Dataset Viewer
Auto-converted to Parquet Duplicate
fact
stringlengths
14
3.08k
statement
stringlengths
8
1.28k
proof
stringlengths
0
2.59k
type
stringclasses
12 values
kind
stringclasses
6 values
symbolic_name
stringlengths
0
23
library
stringclasses
3 values
filename
stringclasses
26 values
imports
listlengths
0
2
deps
listlengths
0
15
docstring
stringclasses
24 values
line_start
int64
4
655
line_end
int64
4
669
has_proof
bool
2 classes
source_url
stringclasses
1 value
commit
stringclasses
1 value
content_level
stringclasses
1 value
elab_rules : term <= expectedType | `(assertInstancesCommuteImpl $cont) => do match ← findRedundantLocalInstQuoted? with | some ⟨fvar, _, _, lhs, rhs⟩ => let n ← mkFreshUserName ((← fvar.getUserName).eraseMacroScopes.appendAfter "_eq") let cmd := q(withNewMCtxDepth do withDefault do assertDefEqQ $lhs $rhs) ...
elab_rules : term <= expectedType | `(assertInstancesCommuteImpl $cont) => do match ← findRedundantLocalInstQuoted? with | some ⟨fvar, _, _, lhs, rhs⟩ => let n ← mkFreshUserName ((← fvar.getUserName).eraseMacroScopes.appendAfter "_eq") let cmd
q(withNewMCtxDepth do withDefault do assertDefEqQ $lhs $rhs) elabTerm (← `($(← exprToSyntax cmd) >>= fun __defeqres => have $(mkIdent n) := __defeqres.1 assertInstancesCommuteImpl $cont)) expectedType | none => elabTerm cont expectedType
elab_rules
other
Root
Qq/AssertInstancesCommute.lean
[]
[ "assertDefEqQ", "n" ]
null
46
56
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
elab_rules : term <= expectedType | `(assumeInstancesCommute' $cont) => do match ← findRedundantLocalInstQuoted? with | some ⟨fvar, _, _, lhs, rhs⟩ => let n ← mkFreshUserName ((← fvar.getUserName).eraseMacroScopes.appendAfter "_eq") let ty := q(QuotedDefEq $lhs $rhs) elabTerm (← `( have $(mkIden...
elab_rules : term <= expectedType | `(assumeInstancesCommute' $cont) => do match ← findRedundantLocalInstQuoted? with | some ⟨fvar, _, _, lhs, rhs⟩ => let n ← mkFreshUserName ((← fvar.getUserName).eraseMacroScopes.appendAfter "_eq") let ty
q(QuotedDefEq $lhs $rhs) elabTerm (← `( have $(mkIdent n) : $(← exprToSyntax ty) := ⟨⟩ assumeInstancesCommute' $cont)) expectedType | none => elabTerm cont expectedType
elab_rules
other
Root
Qq/AssertInstancesCommute.lean
[]
[ "QuotedDefEq", "n" ]
null
58
67
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
macro_rules | `(assert! assertInstancesCommuteDummy; $cont) => `(assertInstancesCommuteImpl $cont)
macro_rules | `(assert! assertInstancesCommuteDummy; $cont) => `(assertInstancesCommuteImpl $cont)
macro_rules
definition
Root
Qq/AssertInstancesCommute.lean
[]
[]
null
70
72
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
macro_rules | `(assert! assumeInstancesCommuteDummy; $cont) => `(assumeInstancesCommute' $cont)
macro_rules | `(assert! assumeInstancesCommuteDummy; $cont) => `(assumeInstancesCommute' $cont)
macro_rules
definition
Root
Qq/AssertInstancesCommute.lean
[]
[]
null
75
77
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
scoped macro "assertInstancesCommute" : doElem => `(doElem| assert! assertInstancesCommuteDummy)
scoped macro "assertInstancesCommute" : doElem => `(doElem| assert! assertInstancesCommuteDummy)
macro
definition
Root
Qq/AssertInstancesCommute.lean
[]
[]
null
82
83
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
scoped macro "assumeInstancesCommute" : doElem => `(doElem| assert! assumeInstancesCommuteDummy)
scoped macro "assumeInstancesCommute" : doElem => `(doElem| assert! assumeInstancesCommuteDummy)
macro
definition
Root
Qq/AssertInstancesCommute.lean
[]
[]
null
85
86
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
scoped elab "by_elabq" e:doSeq : term <= expectedType => do let lctx ← getLCtx let levelNames := (← Term.getLevelNames).reverse -- these are backwards! let (quotedCtx, assignments, quotedGoal) ← liftMetaM <| StateT.run' (s := { mayPostpone := false }) do let (quotedCtx, assignments) ← Impl.quoteLCtx l...
scoped elab "by_elabq" e:doSeq : term <= expectedType => do let lctx ← getLCtx let levelNames
(← Term.getLevelNames).reverse -- these are backwards! let (quotedCtx, assignments, quotedGoal) ← liftMetaM <| StateT.run' (s := { mayPostpone := false }) do let (quotedCtx, assignments) ← Impl.quoteLCtx lctx levelNames let expectedType ← instantiateMVars expectedType let quotedGoal : Q(Type) ← ...
elab
other
e
Root
Qq/Commands.lean
[]
[ "Quoted", "t" ]
`by_elabq` is the Qq analogue to `by_elab` which allows executing arbitrary `TermElabM` code in place of a term. In contrast to `by_elab`, the local context can be directly accessed as quoted expressions and the return type is Q-annotated. Example: ``` def f (x : Prop) [Decidable x] : Int := by_elabq Lean.logInfo...
44
85
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
elab_rules : tactic | `(tactic| run_tacq $[$gi:ident =>]? $seq:doSeq) => do let goal ← try getMainGoal catch _ => throwError "no open goal, run_tacq requires main goal" goal.withContext do let lctx ← getLCtx let levelNames := (← Term.getLevelNames).reverse -- these are backwards! let target ← ...
elab_rules : tactic | `(tactic| run_tacq $[$gi:ident =>]? $seq:doSeq) => do let goal ← try getMainGoal catch _ => throwError "no open goal, run_tacq requires main goal" goal.withContext do let lctx ← getLCtx let levelNames
(← Term.getLevelNames).reverse -- these are backwards! let target ← instantiateMVars (← goal.getType) let (quotedCtx, assignments, goalInfo?) ← liftMetaM <| StateT.run' (s := { mayPostpone := false }) do let (quotedCtx, assignments) ← Impl.quoteLCtx lctx levelNames match gi with | no...
elab_rules
other
Root
Qq/Commands.lean
[]
[ "Quoted" ]
null
88
119
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
inductive MVarSynth | term (quotedType : Expr) (unquotedMVar : MVarId) --> Quoted.unsafeMk _ _ | type (unquotedMVar : MVarId) --> Quoted _ | level (unquotedMVar : LMVarId) --> Level meta structure UnquoteState where /-- Quoted mvars in the outside lctx (of type `Level`, `Quoted _`, or `Type`). The outside ...
inductive MVarSynth | term (quotedType : Expr) (unquotedMVar : MVarId) --> Quoted.unsafeMk _ _ | type (unquotedMVar : MVarId) --> Quoted _ | level (unquotedMVar : LMVarId) --> Level meta structure UnquoteState where /-- Quoted mvars in the outside lctx (of type `Level`, `Quoted _`, or `Type`). The outside ...
inductive
inductive
MVarSynth
Root
Qq/Macro.lean
[]
[ "Quoted", "Quoted.unsafeMk", "m" ]
null
27
59
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
abbrev UnquoteM := StateT UnquoteState MetaM
abbrev UnquoteM
StateT UnquoteState MetaM
abbrev
definition
UnquoteM
Root
Qq/Macro.lean
[]
[]
null
61
61
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
abbrev QuoteM := ReaderT UnquoteState MetaM meta instance : MonadLift QuoteM UnquoteM where monadLift k := do k (← get) meta def determineLocalInstances (lctx : LocalContext) : MetaM LocalInstances := do let mut localInsts : LocalInstances := {} for ldecl in lctx do match (← isClass? ldecl.type) with ...
abbrev QuoteM
ReaderT UnquoteState MetaM meta instance : MonadLift QuoteM UnquoteM where monadLift k := do k (← get) meta def determineLocalInstances (lctx : LocalContext) : MetaM LocalInstances := do let mut localInsts : LocalInstances := {} for ldecl in lctx do match (← isClass? ldecl.type) with | some c => local...
abbrev
definition
QuoteM
Root
Qq/Macro.lean
[]
[ "UnquoteM", "k", "m" ]
null
63
78
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
scoped elab "ql(" l:level ")" : term => do let ((), s) ← unquoteLevelLCtx.run {mayPostpone := false} let l ← s.withLevelNames do let l ← elabLevel l let refdLevels := (CollectLevelParams.collect (← instantiateLevelMVars l) {}).params return (l, refdLevels) quoteLevel l s /-- `a =QL b` says that the l...
scoped elab "ql(" l:level ")" : term => do let ((), s) ← unquoteLevelLCtx.run {mayPostpone := false} let l ← s.withLevelNames do let l ← elabLevel l let refdLevels
(CollectLevelParams.collect (← instantiateLevelMVars l) {}).params return (l, refdLevels) quoteLevel l s /-- `a =QL b` says that the levels `a` and `b` are definitionally equal. -/
elab
other
l
Root
Qq/Macro.lean
[]
[]
`ql(u)` quotes the universe level `u`.
520
528
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
