[dev.regabi] cmd/compile: remove Left, Right etc methods [generated]

Now that the generic graph structure methods - Left, Right, and so on -
have been removed from the Node interface, each implementation's uses
can be replaced with direct field access, using more specific names,
and the methods themselves can be deleted.

Passes buildall w/ toolstash -cmp.

[git-generate]

cd src/cmd/compile/internal/ir
rf '
	mv Func.iota Func.Iota_
	mv Name.fn Name.Func_
'

cd ../gc
rf '
ex . ../ir {
        import "cmd/compile/internal/ir"
        import "cmd/compile/internal/types"

        var ns ir.Nodes
        var b bool
        var i64 int64
        var n ir.Node
        var op ir.Op
        var sym *types.Sym
        var class ir.Class

        var decl *ir.Decl
        decl.Left()         -> decl.X
        decl.SetLeft(n)     -> decl.X = n

        var asl *ir.AssignListStmt
        asl.List()          -> asl.Lhs
        asl.PtrList()       -> &asl.Lhs
        asl.SetList(ns)     -> asl.Lhs = ns
        asl.Rlist()         -> asl.Rhs
        asl.PtrRlist()      -> &asl.Rhs
        asl.SetRlist(ns)    -> asl.Rhs = ns
        asl.Colas()         -> asl.Def
        asl.SetColas(b)     -> asl.Def = b

        var as *ir.AssignStmt
        as.Left()           -> as.X
        as.SetLeft(n)       -> as.X = n
        as.Right()          -> as.Y
        as.SetRight(n)      -> as.Y = n
        as.Colas()          -> as.Def
        as.SetColas(b)      -> as.Def = b

        var ao *ir.AssignOpStmt
        ao.Left()           -> ao.X
        ao.SetLeft(n)       -> ao.X = n
        ao.Right()          -> ao.Y
        ao.SetRight(n)      -> ao.Y = n
        ao.SubOp()          -> ao.AsOp
        ao.SetSubOp(op)     -> ao.AsOp = op
        ao.Implicit()       -> ao.IncDec
        ao.SetImplicit(b)   -> ao.IncDec = b

        var bl *ir.BlockStmt
        bl.List()           -> bl.List_
        bl.PtrList()        -> &bl.List_
        bl.SetList(ns)      -> bl.List_ = ns

        var br *ir.BranchStmt
        br.Sym()            -> br.Label
        br.SetSym(sym)      -> br.Label = sym

        var cas *ir.CaseStmt
        cas.List()          -> cas.List_
        cas.PtrList()       -> &cas.List_
        cas.SetList(ns)     -> cas.List_ = ns
        cas.Body()          -> cas.Body_
        cas.PtrBody()       -> &cas.Body_
        cas.SetBody(ns)     -> cas.Body_ = ns
        cas.Rlist()         -> cas.Vars
        cas.PtrRlist()      -> &cas.Vars
        cas.SetRlist(ns)    -> cas.Vars = ns
        cas.Left()          -> cas.Comm
        cas.SetLeft(n)      -> cas.Comm = n

        var fr *ir.ForStmt
        fr.Sym()            -> fr.Label
        fr.SetSym(sym)      -> fr.Label = sym
        fr.Left()           -> fr.Cond
        fr.SetLeft(n)       -> fr.Cond = n
        fr.Right()          -> fr.Post
        fr.SetRight(n)      -> fr.Post = n
        fr.Body()           -> fr.Body_
        fr.PtrBody()        -> &fr.Body_
        fr.SetBody(ns)      -> fr.Body_ = ns
        fr.List()           -> fr.Late
        fr.PtrList()        -> &fr.Late
        fr.SetList(ns)      -> fr.Late = ns
        fr.HasBreak()       -> fr.HasBreak_
        fr.SetHasBreak(b)   -> fr.HasBreak_ = b

        var gs *ir.GoDeferStmt
        gs.Left()           -> gs.Call
        gs.SetLeft(n)       -> gs.Call = n

        var ifs *ir.IfStmt
        ifs.Left()          -> ifs.Cond
        ifs.SetLeft(n)      -> ifs.Cond = n
        ifs.Body()          -> ifs.Body_
        ifs.PtrBody()       -> &ifs.Body_
        ifs.SetBody(ns)     -> ifs.Body_ = ns
        ifs.Rlist()         -> ifs.Else
        ifs.PtrRlist()      -> &ifs.Else
        ifs.SetRlist(ns)    -> ifs.Else = ns
        ifs.Likely()        -> ifs.Likely_
        ifs.SetLikely(b)    -> ifs.Likely_ = b

        var im *ir.InlineMarkStmt
        im.Offset()         -> im.Index
        im.SetOffset(i64)   -> im.Index = i64

        var lab *ir.LabelStmt
        lab.Sym()           -> lab.Label
        lab.SetSym(sym)     -> lab.Label = sym

        var rng *ir.RangeStmt
        rng.Sym()           -> rng.Label
        rng.SetSym(sym)     -> rng.Label = sym
        rng.Right()         -> rng.X
        rng.SetRight(n)     -> rng.X = n
        rng.Body()          -> rng.Body_
        rng.PtrBody()       -> &rng.Body_
        rng.SetBody(ns)     -> rng.Body_ = ns
        rng.List()          -> rng.Vars
        rng.PtrList()       -> &rng.Vars
        rng.SetList(ns)     -> rng.Vars = ns
        rng.HasBreak()      -> rng.HasBreak_
        rng.SetHasBreak(b)  -> rng.HasBreak_ = b
        rng.Colas()         -> rng.Def
        rng.SetColas(b)     -> rng.Def = b

        var ret *ir.ReturnStmt
        ret.List()          -> ret.Results
        ret.PtrList()       -> &ret.Results
        ret.SetList(ns)     -> ret.Results = ns

