simplify proof script, %type in notations

theories/kernel.v

@@ -74,7 +74,7 @@ HB.mixin Record isKernel d d' (X : measurableType d) (Y : measurableType d')
 HB.structure Definition Kernel d d'
     (X : measurableType d) (Y : measurableType d') (R : realType) :=
   { k & isKernel _ _ X Y R k }.
-Notation "R .-ker X ~> Y" := (kernel X Y R).
+Notation "R .-ker X ~> Y" := (kernel X%type Y R).
 
 Arguments measurable_kernel {_ _ _ _ _} _.
 
@@ -177,7 +177,7 @@ HB.structure Definition SFiniteKernel d d'
     (X : measurableType d) (Y : measurableType d') (R : realType) :=
   { k of @Kernel _ _ _ _ R k &
          Kernel_isSFinite_subdef _ _ X Y R k }.
-Notation "R .-sfker X ~> Y" := (SFiniteKernel.type X Y R).
+Notation "R .-sfker X ~> Y" := (SFiniteKernel.type X%type Y R).
 Arguments sfinite_kernel_subdef {_ _ _ _ _} _.
 
 Lemma eq_sfkernel d d' (T : measurableType d) (T' : measurableType d')
@@ -200,7 +200,7 @@ HB.structure Definition FiniteKernel d d'
     (X : measurableType d) (Y : measurableType d') (R : realType) :=
   { k of @SFiniteKernel _ _ _ _ _ k &
          SFiniteKernel_isFinite _ _ X Y R k }.
-Notation "R .-fker X ~> Y" := (finite_kernel X Y R).
+Notation "R .-fker X ~> Y" := (finite_kernel X%type Y R).
 Arguments measure_uub {_ _ _ _ _} _.
 
 HB.factory Record Kernel_isFinite d d'
@@ -356,7 +356,7 @@ HB.structure Definition SubProbabilityKernel
     d d' (X : measurableType d) (Y : measurableType d') (R : realType) :=
   { k of @FiniteKernel _ _ _ _ _ k &
          FiniteKernel_isSubProbability _ _ X Y R k }.
-Notation "R .-spker X ~> Y" := (sprobability_kernel X Y R).
+Notation "R .-spker X ~> Y" := (sprobability_kernel X%type Y R).
 
 HB.factory Record Kernel_isSubProbability d d'
     (X : measurableType d) (Y : measurableType d') (R : realType)
@@ -389,7 +389,7 @@ HB.structure Definition ProbabilityKernel d d'
     (X : measurableType d) (Y : measurableType d') (R : realType) :=
   { k of @SubProbabilityKernel _ _ _ _ _ k &
          SubProbability_isProbability _ _ X Y R k }.
-Notation "R .-pker X ~> Y" := (probability_kernel X Y R).
+Notation "R .-pker X ~> Y" := (probability_kernel X%type Y R).
 
 HB.factory Record Kernel_isProbability d d'
     (X : measurableType d) (Y : measurableType d') (R : realType)
@@ -507,7 +507,7 @@ Variable k : X * Y -> \bar R.
 
 Lemma measurable_fun_xsection_integral
     (l : X -> {measure set Y -> \bar R})
-    (k_ : ({nnsfun [the measurableType _ of (X * Y)%type] >-> R})^nat)
+    (k_ : ({nnsfun [the measurableType _ of X * Y] >-> R})^nat)
     (ndk_ : nondecreasing_seq (k_ : (X * Y -> R)^nat))
     (k_k : forall z, EFin \o (k_ ^~ z) --> k z) :
   (forall n r,
@@ -847,7 +847,7 @@ Section kcomp_is_measure.
 Context d1 d2 d3 (X : measurableType d1) (Y : measurableType d2)
  (Z : measurableType d3) (R : realType).
 Variable l : R.-ker X ~> Y.
-Variable k : R.-ker [the measurableType _ of (X * Y)%type] ~> Z.
+Variable k : R.-ker [the measurableType _ of X * Y] ~> Z.
 
 Local Notation "l \; k" := (kcomp l k).
 
@@ -885,7 +885,7 @@ Module KCOMP_FINITE_KERNEL.
 Section kcomp_finite_kernel_kernel.
 Context d d' d3 (X : measurableType d) (Y : measurableType d')
   (Z : measurableType d3) (R : realType) (l : R.-fker X ~> Y)
-  (k : R.-ker [the measurableType _ of (X * Y)%type] ~> Z).
+  (k : R.-ker [the measurableType _ of X * Y] ~> Z).
 
 Lemma measurable_fun_kcomp_finite U :
   measurable U -> measurable_fun [set: X] ((l \; k) ^~ U).
@@ -903,7 +903,7 @@ Section kcomp_finite_kernel_finite.
 Context d d' d3 (X : measurableType d) (Y : measurableType d')
   (Z : measurableType d3) (R : realType).
 Variable l : R.-fker X ~> Y.
-Variable k : R.-fker [the measurableType _ of (X * Y)%type] ~> Z.
+Variable k : R.-fker [the measurableType _ of X * Y] ~> Z.
 
