}
	}

	type NewColumnStruct struct {
		gorm.Model
		Name    string
		NewName string
	}

	if err := DB.Table("column_structs").Migrator().AddColumn(&NewColumnStruct{}, "NewName"); err != nil {
		t.Fatalf("Failed to add column, got %v", err)
	}

	if !DB.Table("column_structs").Migrator().HasColumn(&NewColumnStruct{}, "NewName") {
		t.Fatalf("Failed to find added column")
	}

	pkgPathName := abi.Name{Bytes: (*byte)(resolveTypeOff(unsafe.Pointer(n.Bytes), nameOff))}
	return pkgPathName.Name()
}

func newName(n, tag string, exported, embedded bool) abi.Name {
	return abi.NewName(n, tag, exported, embedded)
}

/*
 * The compiler knows the exact layout of all the data structures above.
 * The compiler does not know about the data structures and methods below.

// Common productions

func (p *parser) name() *Name {
	// no tracing to avoid overly verbose output

	if p.tok == _Name {
		n := NewName(p.pos(), p.lit)
		p.next()
		return n
	}

	n := NewName(p.pos(), "_")
	p.syntaxError("expected name")
	p.advance()
	return n
}

// IdentifierList = identifier { "," identifier } .
// The first name must be provided.

			// so it is consistent with the one stored in the shared library.
			continue
		}
		name := ldr.SymName(s)
		newName := typeSymbolMangle(name)
		if newName != name {
			ldr.SetSymExtname(s, newName)

			// When linking against a shared library, the Go object file may
			// have reference to the original symbol name whereas the shared

        }
        return copiedConfiguration;
    }

    private DefaultConfiguration newConfiguration(ConfigurationRole role) {
        String newName = getNameWithCopySuffix();
        DetachedConfigurationsProvider configurationsProvider = new DetachedConfigurationsProvider();

// must be modified to conventional names and they are various subtypes.
func (f *xcoffFile) addDwarfSection(s *sym.Section) *XcoffScnHdr64 {
	newName, subtype := xcoffGetDwarfSubtype(s.Name)
	return f.addSection(newName, 0, s.Length, s.Seg.Fileoff+s.Vaddr-s.Seg.Vaddr, STYP_DWARF|subtype)
}

// xcoffGetDwarfSubtype returns the XCOFF name of the DWARF section str
// and its subtype constant.

// A Name is a non-encoded and non-escaped domain name. It is used instead of strings to avoid
// allocations.
type Name struct {
	Data   [255]byte
	Length uint8
}

// NewName creates a new Name from a string.
func NewName(name string) (Name, error) {
	n := Name{Length: uint8(len(name))}
	if len(name) > len(n.Data) {
		return Name{}, errCalcLen
	}
	copy(n.Data[:], name)
	return n, nil
}

	TypeInt128.align = 8
}

// NewNamed returns a new named type for the given type name. obj should be an
// ir.Name. The new type is incomplete (marked as TFORW kind), and the underlying
// type should be set later via SetUnderlying(). References to the type are
// maintained until the type is filled in, so those references can be updated when
// the type is complete.
func NewNamed(obj Object) *Type {
	t := newType(TFORW)

	if addPosition {
		getNewIdent = func(newName string) *ast.Ident {
			mangledIdent := ast.NewIdent(newName)
			if len(newName) == len(r.Name.Go) {
				return mangledIdent
			}
			p := fset.Position((*r.Expr).End())
			if p.Column == 0 {
				return mangledIdent
			}
			return ast.NewIdent(fmt.Sprintf("%s /*line :%d:%d*/", newName, p.Line, p.Column))
		}
	}

			continue
		}
	}
}

// newDefined creates a new defined type named T with the given underlying type.
func newDefined(underlying Type) *Named {
	tname := NewTypeName(nopos, nil, "T", nil)
	return NewNamed(tname, underlying, nil)
}

func TestConvertibleTo(t *testing.T) {
	for _, test := range []struct {
		v, t Type
		want bool
	}{
		{Typ[Int], Typ[Int], true},
		{Typ[Int], Typ[Float32], true},