storageObject.setUpdated(lastModified)
        storageObject.setMd5Hash(md5hash)
        storageObject.setSize(BigInteger.TEN)
        storageObject.setContentType(contentType)
        storageObject.setEtag(Integer.toString(16))

        when:
        def metaData = ResourceMapper.toExternalResourceMetaData(uri, storageObject)

        then:
        metaData != null
        metaData.location == uri

        storageObject.setUpdated(lastModified)
        storageObject.setMd5Hash(md5hash)
        storageObject.setSize(BigInteger.ONE)
        storageObject.setContentType(contentType)
        storageObject.setEtag(Integer.toString(5))

        when:
        def metaData = new GcsResource(Mock(GcsClient), storageObject, uri).getMetaData()

        then:
        metaData != null
        metaData.location == uri

                storageObject.setMd5Hash(md5hash)
                storageObject.setSize(BigInteger.TEN)
                storageObject.setContentType(contentType)
                storageObject.setEtag(Integer.toString(1))
            }
        }

        when:
        def metaData = new GcsResourceConnector(gcsClient).getMetaData(name, false)

        then:
        metaData != null
    }

  void setLastName(String name)
  String getLastName()
// end::managed-type[]
// end::managed-type-and-plugin[]
// end::managed-type-plugin-and-dsl[]

// tag::property-type-int[]
  void setAge(int age)
  int getAge()
// end::property-type-int[]

// tag::property-type-boolean[]
  void setEmployed(boolean isEmployed)
  boolean isEmployed()
// end::property-type-boolean[]

	for _, b := range f.Blocks {
		for _, v := range b.Values {
			for i, a := range v.Args {
				if opcodeTable[a.Op].argLen == 0 {
					key := vkey{a.Op, keyFor(a), a.Aux, a.Type}
					if rv, ok := vals[key]; ok {
						v.SetArg(i, rv)
					}
				}
			}
		}
	}
}

// vkey is a type used to uniquely identify a zero arg value.
type vkey struct {
	op Op
	ai int64       // aux int
	ax Aux         // aux

				if p.Controls[0] != a {
					continue
				}
				if e.i == 0 {
					if ct == nil {
						ct = f.ConstBool(f.Config.Types.Bool, true)
					}
					v.SetArg(i, ct)
				} else {
					if cf == nil {
						cf = f.ConstBool(f.Config.Types.Bool, false)
					}
					v.SetArg(i, cf)
				}
			}
		}
	}

	// Step 2: Redirect control flow around known branches.
	// p:
	//   ... goto b ...
	// b: <- p ...

			for i, a := range v.Args {
				if !a.Type.IsFlags() {
					continue
				}
				if a == flag {
					continue
				}
				// Recalculate a
				c := copyFlags(a, b)
				// Update v.
				v.SetArg(i, c)
				// Remember the most-recently computed flag value.
				flag = a
			}
			// Issue v.
			b.Values = append(b.Values, v)
			if v.clobbersFlags() {
				flag = nil
			}
			if v.Type.IsFlags() {

	}
	return ret
}

// getPV returns the path and value components for the given set flag string, which must be in path=value format.
func getPV(setFlag string) (path string, value string) {
	pv := strings.Split(setFlag, "=")
	if len(pv) != 2 {
		return setFlag, ""
	}
	path, value = strings.TrimSpace(pv[0]), strings.TrimSpace(pv[1])
	return

    protected int result = 0;

    public boolean isFlagSet(int flag) {
        return (flags & flag) == flag;
    }
    public void unsetFlag(int flag) {
        flags &= ~flag;
    }
    public void setFlag(int flag) {
        flags |= flag;
    }
    public DcerpcException getResult() {
        if (result != 0)
            return new DcerpcException(result);
        return null;
    }

}

func doinit() {
	if err := readHWCAP(); err != nil {
		// We failed to read /proc/self/auxv. This can happen if the binary has
		// been given extra capabilities(7) with /bin/setcap.
		//
		// When this happens, we have two options. If the Linux kernel is new
		// enough (4.11+), we can read the arm64 registers directly which'll
		// trap into the kernel and then return back to userspace.
		//