mirror of
https://github.com/golang/go
synced 2024-11-22 20:40:03 -07:00
[dev.typeparams] cmd/compile: dictionary/shape cleanup
- Removed gcshapeType - we're going with more granular shapes for now, and gradually coarsening later if needed. - Put in early return in getDictionarySym(), so the entire rest of the function can be un-indented by one level. - Removed some duplicated infoprint calls, and fixed one infoprint message in getGfInfo. Change-Id: I13acce8fdabdb21e903275b53ff78a1e6a378de2 Reviewed-on: https://go-review.googlesource.com/c/go/+/339901 Trust: Dan Scales <danscales@google.com> Run-TryBot: Dan Scales <danscales@google.com> TryBot-Result: Go Bot <gobot@golang.org> Reviewed-by: Keith Randall <khr@golang.org>
This commit is contained in:
Dan Scales
parent
3cdf8b429e
commit
5dcb5e2cea
@ -8,7 +8,6 @@
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package noder
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import (
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"bytes"
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"cmd/compile/internal/base"
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"cmd/compile/internal/ir"
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"cmd/compile/internal/objw"
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@ -19,7 +18,6 @@ import (
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"cmd/internal/src"
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"fmt"
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"go/constant"
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"strconv"
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)
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// Enable extra consistency checks.
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@ -536,220 +534,6 @@ func (g *irgen) getDictOrSubdict(declInfo *instInfo, n ir.Node, nameNode *ir.Nam
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return dict, usingSubdict
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}
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func addGcType(fl []*types.Field, t *types.Type) []*types.Field {
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return append(fl, types.NewField(base.Pos, typecheck.Lookup("F"+strconv.Itoa(len(fl))), t))
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}
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const INTTYPE = types.TINT64 // XX fix for 32-bit arch
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const UINTTYPE = types.TUINT64 // XX fix for 32-bit arch
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const INTSTRING = "i8" // XX fix for 32-bit arch
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const UINTSTRING = "u8" // XX fix for 32-bit arch
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// accumGcshape adds fields to fl resulting from the GCshape transformation of
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// type t. The string associated with the GCshape transformation of t is added to
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// buf. fieldSym is the sym of the field associated with type t, if it is in a
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// struct. fieldSym could be used to have special naming for blank fields, etc.
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func accumGcshape(fl []*types.Field, buf *bytes.Buffer, t *types.Type, fieldSym *types.Sym) []*types.Field {
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// t.Kind() is already the kind of the underlying type, so no need to
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// reference t.Underlying() to reference the underlying type.
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assert(t.Kind() == t.Underlying().Kind())
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switch t.Kind() {
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case types.TINT8:
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fl = addGcType(fl, types.Types[types.TINT8])
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buf.WriteString("i1")
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case types.TUINT8:
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fl = addGcType(fl, types.Types[types.TUINT8])
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buf.WriteString("u1")
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case types.TINT16:
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fl = addGcType(fl, types.Types[types.TINT16])
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buf.WriteString("i2")
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case types.TUINT16:
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fl = addGcType(fl, types.Types[types.TUINT16])
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buf.WriteString("u2")
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case types.TINT32:
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fl = addGcType(fl, types.Types[types.TINT32])
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buf.WriteString("i4")
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case types.TUINT32:
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fl = addGcType(fl, types.Types[types.TUINT32])
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buf.WriteString("u4")
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case types.TINT64:
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fl = addGcType(fl, types.Types[types.TINT64])
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buf.WriteString("i8")
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case types.TUINT64:
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fl = addGcType(fl, types.Types[types.TUINT64])
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buf.WriteString("u8")
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case types.TINT:
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fl = addGcType(fl, types.Types[INTTYPE])
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buf.WriteString(INTSTRING)
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case types.TUINT, types.TUINTPTR:
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fl = addGcType(fl, types.Types[UINTTYPE])
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buf.WriteString(UINTSTRING)
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case types.TCOMPLEX64:
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fl = addGcType(fl, types.Types[types.TFLOAT32])
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fl = addGcType(fl, types.Types[types.TFLOAT32])
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buf.WriteString("f4")
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buf.WriteString("f4")
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case types.TCOMPLEX128:
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fl = addGcType(fl, types.Types[types.TFLOAT64])
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fl = addGcType(fl, types.Types[types.TFLOAT64])
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buf.WriteString("f8")
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buf.WriteString("f8")
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case types.TFLOAT32:
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fl = addGcType(fl, types.Types[types.TFLOAT32])
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buf.WriteString("f4")
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case types.TFLOAT64:
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fl = addGcType(fl, types.Types[types.TFLOAT64])
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buf.WriteString("f8")
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case types.TBOOL:
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fl = addGcType(fl, types.Types[types.TINT8])
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buf.WriteString("i1")
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case types.TPTR:
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fl = addGcType(fl, types.Types[types.TUNSAFEPTR])
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buf.WriteString("p")
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case types.TFUNC:
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fl = addGcType(fl, types.Types[types.TUNSAFEPTR])
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buf.WriteString("p")
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case types.TSLICE:
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fl = addGcType(fl, types.Types[types.TUNSAFEPTR])
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fl = addGcType(fl, types.Types[INTTYPE])
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fl = addGcType(fl, types.Types[INTTYPE])
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buf.WriteString("p")
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buf.WriteString(INTSTRING)
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buf.WriteString(INTSTRING)
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case types.TARRAY:
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n := t.NumElem()
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if n == 1 {
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fl = accumGcshape(fl, buf, t.Elem(), nil)
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} else if n > 0 {
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// Represent an array with more than one element as its
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// unique type, since it must be treated differently for
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// regabi.