        var sel *ir.SelectStmt
        sel.List()          -> sel.Cases
        sel.PtrList()       -> &sel.Cases
        sel.SetList(ns)     -> sel.Cases = ns
        sel.Sym()           -> sel.Label
        sel.SetSym(sym)     -> sel.Label = sym
        sel.HasBreak()      -> sel.HasBreak_
        sel.SetHasBreak(b)  -> sel.HasBreak_ = b
        sel.Body()          -> sel.Compiled
        sel.PtrBody()       -> &sel.Compiled
        sel.SetBody(ns)     -> sel.Compiled = ns

        var send *ir.SendStmt
        send.Left()         -> send.Chan
        send.SetLeft(n)     -> send.Chan = n
        send.Right()        -> send.Value
        send.SetRight(n)    -> send.Value = n

        var sw *ir.SwitchStmt
        sw.Left()           -> sw.Tag
        sw.SetLeft(n)       -> sw.Tag = n
        sw.List()           -> sw.Cases
        sw.PtrList()        -> &sw.Cases
        sw.SetList(ns)      -> sw.Cases = ns
        sw.Body()           -> sw.Compiled
        sw.PtrBody()        -> &sw.Compiled
        sw.SetBody(ns)      -> sw.Compiled = ns
        sw.Sym()            -> sw.Label
        sw.SetSym(sym)      -> sw.Label = sym
        sw.HasBreak()       -> sw.HasBreak_
        sw.SetHasBreak(b)   -> sw.HasBreak_ = b

        var tg *ir.TypeSwitchGuard
        tg.Left()           -> tg.Tag
        tg.SetLeft(nil)     -> tg.Tag = nil
        tg.SetLeft(n)       -> tg.Tag = n.(*ir.Ident)
        tg.Right()          -> tg.X
        tg.SetRight(n)      -> tg.X = n

        var adds *ir.AddStringExpr
        adds.List()         -> adds.List_
        adds.PtrList()      -> &adds.List_
        adds.SetList(ns)    -> adds.List_ = ns

        var addr *ir.AddrExpr
        addr.Left()         -> addr.X
        addr.SetLeft(n)     -> addr.X = n
        addr.Right()        -> addr.Alloc
        addr.SetRight(n)    -> addr.Alloc = n

        var bin *ir.BinaryExpr
        bin.Left()          -> bin.X
        bin.SetLeft(n)      -> bin.X = n
        bin.Right()         -> bin.Y
        bin.SetRight(n)     -> bin.Y = n

        var log *ir.LogicalExpr
        log.Left()          -> log.X
        log.SetLeft(n)      -> log.X = n
        log.Right()         -> log.Y
        log.SetRight(n)     -> log.Y = n

        var call *ir.CallExpr
        call.Left()         -> call.X
        call.SetLeft(n)     -> call.X = n
        call.List()         -> call.Args
        call.PtrList()      -> &call.Args
        call.SetList(ns)    -> call.Args = ns
        call.Rlist()        -> call.Rargs
        call.PtrRlist()     -> &call.Rargs
        call.SetRlist(ns)   -> call.Rargs = ns
        call.IsDDD()        -> call.DDD
        call.SetIsDDD(b)    -> call.DDD = b
        call.NoInline()     -> call.NoInline_
        call.SetNoInline(b) -> call.NoInline_ = b
        call.Body()         -> call.Body_
        call.PtrBody()      -> &call.Body_
        call.SetBody(ns)    -> call.Body_ = ns

        var cp *ir.CallPartExpr
        cp.Func()           -> cp.Func_
        cp.Left()           -> cp.X
        cp.SetLeft(n)       -> cp.X = n
        cp.Sym()            -> cp.Method.Sym

        var clo *ir.ClosureExpr
        clo.Func()          -> clo.Func_

        var cr *ir.ClosureReadExpr
        cr.Offset()         -> cr.Offset_

        var cl *ir.CompLitExpr
        cl.Right()          -> cl.Ntype
        cl.SetRight(nil)    -> cl.Ntype = nil
        cl.SetRight(n)      -> cl.Ntype = ir.Node(n).(ir.Ntype)
        cl.List()           -> cl.List_
        cl.PtrList()        -> &cl.List_
        cl.SetList(ns)      -> cl.List_ = ns

        var conv *ir.ConvExpr
        conv.Left()         -> conv.X
        conv.SetLeft(n)     -> conv.X = n

        var ix *ir.IndexExpr
        ix.Left()           -> ix.X
        ix.SetLeft(n)       -> ix.X = n
        ix.Right()          -> ix.Index
        ix.SetRight(n)      -> ix.Index = n
        ix.IndexMapLValue() -> ix.Assigned
        ix.SetIndexMapLValue(b) -> ix.Assigned = b

        var kv *ir.KeyExpr
        kv.Left()           -> kv.Key
        kv.SetLeft(n)       -> kv.Key = n
        kv.Right()          -> kv.Value
        kv.SetRight(n)      -> kv.Value = n

        var sk *ir.StructKeyExpr
        sk.Sym()            -> sk.Field
        sk.SetSym(sym)      -> sk.Field = sym
        sk.Left()           -> sk.Value
        sk.SetLeft(n)       -> sk.Value = n
        sk.Offset()         -> sk.Offset_
        sk.SetOffset(i64)   -> sk.Offset_ = i64

        var ic *ir.InlinedCallExpr
        ic.Body()           -> ic.Body_
        ic.PtrBody()        -> &ic.Body_
        ic.SetBody(ns)      -> ic.Body_ = ns
        ic.Rlist()          -> ic.ReturnVars
        ic.PtrRlist()       -> &ic.ReturnVars
        ic.SetRlist(ns)     -> ic.ReturnVars = ns

        var mak *ir.MakeExpr
        mak.Left()          -> mak.Len
        mak.SetLeft(n)      -> mak.Len = n
        mak.Right()         -> mak.Cap
        mak.SetRight(n)     -> mak.Cap = n

        var par *ir.ParenExpr
        par.Left()          -> par.X
        par.SetLeft(n)      -> par.X = n

