func methodsToSerial(this *types.Package, methods []*types.Selection, fset *token.FileSet) []serial.DescribeMethod {
var jmethods []serial.DescribeMethod
for _, meth := range methods {
jmethods = append(jmethods, serial.DescribeMethod{
Name: types.SelectionString(this, meth),
Pos: fset.Position(meth.Obj().Pos()).String(),
})
}
return jmethods
}
func methodsToSerial(this *types.Package, methods []*types.Selection, fset *token.FileSet) []serial.DescribeMethod {
var jmethods []serial.DescribeMethod
for _, meth := range methods {
var ser serial.DescribeMethod
if meth != nil { // may contain nils when called by implements (on a method)
ser = serial.DescribeMethod{
Name: types.SelectionString(this, meth),
Pos: fset.Position(meth.Obj().Pos()).String(),
}
}
jmethods = append(jmethods, ser)
}
return jmethods
}
func (r *describePackageResult) display(printf printfFunc) {
printf(r.node, "%s", r.description)
// Compute max width of name "column".
maxname := 0
for _, mem := range r.members {
if l := len(mem.obj.Name()); l > maxname {
maxname = l
}
}
for _, mem := range r.members {
printf(mem.obj, "\t%s", formatMember(mem.obj, maxname))
for _, meth := range mem.methods {
printf(meth.Obj(), "\t\t%s", types.SelectionString(r.pkg, meth))
}
}
}
// WritePackage writes to buf a human-readable summary of p.
func WritePackage(buf *bytes.Buffer, p *Package) {
fmt.Fprintf(buf, "%s:\n", p)
var names []string
maxname := 0
for name := range p.Members {
if l := len(name); l > maxname {
maxname = l
}
names = append(names, name)
}
from := p.Pkg
sort.Strings(names)
for _, name := range names {
switch mem := p.Members[name].(type) {
case *NamedConst:
fmt.Fprintf(buf, " const %-*s %s = %s\n",
maxname, name, mem.Name(), mem.Value.RelString(from))
case *Function:
fmt.Fprintf(buf, " func %-*s %s\n",
maxname, name, relType(mem.Type(), from))
case *Type:
fmt.Fprintf(buf, " type %-*s %s\n",
maxname, name, relType(mem.Type().Underlying(), from))
for _, meth := range typeutil.IntuitiveMethodSet(mem.Type(), &p.Prog.MethodSets) {
fmt.Fprintf(buf, " %s\n", types.SelectionString(meth, types.RelativeTo(from)))
}
case *Global:
fmt.Fprintf(buf, " var %-*s %s\n",
maxname, name, relType(mem.Type().(*types.Pointer).Elem(), from))
}
}
fmt.Fprintf(buf, "\n")
}
// SelectionString prints selection sel relative to the query position.
func (qpos *QueryPos) SelectionString(sel *types.Selection) string {
return types.SelectionString(qpos.info.Pkg, sel)
}
func (a *analysis) namedType(obj *types.TypeName, implements map[*types.Named]implementsFacts) {
qualifier := types.RelativeTo(obj.Pkg())
T := obj.Type().(*types.Named)
v := &TypeInfoJSON{
Name: obj.Name(),
Size: sizes.Sizeof(T),
Align: sizes.Alignof(T),
Methods: []anchorJSON{}, // (JS wants non-nil)
}
// addFact adds the fact "is implemented by T" (by) or
// "implements T" (!by) to group.
addFact := func(group *implGroupJSON, T types.Type, by bool) {
Tobj := deref(T).(*types.Named).Obj()
var byKind string
if by {
// Show underlying kind of implementing type,
// e.g. "slice", "array", "struct".
s := reflect.TypeOf(T.Underlying()).String()
byKind = strings.ToLower(strings.TrimPrefix(s, "*types."))
}
group.Facts = append(group.Facts, implFactJSON{
ByKind: byKind,
Other: anchorJSON{
Href: a.posURL(Tobj.Pos(), len(Tobj.Name())),
Text: types.TypeString(T, qualifier),
},
})
}
// IMPLEMENTS
if r, ok := implements[T]; ok {
if isInterface(T) {
// "T is implemented by <conc>" ...
// "T is implemented by <iface>"...
// "T implements <iface>"...
group := implGroupJSON{
Descr: types.TypeString(T, qualifier),
}
// Show concrete types first; use two passes.
for _, sub := range r.to {
if !isInterface(sub) {
addFact(&group, sub, true)
}
}
for _, sub := range r.to {
if isInterface(sub) {
addFact(&group, sub, true)
}
}
for _, super := range r.from {
addFact(&group, super, false)
}
v.ImplGroups = append(v.ImplGroups, group)
} else {
// T is concrete.
if r.from != nil {
// "T implements <iface>"...
group := implGroupJSON{
Descr: types.TypeString(T, qualifier),
}
for _, super := range r.from {
addFact(&group, super, false)
}
v.ImplGroups = append(v.ImplGroups, group)
}
if r.fromPtr != nil {
// "*C implements <iface>"...
group := implGroupJSON{
Descr: "*" + types.TypeString(T, qualifier),
}
for _, psuper := range r.fromPtr {
addFact(&group, psuper, false)
}
v.ImplGroups = append(v.ImplGroups, group)
}
}
}
// METHOD SETS
for _, sel := range typeutil.IntuitiveMethodSet(T, &a.prog.MethodSets) {
meth := sel.Obj().(*types.Func)
pos := meth.Pos() // may be 0 for error.Error
v.Methods = append(v.Methods, anchorJSON{
Href: a.posURL(pos, len(meth.Name())),
Text: types.SelectionString(sel, qualifier),
})
}
// Since there can be many specs per decl, we
// can't attach the link to the keyword 'type'
// (as we do with 'func'); we use the Ident.
fi, offset := a.fileAndOffset(obj.Pos())
fi.addLink(aLink{
start: offset,
end: offset + len(obj.Name()),
title: fmt.Sprintf("type info for %s", obj.Name()),
onclick: fmt.Sprintf("onClickTypeInfo(%d)", fi.addData(v)),
})
// Add info for exported package-level types to the package info.
if obj.Exported() && isPackageLevel(obj) {
// TODO(adonovan): Path is not unique!
// It is possible to declare a non-test package called x_test.
a.result.pkgInfo(obj.Pkg().Path()).addType(v)
}
}
// SelectionString prints selection sel relative to the query position.
func (qpos *queryPos) selectionString(sel *types.Selection) string {
return types.SelectionString(sel, types.RelativeTo(qpos.info.Pkg))
}