Nuprl Lemma : translation-group-point

∀rv:InnerProductSpace. ∀e:Point. ∀T:ℝ ⟶ Point ⟶ Point.
  (translation-group-fun(rv;e;T)
  ⇒ Point ≡ {fg:Point ⟶ Point × (Point ⟶ Point)| 
              ∃t:ℝ. ((∀x:Point. (fst(fg)) x ≡ T t x) ∧ (∀x:Point. (snd(fg)) x ≡ T -(t) x))} )


Proof




Definitions occuring in Statement :  translation-group: translation-group(rv;e;T),  translation-group-fun: translation-group-fun(rv;e;T),  inner-product-space: InnerProductSpace,  rminus: -(x),  real: ℝ,  ss-eq: x ≡ y,  ss-point: Point,  ext-eq: A ≡ B,  pi1: fst(t),  pi2: snd(t),  all: ∀x:A. B[x],  exists: ∃x:A. B[x],  implies: P ⇒ Q,  and: P ∧ Q,  set: {x:A| B[x]} ,  apply: f a,  function: x:A ⟶ B[x],  product: x:A × B[x]
Definitions unfolded in proof :  all: ∀x:A. B[x],  implies: P ⇒ Q,  ss-point: Point,  translation-group: translation-group(rv;e;T),  mk-s-subgroup: mk-s-subgroup(sg;x.P[x]),  mk-s-group: mk-s-group(ss; e; i; o; sep; invsep),  member: t ∈ T,  top: Top,  eq_atom: x =a y,  ifthenelse: if b then t else f fi ,  bfalse: ff,  set-ss: set-ss(ss;x.P[x]),  mk-ss: mk-ss,  btrue: tt,  uall: ∀[x:A]. B[x],  ext-eq: A ≡ B,  and: P ∧ Q,  subtype_rel: A ⊆r B,  pi1: fst(t),  pi2: snd(t),  exists: ∃x:A. B[x],  cand: A c∧ B,  prop: ℙ,  so_lambda: λ2x.t[x],  so_apply: x[s],  guard: {T},  uimplies: b supposing a,  trans-apply: T_t(x),  uiff: uiff(P;Q),  rev_uimplies: rev_uimplies(P;Q),  iff: P ⇐⇒ Q,  translation-group-fun: translation-group-fun(rv;e;T),  or: P ∨ Q,  false: False
Lemmas referenced :  rec_select_update_lemma,  rv-perm-point,  all_wf,  ss-eq_wf,  real_wf,  rminus_wf,  exists_wf,  ss-point_wf,  real-vector-space_subtype1,  inner-product-space_subtype,  subtype_rel_transitivity,  inner-product-space_wf,  real-vector-space_wf,  separation-space_wf,  ss-sep_wf,  translation-group-fun_wf,  trans-apply_wf,  ss-eq_weakening,  ss-eq_functionality,  trans-apply_functionality,  req_weakening,  radd_wf,  int-to-real_wf,  radd-rminus-both,  ss-eq_inversion,  trans-apply-add,  trans-apply-0,  radd-rminus,  ss-eq_transitivity,  ss-sep_functionality,  rneq_irreflexivity
Rules used in proof :  sqequalSubstitution,  sqequalTransitivity,  computationStep,  sqequalReflexivity,  lambdaFormation,  sqequalRule,  cut,  introduction,  extract_by_obid,  sqequalHypSubstitution,  dependent_functionElimination,  thin,  isect_memberEquality,  voidElimination,  voidEquality,  hypothesis,  isectElimination,  independent_pairFormation,  lambdaEquality,  setElimination,  rename,  productElimination,  dependent_set_memberEquality,  independent_pairEquality,  hypothesisEquality,  dependent_pairFormation,  because_Cache,  productEquality,  applyEquality,  functionExtensionality,  setEquality,  functionEquality,  instantiate,  independent_isectElimination,  independent_functionElimination,  natural_numberEquality,  addLevel,  allFunctionality,  impliesFunctionality,  levelHypothesis,  andLevelFunctionality,  allLevelFunctionality,  unionElimination

Latex:
\mforall{}rv:InnerProductSpace.  \mforall{}e:Point.  \mforall{}T:\mBbbR{}  {}\mrightarrow{}  Point  {}\mrightarrow{}  Point.
    (translation-group-fun(rv;e;T)
    {}\mRightarrow{}  Point  \mequiv{}  \{fg:Point  {}\mrightarrow{}  Point  \mtimes{}  (Point  {}\mrightarrow{}  Point)| 
                            \mexists{}t:\mBbbR{}.  ((\mforall{}x:Point.  (fst(fg))  x  \mequiv{}  T  t  x)  \mwedge{}  (\mforall{}x:Point.  (snd(fg))  x  \mequiv{}  T  -(t)  x))\}  )



Date html generated: 2017_10_05-AM-00_22_19
Last ObjectModification: 2017_06_26-AM-10_19_53

Theory : inner!product!spaces


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