macro_rules | `($a:level =QL $b) => `(QuotedLevelDefEq ql($a) ql($b)) meta def Impl.macro (t : Syntax) (expectedType : Expr) : TermElabM Expr := do let mainMVar ← mkFreshExprMVar expectedType let s ← (unquoteMVar mainMVar *> get).run' { mayPostpone := (← read).mayPostpone } have lastId := match s.mvars with ...
macro_rules | `($a:level =QL $b) => `(QuotedLevelDefEq ql($a) ql($b)) meta def Impl.macro (t : Syntax) (expectedType : Expr) : TermElabM Expr
do let mainMVar ← mkFreshExprMVar expectedType let s ← (unquoteMVar mainMVar *> get).run' { mayPostpone := (← read).mayPostpone } have lastId := match s.mvars with | (_, .term _ lastMVar) :: _ | (_, .type lastMVar) :: _ => lastMVar | _ => unreachable! let lastDecl ← lastId.getDecl withRef t do s.wit...
macro_rules
definition
Root
Qq/Macro.lean
[]
[ "QuotedLevelDefEq", "t" ]
null
530
571
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
macro_rules | `(q($t : $ty)) => `(q(($t : $ty)))
macro_rules | `(q($t : $ty)) => `(q(($t : $ty)))
macro_rules
definition
Root
Qq/Macro.lean
[]
[ "t" ]
null
574
574
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
elab_rules : term <= expectedType | `(q($t)) => do let expectedType ← instantiateMVars expectedType if expectedType.hasExprMVar then tryPostpone if ← lctxHasMVar then tryPostpone ensureHasType expectedType $ ← commitIfDidNotPostpone do let mut expectedType ← withReducible <| Impl.whnf expectedTy...
elab_rules : term <= expectedType | `(q($t)) => do let expectedType ← instantiateMVars expectedType if expectedType.hasExprMVar then tryPostpone if ← lctxHasMVar then tryPostpone ensureHasType expectedType $ ← commitIfDidNotPostpone do let mut expectedType ← withReducible <| Impl.whnf expectedTy...
.app (.const ``Expr.sort []) u let t ← mkFreshExprMVar (mkApp (.const ``Quoted []) u') expectedType := .app (.const ``Quoted []) t Impl.macro t expectedType /-- `Q(α)` is the type of Lean expressions having type `α`. -/
elab_rules
other
Root
Qq/Macro.lean
[]
[ "Quoted", "t" ]
null
576
590
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
macro_rules | `(Q($t : $ty)) => `(Q(($t : $ty)))
macro_rules | `(Q($t : $ty)) => `(Q(($t : $ty)))
macro_rules
definition
Root
Qq/Macro.lean
[]
[ "t" ]
null
593
593
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
elab_rules : term <= expectedType | `(Q($t)) => do let expectedType ← instantiateMVars expectedType unless ← isDefEq expectedType q(Type) do throwError "Q(.) has type Type, expected type is{indentExpr expectedType}" commitIfDidNotPostpone do Impl.macro t expectedType /-- `a =Q b` says that `a` and ...
elab_rules : term <= expectedType | `(Q($t)) => do let expectedType ← instantiateMVars expectedType unless ← isDefEq expectedType q(Type) do throwError "Q(.) has type Type, expected type is{indentExpr expectedType}" commitIfDidNotPostpone do Impl.macro t expectedType /-- `a =Q b` says that `a` and ...
elab_rules
other
Root
Qq/Macro.lean
[]
[ "t" ]
null
595
602
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
macro_rules | `(Q($t0)) => do let (t, lifts) ← floatExprAntiquot 0 t0 #[] if lifts.isEmpty && t == t0 then Macro.throwUnsupported let mut t ← `(Q($t)) for (a, ty, lift) in lifts do t ← `(let $a:ident : $ty := $lift; $t) pure t | `(q($t0)) => do let (t, lifts) ← floatExprAntiquot 0 t0 #...
macro_rules | `(Q($t0)) => do let (t, lifts) ← floatExprAntiquot 0 t0 #[] if lifts.isEmpty && t == t0 then Macro.throwUnsupported let mut t ← `(Q($t)) for (a, ty, lift) in lifts do t ← `(let $a:ident : $ty := $lift; $t) pure t | `(q($t0)) => do let (t, lifts) ← floatExprAntiquot 0 t0 #...
macro_rules
definition
Root
Qq/Macro.lean
[]
[ "floatExprAntiquot", "t" ]
null
655
669
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def mkInstantiateMVars (decls : List PatVarDecl) : List PatVarDecl → MetaM Q(MetaM $(mkIsDefEqType decls)) | [] => return q(return $(mkIsDefEqResult true decls)) -- https://github.com/leanprover/lean4/issues/501 | { ty := none, fvarId := fvarId, userName := userName } :: rest => do let decl : PatVarDecl := { ...
def mkInstantiateMVars (decls : List PatVarDecl) : List PatVarDecl → MetaM Q(MetaM $(mkIsDefEqType decls)) | [] => return q(return $(mkIsDefEqResult true decls)) -- https://github.com/leanprover/lean4/issues/501 | { ty := none, fvarId := fvarId, userName := userName } :: rest => do let decl : PatVarDecl
{ ty := none, fvarId := fvarId, userName := userName } let instMVars : Q(Level → MetaM $(mkIsDefEqType decls)) ← mkLambdaQ _ decl.fvar q($(← mkInstantiateMVars decls rest)) return q(Bind.bind (instantiateLevelMVars $(decl.fvar)) $instMVars) | { ty := some ty, fvarId := fvarId, userName := userName } :: ...
def
definition
mkInstantiateMVars
Root
Qq/Match.lean
[]
[ "PatVarDecl", "mkIsDefEqResult", "mkIsDefEqType", "mkLambdaQ" ]
null
68
80
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def mkIsDefEqCore (decls : List PatVarDecl) (pat discr : Q(Expr)) : List PatVarDecl → MetaM Q(MetaM $(mkIsDefEqType decls)) | { ty := none, fvarId := fvarId, userName := userName } :: rest => let decl : PatVarDecl := { ty := none, fvarId := fvarId, userName := userName } return q(Bind.bind mkFreshLevelMVa...
def mkIsDefEqCore (decls : List PatVarDecl) (pat discr : Q(Expr)) : List PatVarDecl → MetaM Q(MetaM $(mkIsDefEqType decls)) | { ty := none, fvarId := fvarId, userName := userName } :: rest => let decl : PatVarDecl
{ ty := none, fvarId := fvarId, userName := userName } return q(Bind.bind mkFreshLevelMVar $(← mkLambdaQ `x decl.fvar (← mkIsDefEqCore decls pat discr rest))) | { ty := some ty, fvarId := fvarId, userName := userName } :: rest => let decl : PatVarDecl := { ty := some ty, fvarId := fvarId, userName := userName...
def
definition
mkIsDefEqCore
Root
Qq/Match.lean
[]
[ "PatVarDecl", "mkInstantiateMVars", "mkIsDefEqResult", "mkIsDefEqType", "mkLambdaQ", "pat" ]
null
82
94
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def mkIsDefEq (decls : List PatVarDecl) (pat discr : Q(Expr)) : MetaM Q(MetaM $(mkIsDefEqType decls)) := do return q(withNewMCtxDepth $(← mkIsDefEqCore decls pat discr decls))
def mkIsDefEq (decls : List PatVarDecl) (pat discr : Q(Expr)) : MetaM Q(MetaM $(mkIsDefEqType decls))
do return q(withNewMCtxDepth $(← mkIsDefEqCore decls pat discr decls))
def
definition
mkIsDefEq
Root
Qq/Match.lean
[]
[ "PatVarDecl", "mkIsDefEqCore", "mkIsDefEqType", "pat" ]
null
96
97
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def withLetHave [Monad m] [MonadControlT MetaM m] [MonadLiftT MetaM m] [MonadLCtx m] (fvarId : FVarId) (userName : Name) (val : (Quoted α)) (k : (Quoted α) → m (Quoted β)) : m (Quoted β) := do withExistingLocalDecls [LocalDecl.cdecl default fvarId userName α .default .default] do return Quoted.unsafeMk $ ← mk...
def withLetHave [Monad m] [MonadControlT MetaM m] [MonadLiftT MetaM m] [MonadLCtx m] (fvarId : FVarId) (userName : Name) (val : (Quoted α)) (k : (Quoted α) → m (Quoted β)) : m (Quoted β)
do withExistingLocalDecls [LocalDecl.cdecl default fvarId userName α .default .default] do return Quoted.unsafeMk $ ← mkLet' userName (.fvar fvarId) α val (← k (.fvar fvarId))
def
definition
withLetHave
Root
Qq/Match.lean
[]
[ "Quoted", "Quoted.unsafeMk", "k", "m", "mkLet'" ]
null
99
102
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def mkQqLets {γ : Q(Type)} : (decls : List PatVarDecl) → Q($(mkIsDefEqType decls)) → TermElabM Q($γ) → TermElabM Q($γ) | { ty := none, fvarId := fvarId, userName := userName } :: decls, acc, cb => withLetHave fvarId userName (α := q(Level)) q($acc.1) fun _ => mkQqLets decls q($acc.2) cb | { ty := some ty, f...
def mkQqLets {γ : Q(Type)} : (decls : List PatVarDecl) → Q($(mkIsDefEqType decls)) → TermElabM Q($γ) → TermElabM Q($γ) | { ty := none, fvarId := fvarId, userName := userName } :: decls, acc, cb => withLetHave fvarId userName (α := q(Level)) q($acc.1) fun _ => mkQqLets decls q($acc.2) cb | { ty := some ty, f...
def
definition
mkQqLets
Root
Qq/Match.lean
[]
[ "PatVarDecl", "Quoted", "mkIsDefEqType", "withLetHave" ]
null
104
112
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def replaceTempExprsByQVars : List PatVarDecl → Expr → Expr | [], e => e | { ty := some _, fvarId, .. } :: decls, e => ((replaceTempExprsByQVars decls e).abstract #[.fvar fvarId]).instantiate #[.fvar fvarId] | { ty := none, .. } :: decls, e => replaceTempExprsByQVars decls e
