Nuprl Lemma : flattice-equiv-equiv

∀[X:Type]. EquivRel(Point(free-dl(X + X));x,y.flattice-equiv(X;x;y))


Proof




Definitions occuring in Statement :  flattice-equiv: flattice-equiv(X;x;y),  free-dl: free-dl(X),  lattice-point: Point(l),  equiv_rel: EquivRel(T;x,y.E[x; y]),  uall: ∀[x:A]. B[x],  union: left + right,  universe: Type
Definitions unfolded in proof :  uall: ∀[x:A]. B[x],  lattice-point: Point(l),  record-select: r.x,  free-dl: free-dl(X),  mk-bounded-distributive-lattice: mk-bounded-distributive-lattice,  mk-bounded-lattice: mk-bounded-lattice(T;m;j;z;o),  record-update: r[x := v],  ifthenelse: if b then t else f fi ,  eq_atom: x =a y,  bfalse: ff,  btrue: tt,  free-dl-type: free-dl-type(X),  quotient: x,y:A//B[x; y],  member: t ∈ T,  so_lambda: λ2x y.t[x; y],  so_apply: x[s1;s2],  uimplies: b supposing a,  equiv_rel: EquivRel(T;x,y.E[x; y]),  and: P ∧ Q,  refl: Refl(T;x,y.E[x; y]),  all: ∀x:A. B[x],  subtype_rel: A ⊆r B,  bdd-distributive-lattice: BoundedDistributiveLattice,  so_lambda: λ2x.t[x],  prop: ℙ,  so_apply: x[s],  cand: A c∧ B,  sym: Sym(T;x,y.E[x; y]),  implies: P ⇒ Q,  flattice-equiv: flattice-equiv(X;x;y),  squash: ↓T,  trans: Trans(T;x,y.E[x; y]),  guard: {T},  exists: ∃x:A. B[x],  flattice-order: flattice-order(X;as;bs),  l_all: (∀x∈L.P[x]),  or: P ∨ Q,  int_seg: {i..j-},  lelt: i ≤ j < k,  decidable: Dec(P),  satisfiable_int_formula: satisfiable_int_formula(fmla),  false: False,  not: ¬A,  top: Top,  less_than: a < b,  l_exists: (∃x∈L. P[x]),  dlattice-eq: dlattice-eq(X;as;bs),  dlattice-order: as ⇒ bs
Lemmas referenced :  subtype_quotient,  list_wf,  dlattice-eq_wf,  dlattice-eq-equiv,  lattice-point_wf,  free-dl_wf,  subtype_rel_set,  bounded-lattice-structure_wf,  lattice-structure_wf,  lattice-axioms_wf,  bounded-lattice-structure-subtype,  bounded-lattice-axioms_wf,  uall_wf,  equal_wf,  lattice-meet_wf,  lattice-join_wf,  flattice-equiv_wf,  equal-wf-base,  member_wf,  flattice-order_wf,  exists_wf,  l_exists_wf,  select_wf,  int_seg_properties,  length_wf,  decidable__le,  satisfiable-full-omega-tt,  intformand_wf,  intformnot_wf,  intformle_wf,  itermConstant_wf,  itermVar_wf,  int_formula_prop_and_lemma,  int_formula_prop_not_lemma,  int_formula_prop_le_lemma,  int_term_value_constant_lemma,  int_term_value_var_lemma,  int_formula_prop_wf,  decidable__lt,  intformless_wf,  int_formula_prop_less_lemma,  l_member_wf,  flip-union_wf,  int_seg_wf,  l_contains_weakening,  l_contains_wf,  flattice-order_transitivity
Rules used in proof :  sqequalSubstitution,  sqequalTransitivity,  computationStep,  sqequalReflexivity,  isect_memberFormation,  cut,  sqequalRule,  introduction,  extract_by_obid,  sqequalHypSubstitution,  isectElimination,  thin,  unionEquality,  cumulativity,  hypothesisEquality,  hypothesis,  lambdaEquality,  independent_isectElimination,  independent_pairFormation,  lambdaFormation,  because_Cache,  applyEquality,  instantiate,  productEquality,  universeEquality,  imageElimination,  imageMemberEquality,  baseClosed,  pointwiseFunctionalityForEquality,  pertypeElimination,  productElimination,  equalityTransitivity,  equalitySymmetry,  dependent_pairFormation,  inrFormation,  setElimination,  rename,  natural_numberEquality,  dependent_functionElimination,  unionElimination,  int_eqEquality,  intEquality,  isect_memberEquality,  voidElimination,  voidEquality,  computeAll,  setEquality,  independent_functionElimination

Latex:
\mforall{}[X:Type].  EquivRel(Point(free-dl(X  +  X));x,y.flattice-equiv(X;x;y))



Date html generated: 2020_05_20-AM-08_59_49
Last ObjectModification: 2017_07_28-AM-09_18_26

Theory : lattices


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