a b))))

Theorem: faig-eval-of-f-aig-zif

(defthm faig-eval-of-f-aig-zif
  (equal (faig-eval (f-aig-zif c a b) env)
         (f-aig-zif (faig-eval c env)
                    (faig-eval a env)
                    (faig-eval b env))))

Theorem: faig-fix-equiv-implies-equal-f-aig-zif-1

(defthm faig-fix-equiv-implies-equal-f-aig-zif-1
  (implies (faig-fix-equiv c c-equiv)
           (equal (f-aig-zif c a b)
                  (f-aig-zif c-equiv a b)))
  :rule-classes (:congruence))

Theorem: faig-fix-equiv-implies-equal-f-aig-zif-2

(defthm faig-fix-equiv-implies-equal-f-aig-zif-2
  (implies (faig-fix-equiv a a-equiv)
           (equal (f-aig-zif c a b)
                  (f-aig-zif c a-equiv b)))
  :rule-classes (:congruence))

Theorem: faig-fix-equiv-implies-equal-f-aig-zif-3

(defthm faig-fix-equiv-implies-equal-f-aig-zif-3
  (implies (faig-fix-equiv b b-equiv)
           (equal (f-aig-zif c a b)
                  (f-aig-zif c a b-equiv)))
  :rule-classes (:congruence))

Theorem: faig-equiv-implies-faig-equiv-f-aig-zif-3

(defthm faig-equiv-implies-faig-equiv-f-aig-zif-3
  (implies (faig-equiv b b-equiv)
           (faig-equiv (f-aig-zif c a b)
                       (f-aig-zif c a b-equiv)))
  :rule-classes (:congruence))

Theorem: faig-equiv-implies-faig-equiv-f-aig-zif-2

(defthm faig-equiv-implies-faig-equiv-f-aig-zif-2
  (implies (faig-equiv a a-equiv)
           (faig-equiv (f-aig-zif c a b)
                       (f-aig-zif c a-equiv b)))
  :rule-classes (:congruence))

Theorem: faig-equiv-implies-faig-equiv-f-aig-zif-1

(defthm faig-equiv-implies-faig-equiv-f-aig-zif-1
  (implies (faig-equiv c c-equiv)
           (faig-equiv (f-aig-zif c a b)
                       (f-aig-zif c-equiv a b)))
  :rule-classes (:congruence))