def replaceTempExprsByQVars : List PatVarDecl → Expr → Expr | [], e => e | { ty := some _, fvarId, .. } :: decls, e => ((replaceTempExprsByQVars decls e).abstract #[.fvar fvarId]).instantiate #[.fvar fvarId] | { ty := none, .. } :: decls, e => replaceTempExprsByQVars decls e
def
definition
replaceTempExprsByQVars
Root
Qq/Match.lean
[]
[ "PatVarDecl", "e" ]
null
113
118
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def makeMatchCode {γ : Q(Type)} {m : Q(Type → Type v)} (_instLift : Q(MonadLiftT MetaM $m)) (_instBind : Q(Bind $m)) (decls : List PatVarDecl) (uTy : Q(Level)) (ty : Q(Quoted (.sort $uTy))) (pat discr : Q(Quoted $ty)) (alt : Q($m $γ)) (expectedType : Expr) (k : Expr → TermElabM Q($m $γ)) : TermElabM Q($m $γ...
def makeMatchCode {γ : Q(Type)} {m : Q(Type → Type v)} (_instLift : Q(MonadLiftT MetaM $m)) (_instBind : Q(Bind $m)) (decls : List PatVarDecl) (uTy : Q(Level)) (ty : Q(Quoted (.sort $uTy))) (pat discr : Q(Quoted $ty)) (alt : Q($m $γ)) (expectedType : Expr) (k : Expr → TermElabM Q($m $γ)) : TermElabM Q($m $γ...
do let nextDecls : List PatVarDecl := decls.map fun decl => { decl with ty := decl.ty.map fun e => replaceTempExprsByQVars decls e } let next ← withLocalDecl (← mkFreshBinderName) default (mkIsDefEqType decls) (kind := .implDetail) fun fv => do let fv : Q($(mkIsDefEqType decls)) := fv -- note: cannot in...
def
definition
makeMatchCode
Root
Qq/Match.lean
[]
[ "PatVarDecl", "Quoted", "Quoted.unsafeMk", "QuotedDefEq", "e", "k", "m", "mkIsDefEq", "mkIsDefEqResultVal", "mkIsDefEqType", "mkLambda'", "mkQqLets", "pat", "replaceTempExprsByQVars", "withLocalDeclDQ" ]
null
120
146
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def unquoteForMatch (et : Expr) : UnquoteM (LocalContext × LocalInstances × Expr) := do unquoteLCtx let newET ← unquoteExpr et let newLCtx := (← get).unquoted return (newLCtx, ← determineLocalInstances newLCtx, newET)
def unquoteForMatch (et : Expr) : UnquoteM (LocalContext × LocalInstances × Expr)
do unquoteLCtx let newET ← unquoteExpr et let newLCtx := (← get).unquoted return (newLCtx, ← determineLocalInstances newLCtx, newET)
def
definition
unquoteForMatch
Root
Qq/Match.lean
[]
[ "UnquoteM" ]
null
148
152
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def mkNAryFunctionType : Nat → MetaM Expr | 0 => mkFreshTypeMVar | n+1 => do withLocalDeclD `x (← mkFreshTypeMVar) fun x => do mkForallFVars #[x] (← mkNAryFunctionType n)
def mkNAryFunctionType : Nat → MetaM Expr | 0 => mkFreshTypeMVar | n+1 => do withLocalDeclD `x (← mkFreshTypeMVar) fun x => do mkForallFVars #[x] (← mkNAryFunctionType n)
def
definition
mkNAryFunctionType
Root
Qq/Match.lean
[]
[ "n" ]
null
154
157
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
structure PatternVar where name : Name /-- Pattern variables can be functions; if so, this is their arity. -/ arity : Nat mvar : Expr stx : Term
structure PatternVar where name : Name /-- Pattern variables can be functions; if so, this is their arity. -/ arity : Nat mvar : Expr stx : Term
structure
structure
PatternVar
Root
Qq/Match.lean
[]
[]
null
159
164
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
partial def getPatVars (pat : Term) : StateT (Array PatternVar) TermElabM Term := do match pat with | `($fn $args*) => if isPatVar fn then return ← mkMVar fn args | _ => if isPatVar pat then return ← mkMVar pat #[] match pat with | ⟨.node info kind args⟩ => return ⟨.node info kind (← args.mapM (getPatVa...
partial def getPatVars (pat : Term) : StateT (Array PatternVar) TermElabM Term
do match pat with | `($fn $args*) => if isPatVar fn then return ← mkMVar fn args | _ => if isPatVar pat then return ← mkMVar pat #[] match pat with | ⟨.node info kind args⟩ => return ⟨.node info kind (← args.mapM (getPatVars ⟨·⟩))⟩ | pat => return pat where isPatVar (fn : Syntax) : Bool := ...
def
definition
getPatVars
Root
Qq/Match.lean
[]
[ "PatternVar", "m", "mkNAryFunctionType", "pat", "push" ]
null
166
188
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def elabPat (pat : Term) (lctx : LocalContext) (localInsts : LocalInstances) (ty : Expr) (levelNames : List Name) : TermElabM (Expr × Array LocalDecl × Array Name) := withLCtx lctx localInsts do withLevelNames levelNames do let (pat, patVars) ← getPatVars pat #[] let pat ← Lean.Elab.Term.e...
def elabPat (pat : Term) (lctx : LocalContext) (localInsts : LocalInstances) (ty : Expr) (levelNames : List Name) : TermElabM (Expr × Array LocalDecl × Array Name)
withLCtx lctx localInsts do withLevelNames levelNames do let (pat, patVars) ← getPatVars pat #[] let pat ← Lean.Elab.Term.elabTerm pat ty let pat ← ensureHasType ty pat synthesizeSyntheticMVars (postpone := .no) let pat ← instantiateMVars pat let mctx ← g...
def
definition
elabPat
Root
Qq/Match.lean
[]
[ "getPatVars", "pat", "sortLocalDecls" ]
null
189
225
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
scoped elab "_qq_match" pat:term " ← " e:term " | " alt:term " in " body:term : term <= expectedType => do let emr ← extractBind expectedType let alt ← elabTermEnsuringType alt expectedType let argLvlExpr ← mkFreshExprMVarQ q(Level) let argTyExpr ← mkFreshExprMVarQ q(Quoted (.sort $argLvlExpr)) let e' ← elab...
scoped elab "_qq_match" pat:term " ← " e:term " | " alt:term " in " body:term : term <= expectedType => do let emr ← extractBind expectedType let alt ← elabTermEnsuringType alt expectedType let argLvlExpr ← mkFreshExprMVarQ q(Level) let argTyExpr ← mkFreshExprMVarQ q(Quoted (.sort $argLvlExpr)) let e' ← elab...
s let mut oldPatVarDecls : List PatVarDecl := [] for newLevel in newLevels do let fvarId := FVarId.mk (← mkFreshId) oldPatVarDecls := oldPatVarDecls ++ [{ ty := none, fvarId := fvarId, userName := newLevel }] s := { s with levelBackSubst := s.levelBackSubst.insert (.param newLevel) (.fvar fvarId) } f...
elab
other
pat
Root
Qq/Match.lean
[]
[ "PatVarDecl", "Quoted", "Quoted.unsafeMk", "e", "elabPat", "elabTermEnsuringTypeQ", "extractBind", "instantiateMVarsQ", "m", "makeMatchCode", "mkFreshExprMVarQ", "synthInstanceQ", "unquoteForMatch" ]
null
227
258
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
macro_rules | `(assert! (_qq_match $pat := $e | $alt); $x) => `(_qq_match $pat ← $e | (do $alt:doSeqIndent) in $x)
macro_rules | `(assert! (_qq_match $pat := $e | $alt); $x) => `(_qq_match $pat ← $e | (do $alt:doSeqIndent) in $x)
macro_rules
definition
Root
Qq/Match.lean
[]
[ "e", "pat" ]
null
261
263
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
partial def isIrrefutablePattern : Term → Bool | `(($stx)) => isIrrefutablePattern stx | `(⟨$args,*⟩) => args.getElems.all isIrrefutablePattern | `(($a, $b)) => isIrrefutablePattern a && isIrrefutablePattern b | `(_) => true | `(true) => false | `(false) => false -- TODO properly | stx => stx.1.isIdent
partial def isIrrefutablePattern : Term → Bool | `(($stx)) => isIrrefutablePattern stx | `(⟨$args,*⟩) => args.getElems.all isIrrefutablePattern | `(($a, $b)) => isIrrefutablePattern a && isIrrefutablePattern b | `(_) => true | `(true) => false | `(false) => false -- TODO properly | stx => stx.1.isIdent
def
definition
isIrrefutablePattern
Root
Qq/Match.lean
[]
[]
null
265
271
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
scoped elab "_comefrom" n:ident "do" b:doSeq " in " body:term : term <= expectedType => do let _ ← extractBind expectedType let ty ← exprToSyntax expectedType elabTerm (← `(have $n:ident : $ty := (do $b:doSeq); $body)) expectedType
scoped elab "_comefrom" n:ident "do" b:doSeq " in " body:term : term <= expectedType => do let _ ← extractBind expectedType let ty ← exprToSyntax expectedType elabTerm (← `(have $n:ident : $ty := (do $b:doSeq); $body)) expectedType
elab
other
n
Root
Qq/Match.lean
[]
[ "extractBind" ]
null
273
276
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
macro_rules | `(assert! (_comefrom $n do $b); $body) => `(_comefrom $n do $b in $body) -- The point of this macro as SG sees it is to get the do block result type to push it into `$b`
macro_rules | `(assert! (_comefrom $n do $b); $body) => `(_comefrom $n do $b in $body) -- The point of this macro as SG sees it is to get the do block result type to push it into `$b`
