feat: Collect holes in Lean file and put them into a GoalState
#99
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@ -11,19 +11,19 @@ def congruenceArg (mvarId: MVarId): MetaM (List MVarId) := mvarId.withContext do
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let userName := (← mvarId.getDecl).userName
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let userName := (← mvarId.getDecl).userName
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let u ← Meta.mkFreshLevelMVar
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let u ← Meta.mkFreshLevelMVar
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let α ← Meta.mkFreshExprMVar (.some $ mkSort u)
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let α ← Meta.mkFreshExprSyntheticOpaqueMVar (mkSort u)
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.natural (userName := userName ++ `α)
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(tag := userName ++ `α)
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let f ← Meta.mkFreshExprMVar (.some <| .forallE .anonymous α β .default)
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let f ← Meta.mkFreshExprSyntheticOpaqueMVar (.forallE .anonymous α β .default)
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.synthetic (userName := userName ++ `f)
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(tag := userName ++ `f)
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let a₁ ← Meta.mkFreshExprMVar (.some α)
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let a₁ ← Meta.mkFreshExprSyntheticOpaqueMVar α
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.synthetic (userName := userName ++ `a₁)
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(tag := userName ++ `a₁)
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let a₂ ← Meta.mkFreshExprMVar (.some α)
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let a₂ ← Meta.mkFreshExprSyntheticOpaqueMVar α
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.synthetic (userName := userName ++ `a₂)
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(tag := userName ++ `a₂)
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let h ← Meta.mkFreshExprMVar (.some $ ← Meta.mkEq a₁ a₂)
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let h ← Meta.mkFreshExprSyntheticOpaqueMVar (← Meta.mkEq a₁ a₂)
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.synthetic (userName := userName ++ `h)
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(tag := userName ++ `h)
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let conduitType ← Meta.mkEq (← Meta.mkEq (.app f a₁) (.app f a₂)) target
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let conduitType ← Meta.mkEq (← Meta.mkEq (.app f a₁) (.app f a₂)) target
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let conduit ← Meta.mkFreshExprMVar conduitType
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let conduit ← Meta.mkFreshExprSyntheticOpaqueMVar conduitType
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.synthetic (userName := userName ++ `conduit)
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(tag := userName ++ `conduit)
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mvarId.assign $ ← Meta.mkEqMP conduit (← Meta.mkCongrArg f h)
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mvarId.assign $ ← Meta.mkEqMP conduit (← Meta.mkCongrArg f h)
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let result := [α, a₁, a₂, f, h, conduit]
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let result := [α, a₁, a₂, f, h, conduit]
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return result.map (·.mvarId!)
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return result.map (·.mvarId!)
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@ -39,20 +39,20 @@ def congruenceFun (mvarId: MVarId): MetaM (List MVarId) := mvarId.withContext do
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let .some (β, _, _) := (← instantiateMVars target).eq? | throwError "Goal is not an Eq"
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let .some (β, _, _) := (← instantiateMVars target).eq? | throwError "Goal is not an Eq"
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let userName := (← mvarId.getDecl).userName
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let userName := (← mvarId.getDecl).userName
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let u ← Meta.mkFreshLevelMVar
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let u ← Meta.mkFreshLevelMVar
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let α ← Meta.mkFreshExprMVar (.some $ mkSort u)
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let α ← Meta.mkFreshExprSyntheticOpaqueMVar (mkSort u)
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.natural (userName := userName ++ `α)
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(tag := userName ++ `α)
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let fType := .forallE .anonymous α β .default
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let fType := .forallE .anonymous α β .default
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let f₁ ← Meta.mkFreshExprMVar (.some fType)
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let f₁ ← Meta.mkFreshExprSyntheticOpaqueMVar fType
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.synthetic (userName := userName ++ `f₁)
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(tag := userName ++ `f₁)
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let f₂ ← Meta.mkFreshExprMVar (.some fType)
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let f₂ ← Meta.mkFreshExprSyntheticOpaqueMVar fType
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.synthetic (userName := userName ++ `f₂)
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(tag := userName ++ `f₂)
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let a ← Meta.mkFreshExprMVar (.some α)
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let a ← Meta.mkFreshExprSyntheticOpaqueMVar α
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.synthetic (userName := userName ++ `a)
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(tag := userName ++ `a)
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let h ← Meta.mkFreshExprMVar (.some $ ← Meta.mkEq f₁ f₂)
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let h ← Meta.mkFreshExprSyntheticOpaqueMVar (← Meta.mkEq f₁ f₂)
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.synthetic (userName := userName ++ `h)
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(tag := userName ++ `h)
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let conduitType ← Meta.mkEq (← Meta.mkEq (.app f₁ a) (.app f₂ a)) target
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let conduitType ← Meta.mkEq (← Meta.mkEq (.app f₁ a) (.app f₂ a)) target
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let conduit ← Meta.mkFreshExprMVar conduitType
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let conduit ← Meta.mkFreshExprSyntheticOpaqueMVar conduitType
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.synthetic (userName := userName ++ `conduit)
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(tag := userName ++ `conduit)
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mvarId.assign $ ← Meta.mkEqMP conduit (← Meta.mkCongrFun h a)
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mvarId.assign $ ← Meta.mkEqMP conduit (← Meta.mkCongrFun h a)
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let result := [α, f₁, f₂, h, a, conduit]
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let result := [α, f₁, f₂, h, a, conduit]
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return result.map (·.mvarId!)
