SYS_PIPE2                = 453 // { int|sys||pipe2(int *fildes, int flags); }
	SYS_DUP3                 = 454 // { int|sys||dup3(int from, int to, int flags); }
	SYS_KQUEUE1              = 455 // { int|sys||kqueue1(int flags); }
	SYS_PACCEPT              = 456 // { int|sys||paccept(int s, struct sockaddr *name, socklen_t *anamelen, const sigset_t *mask, int flags); }

	SYS_PIPE2                = 453 // { int|sys||pipe2(int *fildes, int flags); }
	SYS_DUP3                 = 454 // { int|sys||dup3(int from, int to, int flags); }
	SYS_KQUEUE1              = 455 // { int|sys||kqueue1(int flags); }
	SYS_PACCEPT              = 456 // { int|sys||paccept(int s, struct sockaddr *name, socklen_t *anamelen, const sigset_t *mask, int flags); }

	SYS_PIPE2                = 453 // { int|sys||pipe2(int *fildes, int flags); }
	SYS_DUP3                 = 454 // { int|sys||dup3(int from, int to, int flags); }
	SYS_KQUEUE1              = 455 // { int|sys||kqueue1(int flags); }
	SYS_PACCEPT              = 456 // { int|sys||paccept(int s, struct sockaddr *name, socklen_t *anamelen, const sigset_t *mask, int flags); }

	SYS_PIPE2                = 453 // { int|sys||pipe2(int *fildes, int flags); }
	SYS_DUP3                 = 454 // { int|sys||dup3(int from, int to, int flags); }
	SYS_KQUEUE1              = 455 // { int|sys||kqueue1(int flags); }
	SYS_PACCEPT              = 456 // { int|sys||paccept(int s, struct sockaddr *name, socklen_t *anamelen, const sigset_t *mask, int flags); }

	SYS_PIPE2                = 453 // { int|sys||pipe2(int *fildes, int flags); }
	SYS_DUP3                 = 454 // { int|sys||dup3(int from, int to, int flags); }
	SYS_KQUEUE1              = 455 // { int|sys||kqueue1(int flags); }
	SYS_PACCEPT              = 456 // { int|sys||paccept(int s, struct sockaddr *name, socklen_t *anamelen, const sigset_t *mask, int flags); }

	Esi      int32
	Edi      int32
	Ebp      int32
	Eax      int32
	Xds      int32
	Xes      int32
	Xfs      int32
	Xgs      int32
	Orig_eax int32
	Eip      int32
	Xcs      int32
	Eflags   int32
	Esp      int32
	Xss      int32
}

type FdSet struct {
	Bits [32]int32
}

type Sysinfo_t struct {
	Uptime    int32
	Loads     [3]uint32
	Totalram  uint32
	Freeram   uint32

	// This is not timing the actual read operation, but the time it takes to prepare the reader.
	stopFn := globalSftpMetrics.log(r, f.AccessKey())
	defer stopFn(0, err)

	flags := r.Pflags()
	if !flags.Read {
		// sanity check
		return nil, os.ErrInvalid
	}

	bucket, object := path2BucketObject(r.Filepath)
	if bucket == "" {
		return nil, errors.New("bucket name cannot be empty")
	}

                    + this.maxParameterCount + ",maxDataCount=" + this.maxDataCount + ",maxSetupCount=" + (int) this.maxSetupCount + ",flags=0x"
                    + Hexdump.toHexString(this.tflags, 2) + ",timeout=" + this.timeout + ",parameterCount=" + this.parameterCount

            "-addMultilineMultiValueOption \n" +
            "'b' 'c' "))
    }

    @Issue("https://github.com/gradle/gradle/issues/1502")
    def "can pass Jflags to javadoc"() {
        buildFile << """
            apply plugin: 'java'
            javadoc.options.JFlags = ["-Dpublic.api=com.sample.tools.VisibilityPublic"]
        """
        writeSourceFile()
        expect:
        succeeds("javadoc", "--info")

		*flags = make(map[*Regexp]printFlags)
	}
	(*flags)[start] = f
	(*flags)[last] |= flagOff // maybe start==last
}

// calcFlags calculates the flags to print around each subexpression in re,
// storing that information in (*flags)[sub] for each affected subexpression.
// The first time an entry needs to be written to *flags, calcFlags allocates the map.
// calcFlags also calculates the flags that must be active or can't be active