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fl = addGcType(fl, t)
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buf.WriteByte('[')
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buf.WriteString(strconv.Itoa(int(n)))
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buf.WriteString("](")
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var ignore []*types.Field
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// But to determine its gcshape name, we must call
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// accumGcShape() on t.Elem().
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accumGcshape(ignore, buf, t.Elem(), nil)
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buf.WriteByte(')')
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}
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case types.TSTRUCT:
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nfields := t.NumFields()
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for i, f := range t.Fields().Slice() {
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fl = accumGcshape(fl, buf, f.Type, f.Sym)
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// Check if we need to add an alignment field.
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var pad int64
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if i < nfields-1 {
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pad = t.Field(i+1).Offset - f.Offset - f.Type.Width
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} else {
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pad = t.Width - f.Offset - f.Type.Width
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}
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if pad > 0 {
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// There is padding between fields or at end of
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// struct. Add an alignment field.
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fl = addGcType(fl, types.NewArray(types.Types[types.TUINT8], pad))
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buf.WriteString("a")
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buf.WriteString(strconv.Itoa(int(pad)))
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}
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}
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case types.TCHAN:
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fl = addGcType(fl, types.Types[types.TUNSAFEPTR])
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buf.WriteString("p")
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case types.TMAP:
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fl = addGcType(fl, types.Types[types.TUNSAFEPTR])
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buf.WriteString("p")
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case types.TINTER:
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fl = addGcType(fl, types.Types[types.TUNSAFEPTR])
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fl = addGcType(fl, types.Types[types.TUNSAFEPTR])
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buf.WriteString("pp")
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case types.TFORW, types.TANY:
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assert(false)
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case types.TSTRING:
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fl = addGcType(fl, types.Types[types.TUNSAFEPTR])
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fl = addGcType(fl, types.Types[INTTYPE])
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buf.WriteString("p")
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buf.WriteString(INTSTRING)
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case types.TUNSAFEPTR:
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fl = addGcType(fl, types.Types[types.TUNSAFEPTR])
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buf.WriteString("p")
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default: // Everything TTYPEPARAM and below in list of Kinds
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assert(false)
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}
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return fl
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}
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// gcshapeType returns the GCshape type and name corresponding to type t.
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func gcshapeType(t *types.Type) (*types.Type, string) {
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var fl []*types.Field
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buf := bytes.NewBufferString("")
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// Call CallSize so type sizes and field offsets are available.
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types.CalcSize(t)
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instType := t.Sym() != nil && t.IsFullyInstantiated()
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if instType {
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// We distinguish the gcshape of all top-level instantiated type from
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// normal concrete types, even if they have the exact same underlying
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// "shape", because in a function instantiation, any method call on
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// this type arg will be a generic method call (requiring a
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// dictionary), rather than a direct method call on the underlying
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// type (no dictionary). So, we add the instshape prefix to the
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// normal gcshape name, and will make it a defined type with that
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// name below.
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buf.WriteString("instshape-")
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}
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fl = accumGcshape(fl, buf, t, nil)
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// TODO: Should gcshapes be in a global package, so we don't have to
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// duplicate in each package? Or at least in the specified source package
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// of a function/method instantiation?