        var res *ir.ResultExpr
        res.Offset()        -> res.Offset_
        res.SetOffset(i64)  -> res.Offset_ = i64

        var dot *ir.SelectorExpr
        dot.Left()          -> dot.X
        dot.SetLeft(n)      -> dot.X = n
        dot.Sym()           -> dot.Sel
        dot.SetSym(sym)     -> dot.Sel = sym
        dot.Offset()        -> dot.Offset_
        dot.SetOffset(i64)  -> dot.Offset_ = i64

        var sl *ir.SliceExpr
        sl.Left()           -> sl.X
        sl.SetLeft(n)       -> sl.X = n
        sl.List()           -> sl.List_
        sl.PtrList()        -> &sl.List_
        sl.SetList(ns)      -> sl.List_ = ns

        var sh *ir.SliceHeaderExpr
        sh.Left()           -> sh.Ptr
        sh.SetLeft(n)       -> sh.Ptr = n
        sh.List()           -> sh.LenCap_
        sh.PtrList()        -> &sh.LenCap_
        sh.SetList(ns)      -> sh.LenCap_ = ns

        var st *ir.StarExpr
        st.Left()           -> st.X
        st.SetLeft(n)       -> st.X = n

        var ta *ir.TypeAssertExpr
        ta.Left()           -> ta.X
        ta.SetLeft(n)       -> ta.X = n
        ta.Right()          -> ta.Ntype
        ta.SetRight(n)    -> ta.Ntype = n
        ta.List()           -> ta.Itab
        ta.PtrList()        -> &ta.Itab
        ta.SetList(ns)      -> ta.Itab = ns

        var u *ir.UnaryExpr
        u.Left()            -> u.X
        u.SetLeft(n)        -> u.X = n

        var fn *ir.Func
        fn.Body()           -> fn.Body_
        fn.PtrBody()        -> &fn.Body_
        fn.SetBody(ns)      -> fn.Body_ = ns
        fn.Iota()           -> fn.Iota_
        fn.SetIota(i64)     -> fn.Iota_ = i64
        fn.Func()           -> fn

        var nam *ir.Name
        nam.SubOp()         -> nam.BuiltinOp
        nam.SetSubOp(op)    -> nam.BuiltinOp = op
        nam.Class()         -> nam.Class_
        nam.SetClass(class) -> nam.Class_ = class
        nam.Func()          -> nam.Func_
        nam.Offset()        -> nam.Offset_
        nam.SetOffset(i64)  -> nam.Offset_ = i64
}

ex . ../ir {
        import "cmd/compile/internal/ir"

        var n ir.Nodes

        (&n).Append         -> n.Append
        (&n).AppendNodes    -> n.AppendNodes
        (&n).MoveNodes      -> n.MoveNodes
        (&n).Prepend        -> n.Prepend
        (&n).Set            -> n.Set
        (&n).Set1           -> n.Set1
        (&n).Set2           -> n.Set2
        (&n).Set3           -> n.Set3

        var ntype ir.Ntype
        ir.Node(ntype).(ir.Ntype) -> ntype
}
'