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return result.map (·.mvarId!)
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@ -68,24 +68,24 @@ def congruence (mvarId: MVarId): MetaM (List MVarId) := mvarId.withContext do
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let .some (β, _, _) := (← instantiateMVars target).eq? | throwError "Goal is not an Eq"
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let .some (β, _, _) := (← instantiateMVars target).eq? | throwError "Goal is not an Eq"
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let userName := (← mvarId.getDecl).userName
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let userName := (← mvarId.getDecl).userName
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let u ← Meta.mkFreshLevelMVar
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let u ← Meta.mkFreshLevelMVar
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let α ← Meta.mkFreshExprMVar (.some $ mkSort u)
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let α ← Meta.mkFreshExprSyntheticOpaqueMVar (mkSort u)
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.natural (userName := userName ++ `α)
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(tag := userName ++ `α)
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let fType := .forallE .anonymous α β .default
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let fType := .forallE .anonymous α β .default
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let f₁ ← Meta.mkFreshExprMVar (.some fType)
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let f₁ ← Meta.mkFreshExprSyntheticOpaqueMVar fType
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.synthetic (userName := userName ++ `f₁)
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(tag := userName ++ `f₁)
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let f₂ ← Meta.mkFreshExprMVar (.some fType)
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let f₂ ← Meta.mkFreshExprSyntheticOpaqueMVar fType
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.synthetic (userName := userName ++ `f₂)
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(tag := userName ++ `f₂)
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let a₁ ← Meta.mkFreshExprMVar (.some α)
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let a₁ ← Meta.mkFreshExprSyntheticOpaqueMVar α
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.synthetic (userName := userName ++ `a₁)
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(tag := userName ++ `a₁)
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let a₂ ← Meta.mkFreshExprMVar (.some α)
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let a₂ ← Meta.mkFreshExprSyntheticOpaqueMVar α
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.synthetic (userName := userName ++ `a₂)
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(tag := userName ++ `a₂)
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let h₁ ← Meta.mkFreshExprMVar (.some $ ← Meta.mkEq f₁ f₂)
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let h₁ ← Meta.mkFreshExprSyntheticOpaqueMVar (← Meta.mkEq f₁ f₂)
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.synthetic (userName := userName ++ `h₁)
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(tag := userName ++ `h₁)
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let h₂ ← Meta.mkFreshExprMVar (.some $ ← Meta.mkEq a₁ a₂)
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let h₂ ← Meta.mkFreshExprSyntheticOpaqueMVar (← Meta.mkEq a₁ a₂)
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.synthetic (userName := userName ++ `h₂)
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(tag := userName ++ `h₂)
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let conduitType ← Meta.mkEq (← Meta.mkEq (.app f₁ a₁) (.app f₂ a₂)) target
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let conduitType ← Meta.mkEq (← Meta.mkEq (.app f₁ a₁) (.app f₂ a₂)) target
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let conduit ← Meta.mkFreshExprMVar conduitType
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let conduit ← Meta.mkFreshExprSyntheticOpaqueMVar conduitType
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.synthetic (userName := userName ++ `conduit)
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(tag := userName ++ `conduit)
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mvarId.assign $ ← Meta.mkEqMP conduit (← Meta.mkCongr h₁ h₂)
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mvarId.assign $ ← Meta.mkEqMP conduit (← Meta.mkCongr h₁ h₂)
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let result := [α, f₁, f₂, a₁, a₂, h₁, h₂, conduit]
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let result := [α, f₁, f₂, a₁, a₂, h₁, h₂, conduit]
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return result.map (·.mvarId!)