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gcshape := types.NewStruct(types.LocalPkg, fl)
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gcname := buf.String()
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if instType {
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// Lookup or create type with name 'gcname' (with instshape prefix).
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newsym := t.Sym().Pkg.Lookup(gcname)
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if newsym.Def != nil {
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gcshape = newsym.Def.Type()
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} else {
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newt := typecheck.NewIncompleteNamedType(t.Pos(), newsym)
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newt.SetUnderlying(gcshape.Underlying())
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gcshape = newt
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}
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}
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assert(gcshape.Size() == t.Size())
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return gcshape, buf.String()
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}
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// checkFetchBody checks if a generic body can be fetched, but hasn't been loaded
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// yet. If so, it imports the body.
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func checkFetchBody(nameNode *ir.Name) {
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@ -1521,131 +1305,135 @@ func (g *irgen) getDictionarySym(gf *ir.Name, targs []*types.Type, isMeth bool)
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sym := typecheck.MakeDictName(gf.Sym(), targs, isMeth)
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// Initialize the dictionary, if we haven't yet already.
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if lsym := sym.Linksym(); len(lsym.P) == 0 {
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info := g.getGfInfo(gf)
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lsym := sym.Linksym()
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if len(lsym.P) > 0 {
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// We already started creating this dictionary and its lsym.
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return sym
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}
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infoPrint("=== Creating dictionary %v\n", sym.Name)
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off := 0
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// Emit an entry for each targ (concrete type or gcshape).
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for _, t := range targs {
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infoPrint(" * %v\n", t)
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s := reflectdata.TypeLinksym(t)
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off = objw.SymPtr(lsym, off, s, 0)
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markTypeUsed(t, lsym)
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}
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subst := typecheck.Tsubster{
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Tparams: info.tparams,
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Targs: targs,
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}
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// Emit an entry for each derived type (after substituting targs)
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for _, t := range info.derivedTypes {
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ts := subst.Typ(t)
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infoPrint(" - %v\n", ts)
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s := reflectdata.TypeLinksym(ts)
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off = objw.SymPtr(lsym, off, s, 0)
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markTypeUsed(ts, lsym)
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}
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// Emit an entry for each subdictionary (after substituting targs)
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for _, n := range info.subDictCalls {
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var sym *types.Sym
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switch n.Op() {
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case ir.OCALL:
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call := n.(*ir.CallExpr)
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if call.X.Op() == ir.OXDOT {
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var nameNode *ir.Name
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se := call.X.(*ir.SelectorExpr)
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if types.IsInterfaceMethod(se.Selection.Type) {
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// This is a method call enabled by a type bound.
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tmpse := ir.NewSelectorExpr(base.Pos, ir.OXDOT, se.X, se.Sel)
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tmpse = typecheck.AddImplicitDots(tmpse)
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tparam := tmpse.X.Type()
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assert(tparam.IsTypeParam())
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recvType := targs[tparam.Index()]
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if recvType.IsInterface() || len(recvType.RParams()) == 0 {
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// No sub-dictionary entry is
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// actually needed, since the
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// type arg is not an
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// instantiated type that
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// will have generic methods.
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break
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}
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// This is a method call for an
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// instantiated type, so we need a
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// sub-dictionary.
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targs := recvType.RParams()
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genRecvType := recvType.OrigSym.Def.Type()
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nameNode = typecheck.Lookdot1(call.X, se.Sel, genRecvType, genRecvType.Methods(), 1).Nname.(*ir.Name)
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sym = g.getDictionarySym(nameNode, targs, true)
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} else {
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// This is the case of a normal
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// method call on a generic type.
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nameNode = call.X.(*ir.SelectorExpr).Selection.Nname.(*ir.Name)
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subtargs := deref(call.X.(*ir.SelectorExpr).X.Type()).RParams()
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s2targs := make([]*types.Type, len(subtargs))
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for i, t := range subtargs {
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s2targs[i] = subst.Typ(t)
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}
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sym = g.getDictionarySym(nameNode, s2targs, true)
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info := g.getGfInfo(gf)
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infoPrint("=== Creating dictionary %v\n", sym.Name)
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off := 0
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// Emit an entry for each targ (concrete type or gcshape).