macro_rules
definition
Root
Qq/Match.lean
[]
[ "n", "push" ]
null
279
281
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
scoped macro "comefrom" n:ident "do" b:doSeq : doElem => `(doElem| assert! (_comefrom $n do $b))
scoped macro "comefrom" n:ident "do" b:doSeq : doElem => `(doElem| assert! (_comefrom $n do $b))
macro
definition
n
Root
Qq/Match.lean
[]
[]
null
282
283
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
partial def Impl.hasQMatch : Syntax → Bool | `(~q($_)) => true | stx => stx.getArgs.any hasQMatch
partial def Impl.hasQMatch : Syntax → Bool | `(~q($_)) => true | stx => stx.getArgs.any hasQMatch
def
definition
Impl.hasQMatch
Root
Qq/Match.lean
[]
[]
null
326
328
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
partial def Impl.floatQMatch (alt : TSyntax ``doSeqIndent) : Term → StateT (List (TSyntax ``doSeqItem)) MacroM Term | `(~q($term)) => withFreshMacroScope do let auxDoElem ← `(doSeqItem| let ~q($term) := x | $alt) modify fun s => s ++ [auxDoElem] `(x) | stx => do match stx with | ⟨.node i k...
partial def Impl.floatQMatch (alt : TSyntax ``doSeqIndent) : Term → StateT (List (TSyntax ``doSeqItem)) MacroM Term | `(~q($term)) => withFreshMacroScope do let auxDoElem ← `(doSeqItem| let ~q($term) := x | $alt) modify fun s => s ++ [auxDoElem] `(x) | stx => do match stx with | ⟨.node i k...
def
definition
Impl.floatQMatch
Root
Qq/Match.lean
[]
[ "k" ]
null
330
338
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
private def push (i : TSyntax ``doSeqItem) : StateT (Array (TSyntax ``doSeqItem)) MacroM Unit := modify fun s => s.push i
private def push (i : TSyntax ``doSeqItem) : StateT (Array (TSyntax ``doSeqItem)) MacroM Unit
modify fun s => s.push i
def
definition
push
Root
Qq/Match.lean
[]
[]
null
340
341
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
partial def unpackParensIdent : Syntax → Option Syntax | `(($stx)) => unpackParensIdent stx | stx => if stx.isIdent then some stx else none
partial def unpackParensIdent : Syntax → Option Syntax | `(($stx)) => unpackParensIdent stx | stx => if stx.isIdent then some stx else none
def
definition
unpackParensIdent
Root
Qq/Match.lean
[]
[]
null
343
345
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
private partial def floatLevelAntiquot (stx : Syntax.Level) : StateT (Array (TSyntax ``doSeqItem)) MacroM Syntax.Level := if stx.1.isAntiquot && !stx.1.isEscapedAntiquot then if !stx.1.getAntiquotTerm.isIdent then withFreshMacroScope do push <| ← `(doSeqItem| let u : Level := $(⟨stx.1.getAntiquotTer...
private partial def floatLevelAntiquot (stx : Syntax.Level) : StateT (Array (TSyntax ``doSeqItem)) MacroM Syntax.Level
if stx.1.isAntiquot && !stx.1.isEscapedAntiquot then if !stx.1.getAntiquotTerm.isIdent then withFreshMacroScope do push <| ← `(doSeqItem| let u : Level := $(⟨stx.1.getAntiquotTerm⟩)) `(level| u) else pure stx else match stx with | ⟨.node i k args⟩ => return ⟨Syntax.node i k...
def
definition
floatLevelAntiquot
Root
Qq/Match.lean
[]
[ "k", "push" ]
null
347
358
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
private partial def floatExprAntiquot (depth : Nat) : Term → StateT (Array (TSyntax ``doSeqItem)) MacroM Term | `(Q($x)) => do `(Q($(← floatExprAntiquot (depth + 1) x))) | `(q($x)) => do `(q($(← floatExprAntiquot (depth + 1) x))) | `(Type $term) => do `(Type $(← floatLevelAntiquot term)) | `(Sort $term) => do `...
private partial def floatExprAntiquot (depth : Nat) : Term → StateT (Array (TSyntax ``doSeqItem)) MacroM Term | `(Q($x)) => do `(Q($(← floatExprAntiquot (depth + 1) x))) | `(q($x)) => do `(q($(← floatExprAntiquot (depth + 1) x))) | `(Type $term) => do `(Type $(← floatLevelAntiquot term)) | `(Sort $term) => do `...
⟨stx.1.getAntiquotTerm⟩ if term.1.isIdent then return stx else if depth > 0 then return ⟨.mkAntiquotNode stx.1.antiquotKind?.get!.1 (← floatExprAntiquot (depth - 1) term)⟩ else match unpackParensIdent stx.1.getAntiquotTerm with | some id => if id.getId.isA...
def
definition
floatExprAntiquot
Root
Qq/Match.lean
[]
[ "Quoted", "floatLevelAntiquot", "k", "push", "unpackParensIdent" ]
null
360
384
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
macro_rules | `(doElem| let $pat:term := $_) => do if !hasQMatch pat then Macro.throwUnsupported Macro.throwError "let-bindings with ~q(.) require an explicit alternative" | `(doElem| let $pat:term := $rhs:term | $alt $(body?)?) => do if !hasQMatch pat then Macro.throwUnsupported match pat with ...
macro_rules | `(doElem| let $pat:term := $_) => do if !hasQMatch pat then Macro.throwUnsupported Macro.throwError "let-bindings with ~q(.) require an explicit alternative" | `(doElem| let $pat:term := $rhs:term | $alt $(body?)?) => do if !hasQMatch pat then Macro.throwUnsupported match pat with ...
lifts.push t if let some body := body? then items := items.push (← `(doSeqItem| do $body:doSeqIndent)) `(doElem| do $items:doSeqItem*) | _ => let (pat', auxs) ← floatQMatch (← `(doSeqIndent| __alt)) pat [] -- Build the nested body from inside out, so that every `doLetEls...
macro_rules
definition
Root
Qq/Match.lean
[]
[ "floatExprAntiquot", "isIrrefutablePattern", "pat", "t" ]
null
386
450
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
partial def Lean.Syntax.stripPos : Syntax → Syntax | atom _ a => atom .none a | ident _ r v p => ident .none r v p | node _ kind args => node .none kind (args.map stripPos) | missing => missing
partial def Lean.Syntax.stripPos : Syntax → Syntax | atom _ a => atom .none a | ident _ r v p => ident .none r v p | node _ kind args => node .none kind (args.map stripPos) | missing => missing
def
definition
Lean.Syntax.stripPos
Root
Qq/MatchImpl.lean
[]
[]
null
8
12
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
structure PatVarDecl where ty : Option Q(Expr) fvarId : FVarId userName : Name
structure PatVarDecl where ty : Option Q(Expr) fvarId : FVarId userName : Name
structure
structure
PatVarDecl
Root
Qq/MatchImpl.lean
[]
[]
null
21
24
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
@[expose] def PatVarDecl.fvarTy : PatVarDecl → Q(Type) | { ty := none, .. } => q(Level) | { ty := some _, .. } => q(Expr)
@[expose] def PatVarDecl.fvarTy : PatVarDecl → Q(Type) | { ty := none, .. } => q(Level) | { ty := some _, .. } => q(Expr)
def
definition
PatVarDecl.fvarTy
Root
Qq/MatchImpl.lean
[]
[ "PatVarDecl" ]
null
26
28
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def PatVarDecl.fvar (decl : PatVarDecl) : Q($((decl.fvarTy))) := Expr.fvar decl.fvarId
def PatVarDecl.fvar (decl : PatVarDecl) : Q($((decl.fvarTy)))
Expr.fvar decl.fvarId
def
definition
PatVarDecl.fvar
Root
Qq/MatchImpl.lean
[]
[ "PatVarDecl" ]
null
30
31
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
@[expose] def mkIsDefEqType : List PatVarDecl → Q(Type) | [] => q(Bool) | decl :: decls => q($(decl.fvarTy) × $(mkIsDefEqType decls))
@[expose] def mkIsDefEqType : List PatVarDecl → Q(Type) | [] => q(Bool) | decl :: decls => q($(decl.fvarTy) × $(mkIsDefEqType decls))
def
definition
mkIsDefEqType
Root
Qq/MatchImpl.lean
[]
[ "PatVarDecl" ]
null
33
35
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
@[expose] def mkIsDefEqResult (val : Bool) : (decls : List PatVarDecl) → Q($(mkIsDefEqType decls)) | [] => show Q(Bool) from q($val) | decl :: decls => q(($(decl.fvar), $(mkIsDefEqResult val decls)))
@[expose] def mkIsDefEqResult (val : Bool) : (decls : List PatVarDecl) → Q($(mkIsDefEqType decls)) | [] => show Q(Bool) from q($val) | decl :: decls => q(($(decl.fvar), $(mkIsDefEqResult val decls)))
def
definition
mkIsDefEqResult
Root
Qq/MatchImpl.lean
[]
[ "PatVarDecl", "mkIsDefEqType" ]
null
37
39
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
@[expose] def mkIsDefEqResultVal : (decls : List PatVarDecl) → Q($(mkIsDefEqType decls)) → Q(Bool) | [], val => q($val) | _ :: decls, val => mkIsDefEqResultVal decls q($val.2)
@[expose] def mkIsDefEqResultVal : (decls : List PatVarDecl) → Q($(mkIsDefEqType decls)) → Q(Bool) | [], val => q($val) | _ :: decls, val => mkIsDefEqResultVal decls q($val.2)
def
definition
mkIsDefEqResultVal
Root
Qq/MatchImpl.lean
[]
[ "PatVarDecl", "mkIsDefEqType" ]
null
41
43