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return result.map (·.mvarId!)
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@ -66,6 +66,7 @@ def motivatedApply (mvarId: MVarId) (recursor: Expr) : MetaM (Array Meta.Inducti
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mvarId.checkNotAssigned `Pantograph.Tactic.motivatedApply
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mvarId.checkNotAssigned `Pantograph.Tactic.motivatedApply
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let recursorType ← Meta.inferType recursor
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let recursorType ← Meta.inferType recursor
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let resultant ← mvarId.getType
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let resultant ← mvarId.getType
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let tag ← mvarId.getTag
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let info ← match getRecursorInformation recursorType with
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let info ← match getRecursorInformation recursorType with
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| .some info => pure info
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| .some info => pure info
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@ -81,9 +82,9 @@ def motivatedApply (mvarId: MVarId) (recursor: Expr) : MetaM (Array Meta.Inducti
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let bvarIndex := info.nArgs - i - 1
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let bvarIndex := info.nArgs - i - 1
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let argGoal ← if bvarIndex = info.iMotive then
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let argGoal ← if bvarIndex = info.iMotive then
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let surrogateMotiveType ← info.surrogateMotiveType prev resultant
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let surrogateMotiveType ← info.surrogateMotiveType prev resultant
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Meta.mkFreshExprMVar surrogateMotiveType .syntheticOpaque (userName := `motive)
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Meta.mkFreshExprSyntheticOpaqueMVar surrogateMotiveType (tag := tag ++ `motive)
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else
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else
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Meta.mkFreshExprMVar argType .syntheticOpaque (userName := .anonymous)
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Meta.mkFreshExprSyntheticOpaqueMVar argType (tag := .anonymous)
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let prev := prev ++ [argGoal]
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let prev := prev ++ [argGoal]
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go (i + 1) prev
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go (i + 1) prev
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termination_by info.nArgs - i
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termination_by info.nArgs - i
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@ -91,7 +92,7 @@ def motivatedApply (mvarId: MVarId) (recursor: Expr) : MetaM (Array Meta.Inducti
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-- Create the conduit type which proves the result of the motive is equal to the goal
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-- Create the conduit type which proves the result of the motive is equal to the goal
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let conduitType ← info.conduitType newMVars resultant
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let conduitType ← info.conduitType newMVars resultant
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let goalConduit ← Meta.mkFreshExprMVar conduitType .natural (userName := `conduit)
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let goalConduit ← Meta.mkFreshExprSyntheticOpaqueMVar conduitType (tag := `conduit)
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mvarId.assign $ ← Meta.mkEqMP goalConduit (mkAppN recursor newMVars)
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mvarId.assign $ ← Meta.mkEqMP goalConduit (mkAppN recursor newMVars)
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newMVars := newMVars ++ [goalConduit]
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newMVars := newMVars ++ [goalConduit]
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@ -25,7 +25,7 @@ def test_congr_arg_list : TestT Elab.TermElabM Unit := do
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let f := newGoals.get! 3
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let f := newGoals.get! 3
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let h := newGoals.get! 4
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let h := newGoals.get! 4
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let c := newGoals.get! 5
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let c := newGoals.get! 5
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let results ← f.apply (← parseSentence "List.reverse")
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let results ← Meta.withAssignableSyntheticOpaque do f.apply (← parseSentence "List.reverse")
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addTest $ LSpec.check "apply" (results.length = 0)
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addTest $ LSpec.check "apply" (results.length = 0)
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addTest $ LSpec.check "h" ((← exprToStr $ ← h.getType) = "?a₁ = ?a₂")
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addTest $ LSpec.check "h" ((← exprToStr $ ← h.getType) = "?a₁ = ?a₂")
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addTest $ LSpec.check "conduit" ((← exprToStr $ ← c.getType) = "(?a₁.reverse = ?a₂.reverse) = (l1.reverse = l2.reverse)")
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addTest $ LSpec.check "conduit" ((← exprToStr $ ← c.getType) = "(?a₁.reverse = ?a₂.reverse) = (l1.reverse = l2.reverse)")
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