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for _, t := range targs {
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infoPrint(" * %v\n", t)
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s := reflectdata.TypeLinksym(t)
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off = objw.SymPtr(lsym, off, s, 0)
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markTypeUsed(t, lsym)
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}
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subst := typecheck.Tsubster{
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Tparams: info.tparams,
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Targs: targs,
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}
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// Emit an entry for each derived type (after substituting targs)
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for _, t := range info.derivedTypes {
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ts := subst.Typ(t)
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infoPrint(" - %v\n", ts)
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s := reflectdata.TypeLinksym(ts)
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off = objw.SymPtr(lsym, off, s, 0)
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markTypeUsed(ts, lsym)
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}
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// Emit an entry for each subdictionary (after substituting targs)
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for _, n := range info.subDictCalls {
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var sym *types.Sym
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switch n.Op() {
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case ir.OCALL:
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call := n.(*ir.CallExpr)
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if call.X.Op() == ir.OXDOT {
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var nameNode *ir.Name
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se := call.X.(*ir.SelectorExpr)
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if types.IsInterfaceMethod(se.Selection.Type) {
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// This is a method call enabled by a type bound.
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tmpse := ir.NewSelectorExpr(base.Pos, ir.OXDOT, se.X, se.Sel)
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tmpse = typecheck.AddImplicitDots(tmpse)
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tparam := tmpse.X.Type()
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assert(tparam.IsTypeParam())
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recvType := targs[tparam.Index()]
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if recvType.IsInterface() || len(recvType.RParams()) == 0 {
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// No sub-dictionary entry is
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// actually needed, since the
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// type arg is not an
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// instantiated type that
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// will have generic methods.
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break
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}
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// This is a method call for an
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// instantiated type, so we need a
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// sub-dictionary.
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targs := recvType.RParams()
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genRecvType := recvType.OrigSym.Def.Type()
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nameNode = typecheck.Lookdot1(call.X, se.Sel, genRecvType, genRecvType.Methods(), 1).Nname.(*ir.Name)
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sym = g.getDictionarySym(nameNode, targs, true)
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} else {
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inst := call.X.(*ir.InstExpr)
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var nameNode *ir.Name
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var meth *ir.SelectorExpr
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var isMeth bool
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if meth, isMeth = inst.X.(*ir.SelectorExpr); isMeth {
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nameNode = meth.Selection.Nname.(*ir.Name)
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} else {
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nameNode = inst.X.(*ir.Name)
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}
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subtargs := typecheck.TypesOf(inst.Targs)
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// This is the case of a normal
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// method call on a generic type.
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nameNode = call.X.(*ir.SelectorExpr).Selection.Nname.(*ir.Name)
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subtargs := deref(call.X.(*ir.SelectorExpr).X.Type()).RParams()
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s2targs := make([]*types.Type, len(subtargs))
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for i, t := range subtargs {
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subtargs[i] = subst.Typ(t)
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s2targs[i] = subst.Typ(t)
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}
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sym = g.getDictionarySym(nameNode, subtargs, isMeth)
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sym = g.getDictionarySym(nameNode, s2targs, true)
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}
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} else {
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inst := call.X.(*ir.InstExpr)
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var nameNode *ir.Name
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var meth *ir.SelectorExpr
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var isMeth bool
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if meth, isMeth = inst.X.(*ir.SelectorExpr); isMeth {
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nameNode = meth.Selection.Nname.(*ir.Name)
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} else {
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nameNode = inst.X.(*ir.Name)
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}
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case ir.OFUNCINST:
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inst := n.(*ir.InstExpr)
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nameNode := inst.X.(*ir.Name)
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subtargs := typecheck.TypesOf(inst.Targs)
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for i, t := range subtargs {
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subtargs[i] = subst.Typ(t)
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}
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sym = g.getDictionarySym(nameNode, subtargs, false)
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case ir.OXDOT:
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selExpr := n.(*ir.SelectorExpr)
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subtargs := deref(selExpr.X.Type()).RParams()
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s2targs := make([]*types.Type, len(subtargs))
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for i, t := range subtargs {
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s2targs[i] = subst.Typ(t)
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}
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nameNode := selExpr.Selection.Nname.(*ir.Name)
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sym = g.getDictionarySym(nameNode, s2targs, true)
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default:
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assert(false)
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sym = g.getDictionarySym(nameNode, subtargs, isMeth)
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}
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if sym == nil {
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// Unused sub-dictionary entry, just emit 0.
