// and since there is very little actual math. (Probably overflow doesn't matter in practice,
// but at the time this code was written, there was an existing test that used
// go1.99999999999, which does not fit in an int on 32-bit platforms.
// The "big decimal" representation avoids the problem entirely.)
type gover struct {
	major string // decimal
	minor string // decimal or ""
	patch string // decimal or ""

// and since there is very little actual math. (Probably overflow doesn't matter in practice,
// but at the time this code was written, there was an existing test that used
// go1.99999999999, which does not fit in an int on 32-bit platforms.
// The "big decimal" representation avoids the problem entirely.)
type Version struct {
	Major string // decimal
	Minor string // decimal or ""

	# TODO(#45551): cmp stdout graph-1.16.txt


# Unsupported go versions should be rejected, since we don't know
# what versions they would report.
! go mod graph -go=1.99999999999
stderr '^invalid value "1\.99999999999" for flag -go: maximum supported Go version is '$goversion'\nusage: go mod graph \[-go=version\] \[-x\]\nRun ''go help mod graph'' for details.$'


-- go.mod --

	v        float64
	expected string
}{
	{0, "         0 x"},
	{1234.1, "      1234 x"},
	{-1234.1, "     -1234 x"},
	{999.950001, "      1000 x"},
	{999.949999, "       999.9 x"},
	{99.9950001, "       100.0 x"},
	{99.9949999, "        99.99 x"},
	{-99.9949999, "       -99.99 x"},
	{0.000999950001, "         0.001000 x"},
	{0.000999949999, "         0.0009999 x"}, // smallest case
	{0.0000999949999, "         0.0001000 x"},
}

	MaxDurationSizeJSON = 32
	// MaxDatetimeSizeJSON
	// OpenAPI datetime strings follow RFC 3339, section 5.6, and the longest possible
	// such string is 9999-12-31T23:59:59.999999999Z, which has length 30 - we add 2
	// to allow for quotation marks
	MaxDatetimeSizeJSON = 32
	// MinDurationSizeJSON
	// Golang allows a string of 0 to be parsed as a duration, so that plus 2 to account for

	stdFracSecond9 | 5<<stdArgShift: ".99999",
	stdFracSecond9 | 6<<stdArgShift: ".999999",
	stdFracSecond9 | 7<<stdArgShift: ".9999999",
	stdFracSecond9 | 8<<stdArgShift: ".99999999",
	stdFracSecond9 | 9<<stdArgShift: ".999999999",
}

var Quote = quote

var AppendInt = appendInt
var AppendFormatAny = Time.appendFormat
var AppendFormatRFC3339 = Time.appendFormatRFC3339
var ParseAny = parse

	// Non-negative fractions of a second at nanosecond resolution. Negative
	// second values with fractions must still have non-negative nanos values
	// that count forward in time. Must be from 0 to 999,999,999
	// inclusive. This field may be limited in precision depending on context.
	Nanos int32 `json:"nanos" protobuf:"varint,2,opt,name=nanos"`
}

// Timestamp returns the Time as a new Timestamp value.

  }

  public void testFromStringBadPort() {
    // Out-of-range ports.
    checkFromStringCase("google.com:65536", 1, null, 99, false);
    checkFromStringCase("google.com:9999999999", 1, null, 99, false);
    // Invalid port parts.
    checkFromStringCase("google.com:port", 1, null, 99, false);
    checkFromStringCase("google.com:-25", 1, null, 99, false);

			Namespace:   "default",
			Annotations: map[string]string{kubetypes.ConfigSourceAnnotationKey: "file"},
		},
	}

	expectedPods := []*v1.Pod{
		{
			ObjectMeta: metav1.ObjectMeta{
				UID:         "999999999",
				Name:        "taco",
				Namespace:   "default",
				Annotations: map[string]string{kubetypes.ConfigSourceAnnotationKey: "api"},
			},
		},
		staticPod,
	}
	updates := append(expectedPods, mirrorPod)