cd ../ir
rf '
rm \
        Decl.Left Decl.SetLeft \
        AssignListStmt.List AssignListStmt.PtrList AssignListStmt.SetList \
        AssignListStmt.Rlist AssignListStmt.PtrRlist AssignListStmt.SetRlist \
        AssignListStmt.Colas AssignListStmt.SetColas \
        AssignStmt.Left AssignStmt.SetLeft \
        AssignStmt.Right AssignStmt.SetRight \
        AssignStmt.Colas AssignStmt.SetColas \
        AssignOpStmt.Left AssignOpStmt.SetLeft \
        AssignOpStmt.Right AssignOpStmt.SetRight \
        AssignOpStmt.SubOp AssignOpStmt.SetSubOp \
        AssignOpStmt.Implicit AssignOpStmt.SetImplicit \
        BlockStmt.List BlockStmt.PtrList BlockStmt.SetList \
        BranchStmt.SetSym \
        CaseStmt.List CaseStmt.PtrList CaseStmt.SetList \
        CaseStmt.Body CaseStmt.PtrBody CaseStmt.SetBody \
        CaseStmt.Rlist CaseStmt.PtrRlist CaseStmt.SetRlist \
        CaseStmt.Left CaseStmt.SetLeft \
        ForStmt.Left ForStmt.SetLeft \
        ForStmt.Right ForStmt.SetRight \
        ForStmt.Body ForStmt.PtrBody ForStmt.SetBody \
        ForStmt.List ForStmt.PtrList ForStmt.SetList \
        ForStmt.HasBreak ForStmt.SetHasBreak \
        ForStmt.Sym ForStmt.SetSym \
        GoDeferStmt.Left GoDeferStmt.SetLeft \
        IfStmt.Left IfStmt.SetLeft \
        IfStmt.Body IfStmt.PtrBody IfStmt.SetBody \
        IfStmt.Rlist IfStmt.PtrRlist IfStmt.SetRlist \
        IfStmt.Likely IfStmt.SetLikely \
        LabelStmt.SetSym \
        RangeStmt.Right RangeStmt.SetRight \
        RangeStmt.Body RangeStmt.PtrBody RangeStmt.SetBody \
        RangeStmt.List RangeStmt.PtrList RangeStmt.SetList \
        RangeStmt.HasBreak RangeStmt.SetHasBreak \
        RangeStmt.Colas RangeStmt.SetColas \
        RangeStmt.Sym RangeStmt.SetSym \
        ReturnStmt.List ReturnStmt.PtrList ReturnStmt.SetList \
        SelectStmt.List SelectStmt.PtrList SelectStmt.SetList \
        SelectStmt.HasBreak SelectStmt.SetHasBreak \
        SelectStmt.Body SelectStmt.PtrBody SelectStmt.SetBody \
        SelectStmt.Sym SelectStmt.SetSym \
        SendStmt.Left SendStmt.SetLeft \
        SendStmt.Right SendStmt.SetRight \
        SwitchStmt.Left SwitchStmt.SetLeft \
        SwitchStmt.List SwitchStmt.PtrList SwitchStmt.SetList \
        SwitchStmt.Body SwitchStmt.PtrBody SwitchStmt.SetBody \
        SwitchStmt.HasBreak SwitchStmt.SetHasBreak \
        SwitchStmt.Sym SwitchStmt.SetSym \
        TypeSwitchGuard.Left TypeSwitchGuard.SetLeft \
        TypeSwitchGuard.Right TypeSwitchGuard.SetRight \
        AddStringExpr.List AddStringExpr.PtrList AddStringExpr.SetList \
        AddrExpr.Left AddrExpr.SetLeft \
        AddrExpr.Right AddrExpr.SetRight \
        BinaryExpr.Left BinaryExpr.SetLeft \
        BinaryExpr.Right BinaryExpr.SetRight \
        LogicalExpr.Left LogicalExpr.SetLeft \
        LogicalExpr.Right LogicalExpr.SetRight \
        CallExpr.Left CallExpr.SetLeft \
        CallExpr.List CallExpr.PtrList CallExpr.SetList \
        CallExpr.Rlist CallExpr.PtrRlist CallExpr.SetRlist \
        CallExpr.NoInline CallExpr.SetNoInline \
        CallExpr.Body CallExpr.PtrBody CallExpr.SetBody \
        CallExpr.IsDDD CallExpr.SetIsDDD \
        CallPartExpr.Left CallPartExpr.SetLeft \
        ClosureReadExpr.Offset \
        ClosureReadExpr.Type \ # provided by miniExpr already
        CompLitExpr.Right CompLitExpr.SetRight \
        CompLitExpr.List CompLitExpr.PtrList CompLitExpr.SetList \
        ConvExpr.Left ConvExpr.SetLeft \
        IndexExpr.Left IndexExpr.SetLeft \
        IndexExpr.Right IndexExpr.SetRight \
        IndexExpr.IndexMapLValue IndexExpr.SetIndexMapLValue \
        KeyExpr.Left KeyExpr.SetLeft \
        KeyExpr.Right KeyExpr.SetRight \
        StructKeyExpr.Left StructKeyExpr.SetLeft \
        StructKeyExpr.Offset StructKeyExpr.SetOffset \
        StructKeyExpr.SetSym \
        InlinedCallExpr.Body InlinedCallExpr.PtrBody InlinedCallExpr.SetBody \
        InlinedCallExpr.Rlist InlinedCallExpr.PtrRlist InlinedCallExpr.SetRlist \
        MakeExpr.Left MakeExpr.SetLeft \
        MakeExpr.Right MakeExpr.SetRight \
        MethodExpr.Left MethodExpr.SetLeft \
        MethodExpr.Right MethodExpr.SetRight \
        MethodExpr.Offset MethodExpr.SetOffset \
        MethodExpr.Class MethodExpr.SetClass \
        ParenExpr.Left ParenExpr.SetLeft \
        ResultExpr.Offset ResultExpr.SetOffset \
        ReturnStmt.IsDDD \
        SelectorExpr.Left SelectorExpr.SetLeft \
        SelectorExpr.Offset SelectorExpr.SetOffset \
        SelectorExpr.SetSym \
        SliceExpr.Left SliceExpr.SetLeft \
        SliceExpr.List SliceExpr.PtrList SliceExpr.SetList \
        SliceHeaderExpr.Left SliceHeaderExpr.SetLeft \
        SliceHeaderExpr.List SliceHeaderExpr.PtrList SliceHeaderExpr.SetList \
        StarExpr.Left StarExpr.SetLeft \
        TypeAssertExpr.Left TypeAssertExpr.SetLeft \
        TypeAssertExpr.Right TypeAssertExpr.SetRight \
        TypeAssertExpr.List TypeAssertExpr.PtrList TypeAssertExpr.SetList \
        UnaryExpr.Left UnaryExpr.SetLeft \
        Func.Body Func.PtrBody Func.SetBody \
        Func.Iota Func.SetIota \
        CallPartExpr.Func ClosureExpr.Func Func.Func Name.Func \

mv BlockStmt.List_ BlockStmt.List
mv CaseStmt.List_ CaseStmt.List
mv CaseStmt.Body_ CaseStmt.Body
mv ForStmt.Body_ ForStmt.Body
mv ForStmt.HasBreak_ ForStmt.HasBreak
mv Func.Iota_ Func.Iota
mv IfStmt.Body_ IfStmt.Body
mv IfStmt.Likely_ IfStmt.Likely
mv RangeStmt.Body_ RangeStmt.Body
mv RangeStmt.HasBreak_ RangeStmt.HasBreak
mv SelectStmt.HasBreak_ SelectStmt.HasBreak
mv SwitchStmt.HasBreak_ SwitchStmt.HasBreak
mv AddStringExpr.List_ AddStringExpr.List
mv CallExpr.NoInline_ CallExpr.NoInline
mv CallExpr.Body_ CallExpr.Body # TODO what is this?
mv CallExpr.DDD CallExpr.IsDDD
mv ClosureReadExpr.Offset_ ClosureReadExpr.Offset
mv CompLitExpr.List_ CompLitExpr.List
mv StructKeyExpr.Offset_ StructKeyExpr.Offset
mv InlinedCallExpr.Body_ InlinedCallExpr.Body
mv ResultExpr.Offset_ ResultExpr.Offset
mv SelectorExpr.Offset_ SelectorExpr.Offset
mv SliceExpr.List_ SliceExpr.List
mv SliceHeaderExpr.LenCap_ SliceHeaderExpr.LenCap
mv Func.Body_ Func.Body
mv CallPartExpr.Func_ CallPartExpr.Func
mv ClosureExpr.Func_ ClosureExpr.Func
mv Name.Func_ Name.Func
'