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def mkLambda' (n : Name) (fvar : Expr) (ty : Expr) (body : Expr) : MetaM Expr := return mkLambda n BinderInfo.default ty (← body.abstractM #[fvar])
def mkLambda' (n : Name) (fvar : Expr) (ty : Expr) (body : Expr) : MetaM Expr
return mkLambda n BinderInfo.default ty (← body.abstractM #[fvar])
def
definition
mkLambda'
Root
Qq/MatchImpl.lean
[]
[ "n" ]
null
45
46
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def mkLet' (n : Name) (fvar : Expr) (ty : Expr) (val : Expr) (body : Expr) : MetaM Expr := return mkLet n ty val (← body.abstractM #[fvar])
def mkLet' (n : Name) (fvar : Expr) (ty : Expr) (val : Expr) (body : Expr) : MetaM Expr
return mkLet n ty val (← body.abstractM #[fvar])
def
definition
mkLet'
Root
Qq/MatchImpl.lean
[]
[ "n" ]
null
48
49
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def mkLambdaQ (n : Name) (fvar : Quoted α) (body : Quoted β) : MetaM (Quoted (.forallE n α β .default)) := return mkLambda n BinderInfo.default α (← body.abstractM #[fvar])
def mkLambdaQ (n : Name) (fvar : Quoted α) (body : Quoted β) : MetaM (Quoted (.forallE n α β .default))
return mkLambda n BinderInfo.default α (← body.abstractM #[fvar])
def
definition
mkLambdaQ
Root
Qq/MatchImpl.lean
[]
[ "Quoted", "n" ]
null
51
52
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def mkFreshExprMVarQ (ty : Q(Sort u)) (kind := MetavarKind.natural) (userName := Name.anonymous) : MetaM Q($ty) := do mkFreshExprMVar (some ty) kind userName
def mkFreshExprMVarQ (ty : Q(Sort u)) (kind := MetavarKind.natural) (userName := Name.anonymous) : MetaM Q($ty)
do mkFreshExprMVar (some ty) kind userName
def
definition
mkFreshExprMVarQ
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[]
null
20
21
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def withLocalDeclDQ [Monad n] [MonadControlT MetaM n] (name : Name) (β : Q(Sort u)) (k : Q($β) → n α) : n α := withLocalDeclD name β k
def withLocalDeclDQ [Monad n] [MonadControlT MetaM n] (name : Name) (β : Q(Sort u)) (k : Q($β) → n α) : n α
withLocalDeclD name β k
def
definition
withLocalDeclDQ
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[ "k", "n" ]
null
23
24
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def withLocalDeclQ [Monad n] [MonadControlT MetaM n] (name : Name) (bi : BinderInfo) (β : Q(Sort u)) (k : Q($β) → n α) : n α := withLocalDecl name bi β k
def withLocalDeclQ [Monad n] [MonadControlT MetaM n] (name : Name) (bi : BinderInfo) (β : Q(Sort u)) (k : Q($β) → n α) : n α
withLocalDecl name bi β k
def
definition
withLocalDeclQ
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[ "k", "n" ]
null
26
27
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def synthInstanceQ? (α : Q(Sort u)) : MetaM (Option Q($α)) := do synthInstance? α
def synthInstanceQ? (α : Q(Sort u)) : MetaM (Option Q($α))
do synthInstance? α
def
definition
synthInstanceQ?
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[]
null
29
30
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def trySynthInstanceQ (α : Q(Sort u)) : MetaM (LOption Q($α)) := do trySynthInstance α
def trySynthInstanceQ (α : Q(Sort u)) : MetaM (LOption Q($α))
do trySynthInstance α
def
definition
trySynthInstanceQ
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[]
null
32
33
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def synthInstanceQ (α : Q(Sort u)) : MetaM Q($α) := do synthInstance α
def synthInstanceQ (α : Q(Sort u)) : MetaM Q($α)
do synthInstance α
def
definition
synthInstanceQ
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[]
null
35
36
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def instantiateMVarsQ {α : Q(Sort u)} (e : Q($α)) : MetaM Q($α) := do instantiateMVars e
def instantiateMVarsQ {α : Q(Sort u)} (e : Q($α)) : MetaM Q($α)
do instantiateMVars e
def
definition
instantiateMVarsQ
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[ "e" ]
null
38
39
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def elabTermEnsuringTypeQ (stx : Syntax) (expectedType : Q(Sort u)) (catchExPostpone := true) (implicitLambda := true) (errorMsgHeader? : Option String := none) : TermElabM Q($expectedType) := do elabTermEnsuringType stx (some expectedType) catchExPostpone implicitLambda errorMsgHeader? /-- A `Qq`-ified vers...
def elabTermEnsuringTypeQ (stx : Syntax) (expectedType : Q(Sort u)) (catchExPostpone := true) (implicitLambda := true) (errorMsgHeader? : Option String := none) : TermElabM Q($expectedType)
do elabTermEnsuringType stx (some expectedType) catchExPostpone implicitLambda errorMsgHeader? /-- A `Qq`-ified version of `Lean.Meta.inferType` Instead of writing `let α ← inferType e`, this allows writing `let ⟨u, α, e⟩ ← inferTypeQ e`, which results in a context of ``` e✝ : Expr u : Level α : Q(Type u) e : Q($α)...
def
definition
elabTermEnsuringTypeQ
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[ "e", "inferTypeQ" ]
null
41
61
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def inferTypeQ (e : Expr) : MetaM ((u : Level) × (α : Q(Sort $u)) × Q($α)) := do let α ← inferType e let .sort u ← whnf (← inferType α) | throwError "not a type{indentExpr α}" pure ⟨u, α, e⟩ /-- If `e` is a `ty`, then view it as a term of `Q($ty)`. -/
def inferTypeQ (e : Expr) : MetaM ((u : Level) × (α : Q(Sort $u)) × Q($α))
do let α ← inferType e let .sort u ← whnf (← inferType α) | throwError "not a type{indentExpr α}" pure ⟨u, α, e⟩ /-- If `e` is a `ty`, then view it as a term of `Q($ty)`. -/
def
definition
inferTypeQ
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[ "e" ]
A `Qq`-ified version of `Lean.Meta.inferType` Instead of writing `let α ← inferType e`, this allows writing `let ⟨u, α, e⟩ ← inferTypeQ e`, which results in a context of ``` e✝ : Expr u : Level α : Q(Type u) e : Q($α) ``` Here, the new `e` is defeq to the old one, but now has `Qq`-ascribed type information. This is f...
62
67
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def checkTypeQ (e : Expr) (ty : Q(Sort $u)) : MetaM (Option Q($ty)) := do if ← isDefEq (← inferType e) ty then return some e else return none /-- The result of `Qq.isDefEqQ`; `MaybeDefEq a b` is an optional version of `$a =Q $b`. -/
def checkTypeQ (e : Expr) (ty : Q(Sort $u)) : MetaM (Option Q($ty))
do if ← isDefEq (← inferType e) ty then return some e else return none /-- The result of `Qq.isDefEqQ`; `MaybeDefEq a b` is an optional version of `$a =Q $b`. -/
def
definition
checkTypeQ
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[ "MaybeDefEq", "e" ]
If `e` is a `ty`, then view it as a term of `Q($ty)`.
68
74
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
inductive MaybeDefEq {α : Q(Sort $u)} (a b : Q($α)) where | defEq : QuotedDefEq a b → MaybeDefEq a b | notDefEq : MaybeDefEq a b
inductive MaybeDefEq {α : Q(Sort $u)} (a b : Q($α)) where | defEq : QuotedDefEq a b → MaybeDefEq a b | notDefEq : MaybeDefEq a b
inductive
inductive
MaybeDefEq
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[ "QuotedDefEq" ]
The result of `Qq.isDefEqQ`; `MaybeDefEq a b` is an optional version of `$a =Q $b`.
75
77
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
instance : Repr (MaybeDefEq a b) where reprPrec := fun | .defEq _, prec => Repr.addAppParen "defEq _" prec | .notDefEq, _ => "notDefEq" /-- A version of `Lean.Meta.isDefEq` which returns a strongly-typed witness rather than a bool. -/
instance : Repr (MaybeDefEq a b) where reprPrec := fun | .defEq _, prec => Repr.addAppParen "defEq _" prec | .notDefEq, _ => "notDefEq" /-- A version of `Lean.Meta.isDefEq` which returns a strongly-typed witness rather than a bool. -/
instance
instance
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[ "MaybeDefEq" ]
null
79
84
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def isDefEqQ {α : Q(Sort $u)} (a b : Q($α)) : MetaM (MaybeDefEq a b) := do if ← isDefEq a b then return .defEq ⟨⟩ else return .notDefEq /-- Like `Qq.isDefEqQ`, but throws an error if not defeq. -/
def isDefEqQ {α : Q(Sort $u)} (a b : Q($α)) : MetaM (MaybeDefEq a b)
do if ← isDefEq a b then return .defEq ⟨⟩ else return .notDefEq /-- Like `Qq.isDefEqQ`, but throws an error if not defeq. -/
def
definition
isDefEqQ
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[ "MaybeDefEq" ]
A version of `Lean.Meta.isDefEq` which returns a strongly-typed witness rather than a bool.
85
91