 Let mkcomp_finite : measure_fam_uub (l \; k).
 Proof.
@@ -927,7 +927,7 @@ Section kcomp_sfinite_kernel.
 Context d d' d3 (X : measurableType d) (Y : measurableType d')
   (Z : measurableType d3) (R : realType).
 Variable l : R.-sfker X ~> Y.
-Variable k : R.-sfker [the measurableType _ of (X * Y)%type] ~> Z.
+Variable k : R.-sfker [the measurableType _ of X * Y] ~> Z.
 
 Import KCOMP_FINITE_KERNEL.
 
@@ -973,7 +973,7 @@ Section kcomp_sfinite_kernel.
 Context d d' d3 (X : measurableType d) (Y : measurableType d')
   (Z : measurableType d3) (R : realType).
 Variable l : R.-sfker X ~> Y.
-Variable k : R.-sfker [the measurableType _ of (X * Y)%type] ~> Z.
+Variable k : R.-sfker [the measurableType _ of X * Y] ~> Z.
 
 HB.instance Definition _ :=
   isKernel.Build _ _ X Z R (l \; k) (measurable_fun_mkcomp_sfinite l k).
@@ -1047,7 +1047,7 @@ Section integral_kcomp.
 Context d d2 d3 (X : measurableType d) (Y : measurableType d2)
   (Z : measurableType d3) (R : realType).
 Variables (l : R.-sfker X ~> Y)
-          (k : R.-sfker [the measurableType _ of (X * Y)%type] ~> Z).
+          (k : R.-sfker [the measurableType _ of X * Y] ~> Z).
 
 Let integral_kcomp_indic x E (mE : measurable E) :
   \int[(l \; k) x]_z (\1_E z)%:E = \int[l x]_y (\int[k (x, y)]_z (\1_E z)%:E).

theories/lebesgue_integral.v

@@ -104,7 +104,7 @@ Reserved Notation "{ 'nnsfun' aT >-> T }"
   (at level 0, format "{ 'nnsfun'  aT  >->  T }").
 Reserved Notation "[ 'nnsfun' 'of' f ]"
   (at level 0, format "[ 'nnsfun'  'of'  f ]").
-Notation "{ 'nnsfun' aT >-> T }" := (@NonNegSimpleFun.type _ aT T) : form_scope.
+Notation "{ 'nnsfun' aT >-> T }" := (@NonNegSimpleFun.type _ aT%type T) : form_scope.
 Notation "[ 'nnsfun' 'of' f ]" := [the {nnsfun _ >-> _} of f] : form_scope.
 
 Section mfun_pred.
@@ -4658,7 +4658,7 @@ Variable m1 : {sigma_finite_measure set T1 -> \bar R}.
 Variable m2 : {sigma_finite_measure set T2 -> \bar R}.
 
 Lemma product_measure_unique
-    (m' : {measure set [the semiRingOfSetsType _ of (T1 * T2)%type] -> \bar R}) :
+    (m' : {measure set [the semiRingOfSetsType _ of T1 * T2] -> \bar R}) :
     (forall A1 A2, measurable A1 -> measurable A2 ->
       m' (A1 `*` A2) = m1 A1 * m2 A2) ->
   forall X : set (T1 * T2), measurable X -> (m1 \x m2) X = m' X.

theories/measure.v

@@ -1135,13 +1135,13 @@ Lemma measurable_fun_if (g h : T1 -> T2) D (mD : measurable D)
   measurable_fun D (fun t => if f t then g t else h t).
 Proof.
 move=> mx my /= _ B mB; rewrite (_ : _ @^-1` B =
-  ((f @^-1` [set true]) `&` (g @^-1` B) `&` (f @^-1` [set true])) `|`
-  ((f @^-1` [set false]) `&` (h @^-1` B) `&` (f @^-1` [set false]))).
+    ((f @^-1` [set true]) `&` (g @^-1` B)) `|`
+    ((f @^-1` [set false]) `&` (h @^-1` B))).
   rewrite setIUr; apply: measurableU.
-  - by rewrite setIAC setIid setIA; apply: mx => //; exact: mf.
-  - by rewrite setIAC setIid setIA; apply: my => //; exact: mf.
-apply/seteqP; split=> [t /=| t]; first by case: ifPn => ft; [left|right].
-by move=> /= [|]; case: ifPn => ft; case=> -[].
+  - by rewrite setIA; apply: mx => //; exact: mf.
+  - by rewrite setIA; apply: my => //; exact: mf.
+apply/seteqP; split=> [t /=| t /= [] [] ->//].
+by case: ifPn => ft; [left|right].
 Qed.
 
 Lemma measurable_fun_ifT (g h : T1 -> T2) (f : T1 -> bool)
@@ -1560,7 +1560,7 @@ HB.structure Definition Measure d (T : semiRingOfSetsType d)
     (R : numFieldType) :=
   {mu of Content_isMeasure d T R mu & Content d mu}.
 
-Notation "{ 'measure' 'set' T '->' '\bar' R }" := (measure T R)
+Notation "{ 'measure' 'set' T '->' '\bar' R }" := (measure T%type R)
   (at level 36, T, R at next level,
     format "{ 'measure'  'set'  T  '->'  '\bar'  R }") : ring_scope.