|
||||
off = objw.Uintptr(lsym, off, 0)
|
||||
infoPrint(" - Unused subdict entry\n")
|
||||
} else {
|
||||
off = objw.SymPtr(lsym, off, sym.Linksym(), 0)
|
||||
infoPrint(" - Subdict %v\n", sym.Name)
|
||||
case ir.OFUNCINST:
|
||||
inst := n.(*ir.InstExpr)
|
||||
nameNode := inst.X.(*ir.Name)
|
||||
subtargs := typecheck.TypesOf(inst.Targs)
|
||||
for i, t := range subtargs {
|
||||
subtargs[i] = subst.Typ(t)
|
||||
}
|
||||
sym = g.getDictionarySym(nameNode, subtargs, false)
|
||||
|
||||
case ir.OXDOT:
|
||||
selExpr := n.(*ir.SelectorExpr)
|
||||
subtargs := deref(selExpr.X.Type()).RParams()
|
||||
s2targs := make([]*types.Type, len(subtargs))
|
||||
for i, t := range subtargs {
|
||||
s2targs[i] = subst.Typ(t)
|
||||
}
|
||||
nameNode := selExpr.Selection.Nname.(*ir.Name)
|
||||
sym = g.getDictionarySym(nameNode, s2targs, true)
|
||||
|
||||
default:
|
||||
assert(false)
|
||||
}
|
||||
|
||||
delay := &delayInfo{
|
||||
gf: gf,
|
||||
targs: targs,
|
||||
sym: sym,
|
||||
off: off,
|
||||
if sym == nil {
|
||||
// Unused sub-dictionary entry, just emit 0.
|
||||
off = objw.Uintptr(lsym, off, 0)
|
||||
infoPrint(" - Unused subdict entry\n")
|
||||
} else {
|
||||
off = objw.SymPtr(lsym, off, sym.Linksym(), 0)
|
||||
infoPrint(" - Subdict %v\n", sym.Name)
|
||||
}
|
||||
g.dictSymsToFinalize = append(g.dictSymsToFinalize, delay)
|
||||
g.instTypeList = append(g.instTypeList, subst.InstTypeList...)
|
||||
}
|
||||
|
||||
delay := &delayInfo{
|
||||
gf: gf,
|
||||
targs: targs,
|
||||
sym: sym,
|
||||
off: off,
|
||||
}
|
||||
g.dictSymsToFinalize = append(g.dictSymsToFinalize, delay)
|
||||
g.instTypeList = append(g.instTypeList, subst.InstTypeList...)
|
||||
return sym
|
||||
}
|
||||
|
||||
@ -1805,11 +1593,6 @@ func (g *irgen) getGfInfo(gn *ir.Name) *gfInfo {
|
||||
} else if n.Op() == ir.OXDOT && !n.(*ir.SelectorExpr).Implicit() &&
|
||||
n.(*ir.SelectorExpr).Selection != nil &&
|
||||
len(deref(n.(*ir.SelectorExpr).X.Type()).RParams()) > 0 {
|
||||
if n.(*ir.SelectorExpr).X.Op() == ir.OTYPE {
|
||||
infoPrint(" Closure&subdictionary required at generic meth expr %v\n", n)
|
||||
} else {
|
||||
infoPrint(" Closure&subdictionary required at generic meth value %v\n", n)
|
||||
}
|
||||
if hasTParamTypes(deref(n.(*ir.SelectorExpr).X.Type()).RParams()) {
|
||||
if n.(*ir.SelectorExpr).X.Op() == ir.OTYPE {
|
||||
infoPrint(" Closure&subdictionary required at generic meth expr %v\n", n)
|
||||
@ -1849,7 +1632,7 @@ func (g *irgen) getGfInfo(gn *ir.Name) *gfInfo {
|
||||
info.itabConvs = append(info.itabConvs, n)
|
||||
}
|
||||
if n.Op() == ir.OXDOT && n.(*ir.SelectorExpr).X.Type().IsTypeParam() {
|
||||
infoPrint(" Itab for interface conv: %v\n", n)
|
||||
infoPrint(" Itab for bound call: %v\n", n)
|
||||
info.itabConvs = append(info.itabConvs, n)
|
||||
}
|
||||
if (n.Op() == ir.ODOTTYPE || n.Op() == ir.ODOTTYPE2) && !n.(*ir.TypeAssertExpr).Type().IsInterface() && !n.(*ir.TypeAssertExpr).X.Type().IsEmptyInterface() {
|
||||
|
||||
Loading…
Reference in New Issue
Block a user