for index, part := range partsInfo.Parts {
		newPart := Part{}
		newPart.PartNumber = part.PartNumber
		newPart.ETag = "\"" + part.ETag + "\""
		newPart.Size = part.Size
		newPart.LastModified = amztime.ISO8601Format(part.LastModified.UTC())
		newPart.ChecksumCRC32 = part.ChecksumCRC32
		newPart.ChecksumCRC32C = part.ChecksumCRC32C
		newPart.ChecksumSHA1 = part.ChecksumSHA1
		newPart.ChecksumSHA256 = part.ChecksumSHA256

}

// NewVar returns a new variable.
// The arguments set the attributes found with all Objects.
func NewVar(pos token.Pos, pkg *Package, name string, typ Type) *Var {
	return &Var{object: object{nil, pos, pkg, name, typ, 0, colorFor(typ), nopos}}
}

// NewParam returns a new variable representing a function parameter.
func NewParam(pos token.Pos, pkg *Package, name string, typ Type) *Var {

}

// NewVar returns a new variable.
// The arguments set the attributes found with all Objects.
func NewVar(pos syntax.Pos, pkg *Package, name string, typ Type) *Var {
	return &Var{object: object{nil, pos, pkg, name, typ, 0, colorFor(typ), nopos}}
}

// NewParam returns a new variable representing a function parameter.
func NewParam(pos syntax.Pos, pkg *Package, name string, typ Type) *Var {

      auto quantize_output = quantize_op.getOutput();
      auto quantize_type = quantize_output.getType();
      input_types.push_back(quantize_type);
      auto new_arg = bb.addArgument(quantize_type, loc);
      quantize_output.replaceAllUsesWith(new_arg);
      quantize_op.erase();
      arg.dropAllUses();
      bb.eraseArgument(0);
    };

    // This is looking for a pattern: arg -> tfl.quantize

	for i := range xs {
		xs[i] = r.param()
	}
	return types.NewTuple(xs...)
}

func (r *importReader) param() *types.Var {
	pos := r.pos()
	name := r.ident()
	typ := r.typ()
	return types.NewParam(pos, r.currPkg, name, typ)
}

func (r *importReader) bool() bool {
	return r.uint64() != 0
}

func (r *importReader) int64() int64 {
	n, err := binary.ReadVarint(&r.declReader)
	if err != nil {

	}

	return types.NewTuple(params...)
}

func (r *reader) param() *types.Var {
	r.Sync(pkgbits.SyncParam)

	pos := r.pos()
	pkg, name := r.localIdent()
	typ := r.typ()

	return types.NewParam(pos, pkg, name, typ)
}

// @@@ Objects

func (r *reader) obj() (types.Object, []types.Type) {
	r.Sync(pkgbits.SyncObject)

	assert(!r.Bool())

	pkg, name := r.p.objIdx(r.Reloc(pkgbits.RelocObj))

				check.error(field.Name, InvalidSyntaxTree, "anonymous parameter")
				// ok to continue
			}
			par := NewParam(field.Name.Pos(), check.pkg, name, typ)
			check.declare(scope, field.Name, par, scopePos)
			params = append(params, par)
			named = true
		} else {
			// anonymous parameter
			par := NewParam(field.Pos(), check.pkg, "", typ)
			check.recordImplicit(field, par)
			params = append(params, par)

	obj := types2.NewFunc(nopos, pkg, "deferrangefunc", types2.NewSignatureType(nil, nil, nil, nil, types2.NewTuple(types2.NewParam(nopos, pkg, "extra", anyType)), false))
	pkg.Scope().Insert(obj)

	// func panicrangestate()
	obj = types2.NewFunc(nopos, pkg, "panicrangestate", types2.NewSignatureType(nil, nil, nil, types2.NewTuple(types2.NewParam(nopos, pkg, "state", intType)), nil, false))
	pkg.Scope().Insert(obj)

	return pkg
}()

    for (int i = 0; i < params.size(); i++) {
      List<Object> newArgs = Lists.newArrayList(args);
      Object newArg = argGenerators.get(i).generateFresh(params.get(i).getType());

      if (newArg == null || Objects.equal(args.get(i), newArg)) {
        if (params.get(i).getType().getRawType().isEnum()) {
          continue; // Nothing better we can do if it's single-value enum
        }

    for (int i = 0; i < params.size(); i++) {
      List<Object> newArgs = Lists.newArrayList(args);
      Object newArg = argGenerators.get(i).generateFresh(params.get(i).getType());

      if (newArg == null || Objects.equal(args.get(i), newArg)) {
        if (params.get(i).getType().getRawType().isEnum()) {
          continue; // Nothing better we can do if it's single-value enum
        }