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def assertDefEqQ {α : Q(Sort $u)} (a b : Q($α)) : MetaM (PLift (QuotedDefEq a b)) := do match ← isDefEqQ a b with | .defEq witness => return ⟨witness⟩ | .notDefEq => throwError "{a} is not definitionally equal to{indentExpr b}" /-- The result of `Qq.isLevelDefEqQ`; `MaybeLevelDefEq u v` is an optional version of...
def assertDefEqQ {α : Q(Sort $u)} (a b : Q($α)) : MetaM (PLift (QuotedDefEq a b))
do match ← isDefEqQ a b with | .defEq witness => return ⟨witness⟩ | .notDefEq => throwError "{a} is not definitionally equal to{indentExpr b}" /-- The result of `Qq.isLevelDefEqQ`; `MaybeLevelDefEq u v` is an optional version of `$u =QL $v`. -/
def
definition
assertDefEqQ
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[ "MaybeLevelDefEq", "QuotedDefEq", "isDefEqQ" ]
Like `Qq.isDefEqQ`, but throws an error if not defeq.
92
97
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
inductive MaybeLevelDefEq (u v : Level) where | defEq : QuotedLevelDefEq u v → MaybeLevelDefEq u v | notDefEq : MaybeLevelDefEq u v
inductive MaybeLevelDefEq (u v : Level) where | defEq : QuotedLevelDefEq u v → MaybeLevelDefEq u v | notDefEq : MaybeLevelDefEq u v
inductive
inductive
MaybeLevelDefEq
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[ "QuotedLevelDefEq" ]
The result of `Qq.isLevelDefEqQ`; `MaybeLevelDefEq u v` is an optional version of `$u =QL $v`.
98
100
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
instance : Repr (MaybeLevelDefEq u v) where reprPrec := fun | .defEq _, prec => Repr.addAppParen "defEq _" prec | .notDefEq, _ => "notDefEq" /-- A version of `Lean.Meta.isLevelDefEq` which returns a strongly-typed witness rather than a bool. -/
instance : Repr (MaybeLevelDefEq u v) where reprPrec := fun | .defEq _, prec => Repr.addAppParen "defEq _" prec | .notDefEq, _ => "notDefEq" /-- A version of `Lean.Meta.isLevelDefEq` which returns a strongly-typed witness rather than a bool. -/
instance
instance
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[ "MaybeLevelDefEq" ]
null
102
107
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def isLevelDefEqQ (u v : Level) : MetaM (MaybeLevelDefEq u v) := do if ← isLevelDefEq u v then return .defEq ⟨⟩ else return .notDefEq /-- Like `Qq.isLevelDefEqQ`, but throws an error if not defeq. -/
def isLevelDefEqQ (u v : Level) : MetaM (MaybeLevelDefEq u v)
do if ← isLevelDefEq u v then return .defEq ⟨⟩ else return .notDefEq /-- Like `Qq.isLevelDefEqQ`, but throws an error if not defeq. -/
def
definition
isLevelDefEqQ
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[ "MaybeLevelDefEq" ]
A version of `Lean.Meta.isLevelDefEq` which returns a strongly-typed witness rather than a bool.
108
114
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def assertLevelDefEqQ (u v : Level) : MetaM (PLift (QuotedLevelDefEq u v)) := do match ← isLevelDefEqQ u v with | .defEq witness => return ⟨witness⟩ | .notDefEq => throwError "{u} and {v} are not definitionally equal"
def assertLevelDefEqQ (u v : Level) : MetaM (PLift (QuotedLevelDefEq u v))
do match ← isLevelDefEqQ u v with | .defEq witness => return ⟨witness⟩ | .notDefEq => throwError "{u} and {v} are not definitionally equal"
def
definition
assertLevelDefEqQ
Root
Qq/MetaM.lean
[ "Lean.Meta.SynthInstance", "Lean.Elab.Term.TermElabM" ]
[ "QuotedLevelDefEq", "isLevelDefEqQ" ]
Like `Qq.isLevelDefEqQ`, but throws an error if not defeq.
115
118
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
@[expose] def ResultQ (_e : Q($α)) : Type := Lean.Meta.Simp.Result /-- A copy of `Meta.Simp.Result.mk` with explicit types. -/
@[expose] def ResultQ (_e : Q($α)) : Type
Lean.Meta.Simp.Result /-- A copy of `Meta.Simp.Result.mk` with explicit types. -/
def
definition
ResultQ
Root
Qq/Simp.lean
[]
[]
A copy of `Meta.Simp.Result` with explicit types.
32
34
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
@[inline] def ResultQ.mk {e : Q($α)} (expr : Q($α)) (proof? : Option Q($e = $expr)) (cache : Bool := true) : ResultQ e := {expr, proof?, cache} /-- A copy of `Meta.Simp.Step` with explicit types. -/
@[inline] def ResultQ.mk {e : Q($α)} (expr : Q($α)) (proof? : Option Q($e = $expr)) (cache : Bool := true) : ResultQ e
{expr, proof?, cache} /-- A copy of `Meta.Simp.Step` with explicit types. -/
def
definition
ResultQ.mk
Root
Qq/Simp.lean
[]
[ "ResultQ", "e" ]
A copy of `Meta.Simp.Result.mk` with explicit types.
35
41
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
@[expose] def StepQ (_e : Q($α)) : Type := Step
@[expose] def StepQ (_e : Q($α)) : Type
Step
def
definition
StepQ
Root
Qq/Simp.lean
[]
[]
A copy of `Meta.Simp.Step` with explicit types.
42
42
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
@[inherit_doc Step.done, inline] def StepQ.done {e : Q($α)} (r : ResultQ e) : StepQ e := Step.done r
@[inherit_doc Step.done, inline] def StepQ.done {e : Q($α)} (r : ResultQ e) : StepQ e
Step.done r
def
definition
StepQ.done
Root
Qq/Simp.lean
[]
[ "ResultQ", "StepQ", "e" ]
null
44
45
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
@[inherit_doc Step.visit, inline] def StepQ.visit {e : Q($α)} (r : ResultQ e) : StepQ e := Step.visit r
@[inherit_doc Step.visit, inline] def StepQ.visit {e : Q($α)} (r : ResultQ e) : StepQ e
Step.visit r
def
definition
StepQ.visit
Root
Qq/Simp.lean
[]
[ "ResultQ", "StepQ", "e" ]
null
46
47
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
@[inherit_doc Step.continue, inline] def StepQ.continue {e : Q($α)} (r : Option (ResultQ e) := none) : StepQ e := Step.continue r /-- A copy of `Lean.Meta.Simproc` with explicit types. See `Simproc.ofQ` to construct terms of this type. -/
@[inherit_doc Step.continue, inline] def StepQ.continue {e : Q($α)} (r : Option (ResultQ e) := none) : StepQ e
Step.continue r /-- A copy of `Lean.Meta.Simproc` with explicit types. See `Simproc.ofQ` to construct terms of this type. -/
def
definition
StepQ.continue
Root
Qq/Simp.lean
[]
[ "ResultQ", "Simproc.ofQ", "StepQ", "e" ]
null
48
53
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
abbrev SimprocQ : Type := ∀ (u : Level) (α : Q(Sort u)) (e : Q($α)), Meta.SimpM (StepQ e) /-- Build a simproc with Qq-enabled typechecking of inputs and outputs. This calls `inferTypeQ` on the expression and passes the arguments to `proc`. -/
abbrev SimprocQ : Type
∀ (u : Level) (α : Q(Sort u)) (e : Q($α)), Meta.SimpM (StepQ e) /-- Build a simproc with Qq-enabled typechecking of inputs and outputs. This calls `inferTypeQ` on the expression and passes the arguments to `proc`. -/
abbrev
definition
SimprocQ
Root
Qq/Simp.lean
[]
[ "StepQ", "e", "inferTypeQ" ]
A copy of `Lean.Meta.Simproc` with explicit types. See `Simproc.ofQ` to construct terms of this type.
54
58
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
@[inline] def Simproc.ofQ (proc : SimprocQ) : Simproc := fun e => do let ⟨u, α, e⟩ ← inferTypeQ e proc u α e
@[inline] def Simproc.ofQ (proc : SimprocQ) : Simproc
fun e => do let ⟨u, α, e⟩ ← inferTypeQ e proc u α e
def
definition
Simproc.ofQ
Root
Qq/Simp.lean
[]
[ "SimprocQ", "e", "inferTypeQ" ]
Build a simproc with Qq-enabled typechecking of inputs and outputs. This calls `inferTypeQ` on the expression and passes the arguments to `proc`.
59
61
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
structure Context where localDecls : NameMap LocalDecl := {}
structure Context where localDecls : NameMap LocalDecl := {}
structure
structure
Context
Root
Qq/SortLocalDecls.lean
[]
[]
null
18
19
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
structure State where visited : NameSet := {} result : Array LocalDecl := #[]
structure State where visited : NameSet := {} result : Array LocalDecl := #[]
structure
structure
State
Root
Qq/SortLocalDecls.lean
[]
[]
null
21
23
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
abbrev M := ReaderT Context $ StateRefT State MetaM
abbrev M
ReaderT Context $ StateRefT State MetaM
abbrev
definition
M
Root
Qq/SortLocalDecls.lean
[]
[ "Context", "State" ]
null
25
25
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
partial def visitExpr (e : Expr) : M Unit := do match e with | .proj _ _ e => visitExpr e | .forallE _ d b _ => visitExpr d; visitExpr b | .lam _ d b _ => visitExpr d; visitExpr b | .letE _ t v b _ => visitExpr t; visitExpr v; visitExpr b | .app f a => visitExpr f; visitExpr a ...