Change-Id: Ia2ee59649674f83eb123e63fda7a7781cf91cc56
Reviewed-on: https://go-review.googlesource.com/c/go/+/277935
Trust: Russ Cox <rsc@golang.org>
Run-TryBot: Russ Cox <rsc@golang.org>
TryBot-Result: Go Bot <gobot@golang.org>
Reviewed-by: Matthew Dempsky <mdempsky@google.com>
This commit is contained in:
Russ Cox 2020-12-23 00:02:08 -05:00
parent 14d667341f
commit f9d373720e
41 changed files with 2539 additions and 2803 deletions

View file

@ -61,25 +61,25 @@ func (s *InitSchedule) tryStaticInit(nn ir.Node) bool {
return false
}
n := nn.(*ir.AssignStmt)
if ir.IsBlank(n.Left()) && !anySideEffects(n.Right()) {
if ir.IsBlank(n.X) && !anySideEffects(n.Y) {
// Discard.
return true
}
lno := setlineno(n)
defer func() { base.Pos = lno }()
nam := n.Left().(*ir.Name)
return s.staticassign(nam, 0, n.Right(), nam.Type())
nam := n.X.(*ir.Name)
return s.staticassign(nam, 0, n.Y, nam.Type())
}
// like staticassign but we are copying an already
// initialized value r.
func (s *InitSchedule) staticcopy(l *ir.Name, loff int64, rn *ir.Name, typ *types.Type) bool {
if rn.Class() == ir.PFUNC {
if rn.Class_ == ir.PFUNC {
// TODO if roff != 0 { panic }
pfuncsym(l, loff, rn)
return true
}
if rn.Class() != ir.PEXTERN || rn.Sym().Pkg != types.LocalPkg {
if rn.Class_ != ir.PEXTERN || rn.Sym().Pkg != types.LocalPkg {
return false
}
if rn.Defn == nil { // probably zeroed but perhaps supplied externally and of unknown value
@ -92,10 +92,10 @@ func (s *InitSchedule) staticcopy(l *ir.Name, loff int64, rn *ir.Name, typ *type
return false
}
orig := rn
r := rn.Defn.(*ir.AssignStmt).Right()
r := rn.Defn.(*ir.AssignStmt).Y
for r.Op() == ir.OCONVNOP && !types.Identical(r.Type(), typ) {
r = r.(*ir.ConvExpr).Left()
r = r.(*ir.ConvExpr).X
}
switch r.Op() {
@ -128,7 +128,7 @@ func (s *InitSchedule) staticcopy(l *ir.Name, loff int64, rn *ir.Name, typ *type
case ir.OADDR:
r := r.(*ir.AddrExpr)
if a := r.Left(); a.Op() == ir.ONAME {
if a := r.X; a.Op() == ir.ONAME {
a := a.(*ir.Name)
addrsym(l, loff, a, 0)
return true
@ -136,7 +136,7 @@ func (s *InitSchedule) staticcopy(l *ir.Name, loff int64, rn *ir.Name, typ *type
case ir.OPTRLIT:
r := r.(*ir.AddrExpr)
switch r.Left().Op() {
switch r.X.Op() {
case ir.OARRAYLIT, ir.OSLICELIT, ir.OSTRUCTLIT, ir.OMAPLIT:
// copy pointer
addrsym(l, loff, s.inittemps[r], 0)
@ -182,7 +182,7 @@ func (s *InitSchedule) staticcopy(l *ir.Name, loff int64, rn *ir.Name, typ *type
func (s *InitSchedule) staticassign(l *ir.Name, loff int64, r ir.Node, typ *types.Type) bool {
for r.Op() == ir.OCONVNOP {
r = r.(*ir.ConvExpr).Left()
r = r.(*ir.ConvExpr).X
}
switch r.Op() {
@ -206,7 +206,7 @@ func (s *InitSchedule) staticassign(l *ir.Name, loff int64, r ir.Node, typ *type
case ir.OADDR:
r := r.(*ir.AddrExpr)
if name, offset, ok := stataddr(r.Left()); ok {
if name, offset, ok := stataddr(r.X); ok {
addrsym(l, loff, name, offset)
return true
}
@ -214,17 +214,17 @@ func (s *InitSchedule) staticassign(l *ir.Name, loff int64, r ir.Node, typ *type
case ir.OPTRLIT:
r := r.(*ir.AddrExpr)
switch r.Left().Op() {
switch r.X.Op() {
case ir.OARRAYLIT, ir.OSLICELIT, ir.OMAPLIT, ir.OSTRUCTLIT:
// Init pointer.
a := staticname(r.Left().Type())
a := staticname(r.X.Type())
s.inittemps[r] = a
addrsym(l, loff, a, 0)
// Init underlying literal.
if !s.staticassign(a, 0, r.Left(), a.Type()) {
s.append(ir.NewAssignStmt(base.Pos, a, r.Left()))
if !s.staticassign(a, 0, r.X, a.Type()) {
s.append(ir.NewAssignStmt(base.Pos, a, r.X))
}
return true
}
@ -232,8 +232,8 @@ func (s *InitSchedule) staticassign(l *ir.Name, loff int64, r ir.Node, typ *type
case ir.OSTR2BYTES:
r := r.(*ir.ConvExpr)
if l.Class() == ir.PEXTERN && r.Left().Op() == ir.OLITERAL {
sval := ir.StringVal(r.Left())
if l.Class_ == ir.PEXTERN && r.X.Op() == ir.OLITERAL {
sval := ir.StringVal(r.X)
slicebytes(l, loff, sval)
return true
}
@ -284,7 +284,7 @@ func (s *InitSchedule) staticassign(l *ir.Name, loff int64, r ir.Node, typ *type
// Closures with no captured variables are globals,
// so the assignment can be done at link time.
// TODO if roff != 0 { panic }
pfuncsym(l, loff, r.Func().Nname)
pfuncsym(l, loff, r.Func.Nname)
return true
}
closuredebugruntimecheck(r)
