func (t *Named) NumMethods() int {
	return len(t.Origin().resolve().methods)
}

// Method returns the i'th method of named type t for 0 <= i < t.NumMethods().
//
// For an ordinary or instantiated type t, the receiver base type of this
// method is the named type t. For an uninstantiated generic type t, each
// method receiver is instantiated with its receiver type parameters.
//

		}
		imp = NewPackage("C", "C")
		imp.fake = true // package scope is not populated
		imp.cgo = check.conf.go115UsesCgo
	} else {
		// ordinary import
		var err error
		if importer := check.conf.Importer; importer == nil {
			err = fmt.Errorf("Config.Importer not installed")
		} else if importerFrom, ok := importer.(ImporterFrom); ok {

func (t *Named) NumMethods() int {
	return len(t.Origin().resolve().methods)
}

// Method returns the i'th method of named type t for 0 <= i < t.NumMethods().
//
// For an ordinary or instantiated type t, the receiver base type of this
// method is the named type t. For an uninstantiated generic type t, each
// method receiver is instantiated with its receiver type parameters.
//

		}
		imp = NewPackage("C", "C")
		imp.fake = true // package scope is not populated
		imp.cgo = check.conf.go115UsesCgo
	} else {
		// ordinary import
		var err error
		if importer := check.conf.Importer; importer == nil {
			err = fmt.Errorf("Config.Importer not installed")
		} else if importerFrom, ok := importer.(ImporterFrom); ok {

		}
		// If there is exactly one result type,
		// associate the function with that type.
		if numResultTypes == 1 {
			typ.funcs.set(fun, r.mode&PreserveAST != 0)
			return
		}
	}

	// just an ordinary function
	r.funcs.set(fun, r.mode&PreserveAST != 0)
}

// lookupTypeParam searches for type parameters named name within the tparams
// field list, returning the relevant identifier if found, or nil if not.

	//       all arguments.
	if id == _Len || id == _Cap {
		defer func(b bool) {
			check.hasCallOrRecv = b
		}(check.hasCallOrRecv)
		check.hasCallOrRecv = false
	}

	// Evaluate arguments for built-ins that use ordinary (value) arguments.
	// For built-ins with special argument handling (make, new, etc.),
	// evaluation is done by the respective built-in code.
	var args []*operand // not valid for _Make, _New, _Offsetof, _Trace
	var nargs int

	//       all arguments.
	if id == _Len || id == _Cap {
		defer func(b bool) {
			check.hasCallOrRecv = b
		}(check.hasCallOrRecv)
		check.hasCallOrRecv = false
	}

	// Evaluate arguments for built-ins that use ordinary (value) arguments.
	// For built-ins with special argument handling (make, new, etc.),
	// evaluation is done by the respective built-in code.
	var args []*operand // not valid for _Make, _New, _Offsetof, _Trace
	var nargs int

			// this the start of a type parameter list, with some caveats:
			// a single name followed by "]" tilts the decision towards an
			// array declaration; a type parameter type that could also be
			// an ordinary expression but which is followed by a comma tilts
			// the decision towards a type parameter list.
			if pname, ptype := extractName(x, p.tok == _Comma); pname != nil && (ptype != nil || p.tok != _Rbrack) {

			}
		} else {
			check.error(noNewVarPos, NoNewVar, "no new variables on left side of :=")
		}
	} else if sKey != nil /* lhs[0] != nil */ {
		// ordinary assignment
		for i, lhs := range lhs {
			if lhs == nil {
				continue
			}

			// assign to lhs iteration variable, if any
			typ := rhs[i]
			if typ == nil {
				continue
			}

		}
		x.expr = call
		// a non-constant result implies a function call
		if x.mode != invalid && x.mode != constant_ {
			check.hasCallOrRecv = true
		}
		return predeclaredFuncs[id].kind
	}

	// ordinary function/method call
	// signature may be generic
	cgocall := x.mode == cgofunc

	// a type parameter may be "called" if all types have the same signature
	sig, _ := coreType(x.typ).(*Signature)
	if sig == nil {