partial def visitExpr (e : Expr) : M Unit
do match e with | .proj _ _ e => visitExpr e | .forallE _ d b _ => visitExpr d; visitExpr b | .lam _ d b _ => visitExpr d; visitExpr b | .letE _ t v b _ => visitExpr t; visitExpr v; visitExpr b | .app f a => visitExpr f; visitExpr a | .mdata _ b => visitExpr b | .mvar _...
def
definition
visitExpr
Root
Qq/SortLocalDecls.lean
[]
[ "M", "e", "t", "visitLocalDecl" ]
null
28
38
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
partial def visitLocalDecl (localDecl : LocalDecl) : M Unit := do unless (← get).visited.contains localDecl.fvarId.name do modify fun s => { s with visited := s.visited.insert localDecl.fvarId.name } visitExpr localDecl.type if let some val := localDecl.value? then visitExpr val modi...
partial def visitLocalDecl (localDecl : LocalDecl) : M Unit
do unless (← get).visited.contains localDecl.fvarId.name do modify fun s => { s with visited := s.visited.insert localDecl.fvarId.name } visitExpr localDecl.type if let some val := localDecl.value? then visitExpr val modify fun s => { s with result := s.result.push localDecl }
def
definition
visitLocalDecl
Root
Qq/SortLocalDecls.lean
[]
[ "M", "visitExpr" ]
null
40
46
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
def sortLocalDecls (localDecls : Array LocalDecl) : MetaM (Array LocalDecl) := let aux : M (Array LocalDecl) := do localDecls.forM visitLocalDecl; return (← get).result aux.run { localDecls := localDecls.foldl (init := {}) fun s d => s.insert d.fvarId.name d } |>.run' {}
def sortLocalDecls (localDecls : Array LocalDecl) : MetaM (Array LocalDecl)
let aux : M (Array LocalDecl) := do localDecls.forM visitLocalDecl; return (← get).result aux.run { localDecls := localDecls.foldl (init := {}) fun s d => s.insert d.fvarId.name d } |>.run' {}
def
definition
sortLocalDecls
Root
Qq/SortLocalDecls.lean
[]
[ "M", "visitLocalDecl" ]
null
52
54
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
@[expose] def Quoted (α : Expr) := Expr /-- Creates a quoted expression. Requires that `e` has type `α`. You should usually write this using the notation `q($e)`. -/
@[expose] def Quoted (α : Expr)
Expr /-- Creates a quoted expression. Requires that `e` has type `α`. You should usually write this using the notation `q($e)`. -/
def
definition
Quoted
Root
Qq/Typ.lean
[]
[ "e" ]
`Quoted α` is the type of Lean expressions having type `α`. You should usually write this using the notation `Q($α)`.
17
23
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
@[expose] protected def Quoted.unsafeMk (e : Expr) : Quoted α := e
@[expose] protected def Quoted.unsafeMk (e : Expr) : Quoted α
e
def
definition
Quoted.unsafeMk
Root
Qq/Typ.lean
[]
[ "Quoted", "e" ]
Creates a quoted expression. Requires that `e` has type `α`. You should usually write this using the notation `q($e)`.
24
24
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
instance : BEq (Quoted α) := inferInstanceAs (BEq Expr)
instance : BEq (Quoted α)
inferInstanceAs (BEq Expr)
instance
instance
Root
Qq/Typ.lean
[]
[ "Quoted" ]
null
26
26
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
instance : Hashable (Quoted α) := inferInstanceAs (Hashable Expr)
instance : Hashable (Quoted α)
inferInstanceAs (Hashable Expr)
instance
instance
Root
Qq/Typ.lean
[]
[ "Quoted" ]
null
27
27
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
instance : Inhabited (Quoted α) := inferInstanceAs (Inhabited Expr)
instance : Inhabited (Quoted α)
inferInstanceAs (Inhabited Expr)
instance
instance
Root
Qq/Typ.lean
[]
[ "Quoted" ]
null
28
28
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
instance : ToString (Quoted α) := inferInstanceAs (ToString Expr)
instance : ToString (Quoted α)
inferInstanceAs (ToString Expr)
instance
instance
Root
Qq/Typ.lean
[]
[ "Quoted" ]
null
29
29
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
instance : Repr (Quoted α) := inferInstanceAs (Repr Expr)
instance : Repr (Quoted α)
inferInstanceAs (Repr Expr)
instance
instance
Root
Qq/Typ.lean
[]
[ "Quoted" ]
null
30
30
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
instance : CoeOut (Quoted α) Expr where coe e := e
instance : CoeOut (Quoted α) Expr where coe e := e
instance
instance
Root
Qq/Typ.lean
[]
[ "Quoted", "e" ]
null
32
32
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
instance : CoeOut (Quoted α) MessageData where coe := .ofExpr
instance : CoeOut (Quoted α) MessageData where coe := .ofExpr
instance
instance
Root
Qq/Typ.lean
[]
[ "Quoted" ]
null
33
33
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
instance : ToMessageData (Quoted α) where toMessageData := .ofExpr /-- Gets the type of a quoted expression. -/
instance : ToMessageData (Quoted α) where toMessageData := .ofExpr /-- Gets the type of a quoted expression. -/
instance
instance
Root
Qq/Typ.lean
[]
[ "Quoted" ]
null
34
36
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
protected abbrev Quoted.ty (t : Quoted α) : Expr := α /-- `QuotedDefEq lhs rhs` says that the expressions `lhs` and `rhs` are definitionally equal. You should usually write this using the notation `$lhs =Q $rhs`. -/
protected abbrev Quoted.ty (t : Quoted α) : Expr
α /-- `QuotedDefEq lhs rhs` says that the expressions `lhs` and `rhs` are definitionally equal. You should usually write this using the notation `$lhs =Q $rhs`. -/
abbrev
definition
Quoted.ty
Root
Qq/Typ.lean
[]
[ "Quoted", "QuotedDefEq", "t" ]
Gets the type of a quoted expression.
37
43
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
structure QuotedDefEq {α : Quoted (.sort u)} (lhs rhs : Quoted α) : Prop where /-- For a safer constructor, see `Qq.assertDefEqQ`. -/ unsafeIntro :: /-- `QuotedLevelDefEq u v` says that the levels `u` and `v` are definitionally equal. You should usually write this using the notation `$u =QL $v`. -/
structure QuotedDefEq {α : Quoted (.sort u)} (lhs rhs : Quoted α) : Prop where /-- For a safer constructor, see `Qq.assertDefEqQ`. -/ unsafeIntro :: /-- `QuotedLevelDefEq u v` says that the levels `u` and `v` are definitionally equal. You should usually write this using the notation `$u =QL $v`. -/
structure
structure
QuotedDefEq
Root
Qq/Typ.lean
[]
[ "Quoted", "QuotedLevelDefEq" ]
`QuotedDefEq lhs rhs` says that the expressions `lhs` and `rhs` are definitionally equal. You should usually write this using the notation `$lhs =Q $rhs`.
44
52
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
structure QuotedLevelDefEq (u v : Level) : Prop where /-- For a safer constructor, see `Qq.assertLevelDefEqQ`. -/ unsafeIntro ::
structure QuotedLevelDefEq (u v : Level) : Prop where /-- For a safer constructor, see `Qq.assertLevelDefEqQ`. -/ unsafeIntro ::
structure
structure
QuotedLevelDefEq
Root
Qq/Typ.lean
[]
[]
`QuotedLevelDefEq u v` says that the levels `u` and `v` are definitionally equal. You should usually write this using the notation `$u =QL $v`.
53
55
false
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
protected def Quoted.check (e : Quoted α) : MetaM Unit := do let α' ← inferType e unless ← isDefEq α α' do throwError "type mismatch{indentExpr e}\n{← mkHasTypeButIsExpectedMsg α' α}"
protected def Quoted.check (e : Quoted α) : MetaM Unit
do let α' ← inferType e unless ← isDefEq α α' do throwError "type mismatch{indentExpr e}\n{← mkHasTypeButIsExpectedMsg α' α}"
def
definition
Quoted.check
Root
Qq/Typ.lean
[]
[ "Quoted", "e", "n" ]
Check that a term `e : Q(α)` really has type `α`.
59
62
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
protected def QuotedDefEq.check (e : @QuotedDefEq u α lhs rhs) : MetaM Unit := do α.check lhs.check rhs.check unless ← isDefEq lhs rhs do throwError "{lhs} and {rhs} are not defeq"
protected def QuotedDefEq.check (e : @QuotedDefEq u α lhs rhs) : MetaM Unit
do α.check lhs.check rhs.check unless ← isDefEq lhs rhs do throwError "{lhs} and {rhs} are not defeq"
def
definition
QuotedDefEq.check
Root
Qq/Typ.lean
[]
[ "QuotedDefEq", "e" ]
Check that the claim `$lhs =Q $rhs` is actually true; that the two terms are defeq.
66
71
true
https://github.com/leanprover-community/quote4
8d33324ee877e9735d2829bc6f1f439e60cf98b1
statement+proof
End of preview. Expand in Data Studio