@ -297,7 +297,7 @@ func (s *InitSchedule) staticassign(l *ir.Name, loff int64, r ir.Node, typ *type
r := r.(*ir.ConvExpr)
val := ir.Node(r)
for val.Op() == ir.OCONVIFACE {
val = val.(*ir.ConvExpr).Left()
val = val.(*ir.ConvExpr).X
}
if val.Type().IsInterface() {
@ -321,7 +321,7 @@ func (s *InitSchedule) staticassign(l *ir.Name, loff int64, r ir.Node, typ *type
// Create a copy of l to modify while we emit data.
// Emit itab, advance offset.
addrsym(l, loff, itab.Left().(*ir.Name), 0)
addrsym(l, loff, itab.X.(*ir.Name), 0)
// Emit data.
if isdirectiface(val.Type()) {
@ -409,7 +409,7 @@ func isSimpleName(nn ir.Node) bool {
return false
}
n := nn.(*ir.Name)
return n.Class() != ir.PAUTOHEAP && n.Class() != ir.PEXTERN
return n.Class_ != ir.PAUTOHEAP && n.Class_ != ir.PEXTERN
}
func litas(l ir.Node, r ir.Node, init *ir.Nodes) {
@ -439,7 +439,7 @@ func getdyn(n ir.Node, top bool) initGenType {
if !top {
return initDynamic
}
if n.Len/4 > int64(n.List().Len()) {
if n.Len/4 > int64(n.List.Len()) {
// <25% of entries have explicit values.
// Very rough estimation, it takes 4 bytes of instructions
// to initialize 1 byte of result. So don't use a static
@ -454,12 +454,12 @@ func getdyn(n ir.Node, top bool) initGenType {
lit := n.(*ir.CompLitExpr)
var mode initGenType
for _, n1 := range lit.List().Slice() {
for _, n1 := range lit.List.Slice() {
switch n1.Op() {
case ir.OKEY:
n1 = n1.(*ir.KeyExpr).Right()
n1 = n1.(*ir.KeyExpr).Value
case ir.OSTRUCTKEY:
n1 = n1.(*ir.StructKeyExpr).Left()
n1 = n1.(*ir.StructKeyExpr).Value
}
mode |= getdyn(n1, false)
if mode == initDynamic|initConst {
@ -476,9 +476,9 @@ func isStaticCompositeLiteral(n ir.Node) bool {
return false
case ir.OARRAYLIT:
n := n.(*ir.CompLitExpr)
for _, r := range n.List().Slice() {
for _, r := range n.List.Slice() {
if r.Op() == ir.OKEY {
r = r.(*ir.KeyExpr).Right()
r = r.(*ir.KeyExpr).Value
}
if !isStaticCompositeLiteral(r) {
return false
@ -487,9 +487,9 @@ func isStaticCompositeLiteral(n ir.Node) bool {
return true
case ir.OSTRUCTLIT:
n := n.(*ir.CompLitExpr)
for _, r := range n.List().Slice() {
for _, r := range n.List.Slice() {
r := r.(*ir.StructKeyExpr)
if !isStaticCompositeLiteral(r.Left()) {
if !isStaticCompositeLiteral(r.Value) {
return false
}
}
@ -501,7 +501,7 @@ func isStaticCompositeLiteral(n ir.Node) bool {
n := n.(*ir.ConvExpr)
val := ir.Node(n)
for val.Op() == ir.OCONVIFACE {
val = val.(*ir.ConvExpr).Left()
val = val.(*ir.ConvExpr).X
}
if val.Type().IsInterface() {
return val.Op() == ir.ONIL
@ -542,11 +542,11 @@ func fixedlit(ctxt initContext, kind initKind, n *ir.CompLitExpr, var_ ir.Node,
splitnode = func(r ir.Node) (ir.Node, ir.Node) {
if r.Op() == ir.OKEY {
kv := r.(*ir.KeyExpr)
k = indexconst(kv.Left())
k = indexconst(kv.Key)
if k < 0 {
base.Fatalf("fixedlit: invalid index %v", kv.Left())
base.Fatalf("fixedlit: invalid index %v", kv.Key)
}
r = kv.Right()
r = kv.Value
}
a := ir.NewIndexExpr(base.Pos, var_, nodintconst(k))
k++
@ -558,17 +558,17 @@ func fixedlit(ctxt initContext, kind initKind, n *ir.CompLitExpr, var_ ir.Node,
case ir.OSTRUCTLIT:
splitnode = func(rn ir.Node) (ir.Node, ir.Node) {
r := rn.(*ir.StructKeyExpr)
if r.Sym().IsBlank() || isBlank {
return ir.BlankNode, r.Left()
if r.Field.IsBlank() || isBlank {
return ir.BlankNode, r.Value
}
setlineno(r)
return ir.NewSelectorExpr(base.Pos, ir.ODOT, var_, r.Sym()), r.Left()
return ir.NewSelectorExpr(base.Pos, ir.ODOT, var_, r.Field), r.Value
}
default:
base.Fatalf("fixedlit bad op: %v", n.Op())
}
for _, r := range n.List().Slice() {
for _, r := range n.List.Slice() {
a, value := splitnode(r)
if a == ir.BlankNode && !anySideEffects(value) {
// Discard.
@ -635,7 +635,7 @@ func slicelit(ctxt initContext, n *ir.CompLitExpr, var_ ir.Node, init *ir.Nodes)
// copy static to slice
var_ = typecheck(var_, ctxExpr|ctxAssign)
name, offset, ok := stataddr(var_)
if !ok || name.Class() != ir.PEXTERN {
if !ok || name.Class_ != ir.PEXTERN {
base.Fatalf("slicelit: %v", var_)
}
slicesym(name, offset, vstat, t.NumElem())
@ -703,7 +703,7 @@ func slicelit(ctxt initContext, n *ir.CompLitExpr, var_ ir.Node, init *ir.Nodes)
a = ir.NewAssignStmt(base.Pos, temp(t), nil)
a = typecheck(a, ctxStmt)
init.Append(a) // zero new temp
a = a.(*ir.AssignStmt).Left()
a = a.(*ir.AssignStmt).X
} else {
init.Append(ir.NewUnaryExpr(base.Pos, ir.OVARDEF, a))
}
@ -722,14 +722,14 @@ func slicelit(ctxt initContext, n *ir.CompLitExpr, var_ ir.Node, init *ir.Nodes)
// put dynamics into array (5)
var index int64
for _, value := range n.List().Slice() {
for _, value := range n.List.Slice() {
if value.Op() == ir.OKEY {
kv := value.(*ir.KeyExpr)
index = indexconst(kv.Left())
index = indexconst(kv.Key)
if index < 0 {
base.Fatalf("slicelit: invalid index %v", kv.Left())
base.Fatalf("slicelit: invalid index %v", kv.Key)
}
value = kv.Right()
value = kv.Value
}
a := ir.NewIndexExpr(base.Pos, vauto, nodintconst(index))
a.SetBounded(true)
@ -778,16 +778,16 @@ func maplit(n *ir.CompLitExpr, m ir.Node, init *ir.Nodes) {
// make the map var
a := ir.NewCallExpr(base.Pos, ir.OMAKE, nil, nil)
a.SetEsc(n.Esc())
a.PtrList().Set2(ir.TypeNode(n.Type()), nodintconst(int64(n.List().Len())))
a.Args.Set2(ir.TypeNode(n.Type()), nodintconst(int64(n.List.Len())))
litas(m, a, init)
entries := n.List().Slice()
entries := n.List.Slice()
// The order pass already removed any dynamic (runtime-computed) entries.
// All remaining entries are static. Double-check that.
for _, r := range entries {
r := r.(*ir.KeyExpr)
if !isStaticCompositeLiteral(r.Left()) || !isStaticCompositeLiteral(r.Right()) {
if !isStaticCompositeLiteral(r.Key) || !isStaticCompositeLiteral(r.Value) {
base.Fatalf("maplit: entry is not a literal: %v", r)
}
}
@ -813,8 +813,8 @@ func maplit(n *ir.CompLitExpr, m ir.Node, init *ir.Nodes) {
datae := ir.NewCompLitExpr(base.Pos, ir.OARRAYLIT, nil, nil)
for _, r := range entries {
r := r.(*ir.KeyExpr)
datak.PtrList().Append(r.Left())
datae.PtrList().Append(r.Right())
datak.List.Append(r.Key)
datae.List.Append(r.Value)
}
fixedlit(inInitFunction, initKindStatic, datak, vstatk, init)
fixedlit(inInitFunction, initKindStatic, datae, vstate, init)
@ -837,7 +837,7 @@ func maplit(n *ir.CompLitExpr, m ir.Node, init *ir.Nodes) {
body := ir.NewAssignStmt(base.Pos, lhs, rhs)
loop := ir.NewForStmt(base.Pos, nil, cond, incr, nil)
loop.PtrBody().Set1(body)
loop.Body.Set1(body)
loop.PtrInit().Set1(zero)
appendWalkStmt(init, loop)
@ -853,7 +853,7 @@ func maplit(n *ir.CompLitExpr, m ir.Node, init *ir.Nodes) {
for _, r := range entries {
r := r.(*ir.KeyExpr)
index, elem := r.Left(), r.Right()
index, elem := r.Key, r.Value
setlineno(index)
appendWalkStmt(init, ir.NewAssignStmt(base.Pos, tmpkey, index))
@ -890,19 +890,19 @@ func anylit(n ir.Node, var_ ir.Node, init *ir.Nodes) {
}
var r ir.Node
if n.Right() != nil {
if n.Alloc != nil {
// n.Right is stack temporary used as backing store.
appendWalkStmt(init, ir.NewAssignStmt(base.Pos, n.Right(), nil)) // zero backing store, just in case (#18410)
r = nodAddr(n.Right())
appendWalkStmt(init, ir.NewAssignStmt(base.Pos, n.Alloc, nil)) // zero backing store, just in case (#18410)
r = nodAddr(n.Alloc)
} else {
r = ir.NewUnaryExpr(base.Pos, ir.ONEW, ir.TypeNode(n.Left().Type()))
r = ir.NewUnaryExpr(base.Pos, ir.ONEW, ir.TypeNode(n.X.Type()))
r.SetEsc(n.Esc())
}
appendWalkStmt(init, ir.NewAssignStmt(base.Pos, var_, r))
var_ = ir.NewStarExpr(base.Pos, var_)
var_ = typecheck(var_, ctxExpr|ctxAssign)
anylit(n.Left(), var_, init)
anylit(n.X, var_, init)
case ir.OSTRUCTLIT, ir.OARRAYLIT:
n := n.(*ir.CompLitExpr)
@ -910,7 +910,7 @@ func anylit(n ir.Node, var_ ir.Node, init *ir.Nodes) {
base.Fatalf("anylit: not struct/array")
}
if isSimpleName(var_) && n.List().Len() > 4 {
if isSimpleName(var_) && n.List.Len() > 4 {
// lay out static data
vstat := readonlystaticname(t)
@ -935,7 +935,7 @@ func anylit(n ir.Node, var_ ir.Node, init *ir.Nodes) {
components = int64(t.NumFields())
}
// initialization of an array or struct with unspecified components (missing fields or arrays)
if isSimpleName(var_) || int64(n.List().Len()) < components {
if isSimpleName(var_) || int64(n.List.Len()) < components {
appendWalkStmt(init, ir.NewAssignStmt(base.Pos, var_, nil))
}
@ -958,34 +958,34 @@ func anylit(n ir.Node, var_ ir.Node, init *ir.Nodes) {
// It returns true if n's effects have been added to init,
// in which case n should be dropped from the program by the caller.
func oaslit(n *ir.AssignStmt, init *ir.Nodes) bool {