Lean4-Qq

Qq provides type-safe expression quotations for constructing object-level expressions in meta-level Lean 4 code.

Source

Schema

Column Type Description
fact string Verbatim declaration: statement followed by proof where present
statement string Verbatim statement (keyword through the closing period)
proof string Verbatim proof block (Proof. ... Qed./Defined.), empty if none
type string Raw declaration keyword
kind string Normalized kind
symbolic_name string Declaration identifier
library string Sub-library
filename string Repository-relative source path
imports list[string] File-level Require/Import modules
deps list[string] Intra-corpus identifiers referenced
docstring string Preceding documentation comment, null if absent
line_start int First source line
line_end int Last source line
has_proof bool Whether a proof block was captured
source_url string Upstream repository
commit string Upstream commit extracted
content_level string statement+proof

Statistics

  • Entries: 173
  • With proof: 103 (59.5%)
  • With docstring: 24 (13.9%)
  • Libraries: 3

By type

Type Count
def 93
instance 27
macro_rules 9
example 8
elab 7
abbrev 7
structure 6
elab_rules 5
macro 5
inductive 3
opaque 2
class 1

Example

example (a b : Nat) (_h : a = b) : True := by
  run_tacq
    let p : Q(Prop) := q($a = $b)
    trace_state
    let t ← Meta.inferType _h
  trivial
  • kind: theorem | symbolic_name: `` | QqTest/commandTest.lean:48

Use

Statement and proof are available both joined (fact) and split (statement, proof) for proof-term modeling, autoformalization, retrieval, and dependency analysis via deps.

Citation

@misc{lean4_qq_dataset,
  title  = {Lean4-Qq},
  author = {Norton, Charles},
  year   = {2026},
  note   = {Extracted from https://github.com/leanprover-community/quote4, commit 8d33324ee877},
  url    = {https://huggingface.co/datasets/phanerozoic/Lean4-Qq}
}
Downloads last month
12

Collection including phanerozoic/Lean4-Qq