if n.Left() == nil || n.Right() == nil {
if n.X == nil || n.Y == nil {
// not a special composite literal assignment
return false
}
if n.Left().Type() == nil || n.Right().Type() == nil {
if n.X.Type() == nil || n.Y.Type() == nil {
// not a special composite literal assignment
return false
}
if !isSimpleName(n.Left()) {
if !isSimpleName(n.X) {
// not a special composite literal assignment
return false
}
if !types.Identical(n.Left().Type(), n.Right().Type()) {
if !types.Identical(n.X.Type(), n.Y.Type()) {
// not a special composite literal assignment
return false
}
switch n.Right().Op() {
switch n.Y.Op() {
default:
// not a special composite literal assignment
return false
case ir.OSTRUCTLIT, ir.OARRAYLIT, ir.OSLICELIT, ir.OMAPLIT:
if refersToCommonName(n.Left(), n.Right()) {
if refersToCommonName(n.X, n.Y) {
// not a special composite literal assignment
return false
}
anylit(n.Right(), n.Left(), init)
anylit(n.Y, n.X, init)
}
return true
@ -1015,21 +1015,21 @@ func stataddr(n ir.Node) (name *ir.Name, offset int64, ok bool) {
case ir.ODOT:
n := n.(*ir.SelectorExpr)
if name, offset, ok = stataddr(n.Left()); !ok {
if name, offset, ok = stataddr(n.X); !ok {
break
}
offset += n.Offset()
offset += n.Offset
return name, offset, true
case ir.OINDEX:
n := n.(*ir.IndexExpr)
if n.Left().Type().IsSlice() {
if n.X.Type().IsSlice() {
break
}
if name, offset, ok = stataddr(n.Left()); !ok {
if name, offset, ok = stataddr(n.X); !ok {
break
}
l := getlit(n.Right())
l := getlit(n.Index)
if l < 0 {
break
}
@ -1058,14 +1058,14 @@ func (s *InitSchedule) initplan(n ir.Node) {
case ir.OARRAYLIT, ir.OSLICELIT:
n := n.(*ir.CompLitExpr)
var k int64
for _, a := range n.List().Slice() {
for _, a := range n.List.Slice() {
if a.Op() == ir.OKEY {
kv := a.(*ir.KeyExpr)
k = indexconst(kv.Left())
k = indexconst(kv.Key)
if k < 0 {
base.Fatalf("initplan arraylit: invalid index %v", kv.Left())
base.Fatalf("initplan arraylit: invalid index %v", kv.Key)
}
a = kv.Right()
a = kv.Value
}
s.addvalue(p, k*n.Type().Elem().Width, a)
k++
@ -1073,25 +1073,25 @@ func (s *InitSchedule) initplan(n ir.Node) {
case ir.OSTRUCTLIT:
n := n.(*ir.CompLitExpr)
for _, a := range n.List().Slice() {
for _, a := range n.List.Slice() {
if a.Op() != ir.OSTRUCTKEY {
base.Fatalf("initplan structlit")
}
a := a.(*ir.StructKeyExpr)
if a.Sym().IsBlank() {
if a.Field.IsBlank() {
continue
}
s.addvalue(p, a.Offset(), a.Left())
s.addvalue(p, a.Offset, a.Value)
}
case ir.OMAPLIT:
n := n.(*ir.CompLitExpr)
for _, a := range n.List().Slice() {
for _, a := range n.List.Slice() {
if a.Op() != ir.OKEY {
base.Fatalf("initplan maplit")
}
a := a.(*ir.KeyExpr)
s.addvalue(p, -1, a.Right())
s.addvalue(p, -1, a.Value)
}
}
}
@ -1135,9 +1135,9 @@ func isZero(n ir.Node) bool {
case ir.OARRAYLIT:
n := n.(*ir.CompLitExpr)
for _, n1 := range n.List().Slice() {
for _, n1 := range n.List.Slice() {
if n1.Op() == ir.OKEY {
n1 = n1.(*ir.KeyExpr).Right()
n1 = n1.(*ir.KeyExpr).Value
}
if !isZero(n1) {
return false
@ -1147,9 +1147,9 @@ func isZero(n ir.Node) bool {
case ir.OSTRUCTLIT:
n := n.(*ir.CompLitExpr)
for _, n1 := range n.List().Slice() {
for _, n1 := range n.List.Slice() {
n1 := n1.(*ir.StructKeyExpr)
if !isZero(n1.Left()) {
if !isZero(n1.Value) {
return false
}
}
@ -1164,16 +1164,16 @@ func isvaluelit(n ir.Node) bool {
}
func genAsStatic(as *ir.AssignStmt) {
if as.Left().Type() == nil {
if as.X.Type() == nil {
base.Fatalf("genAsStatic as.Left not typechecked")
}
name, offset, ok := stataddr(as.Left())
if !ok || (name.Class() != ir.PEXTERN && as.Left() != ir.BlankNode) {
base.Fatalf("genAsStatic: lhs %v", as.Left())
name, offset, ok := stataddr(as.X)
if !ok || (name.Class_ != ir.PEXTERN && as.X != ir.BlankNode) {
base.Fatalf("genAsStatic: lhs %v", as.X)
}
switch r := as.Right(); r.Op() {
switch r := as.Y; r.Op() {
case ir.OLITERAL:
litsym(name, offset, r, int(r.Type().Width))
return
@ -1183,13 +1183,13 @@ func genAsStatic(as *ir.AssignStmt) {
return
case ir.ONAME:
r := r.(*ir.Name)
if r.Offset() != 0 {
if r.Offset_ != 0 {
base.Fatalf("genAsStatic %+v", as)
}
if r.Class() == ir.PFUNC {
if r.Class_ == ir.PFUNC {
pfuncsym(name, offset, r)
return
}
}
base.Fatalf("genAsStatic: rhs %v", as.Right())
base.Fatalf("genAsStatic: rhs %v", as.Y)
}