"testing"
)

var intTests = []string{
	// 0-octals
	`0_123 = 0123`,
	`0123_456 = 0123456`,

	// decimals
	`1_234 = 1234`,
	`1_234_567 = 1234567`,

	// hexadecimals
	`0X_0 = 0`,
	`0X_1234 = 0x1234`,
	`0X_CAFE_f00d = 0xcafef00d`,

	// octals
	`0o0 = 0`,
	`0o1234 = 01234`,
	`0o01234567 = 01234567`,

	`0O0 = 0`,
	`0O1234 = 01234`,
	`0O01234567 = 01234567`,

	`0o_0 = 0`,

		color.NRGBA64Model,
		color.Alpha16Model,
		color.Gray16Model,
	}
	for _, cm := range testColorModel {
		c := cm.Convert(color.RGBA64{0x1234, 0x1234, 0x1234, 0x1234}) // Premultiplied alpha.
		r, _, _, _ := c.RGBA()
		if r != 0x1234 {
			t.Errorf("%T: want red value 0x%04x got 0x%04x", c, 0x1234, r)
			continue
		}
	}
	testImage := []image{
		NewRGBA64(Rect(0, 0, 10, 10)),
		NewNRGBA64(Rect(0, 0, 10, 10)),

		},
		Name:                "test-name",
		ImageID:             "test-image-id",
		ImageRef:            "test-image-ref",
		Image:               "test-image",
		ImageRuntimeHandler: "",
		Hash:                uint64(0x1234),
		State:               kubecontainer.ContainerStateRunning,
	}

	_, _, m, err := createTestRuntimeManager()
	assert.NoError(t, err)
	got, err := m.toKubeContainer(c)
	assert.NoError(t, err)

	goTool := testenv.GoToolPath(t)

	cmd := testenv.Command(t, goTool, "build", "-o", outFile, "-ldflags", "-buildid 0x1234 -B gobuildid", goFile)
	cmd.Dir = t.TempDir()

	out, err := cmd.CombinedOutput()
	if err != nil {
		t.Logf("%s", out)
		t.Fatal(err)
	}

	expectedGoBuildID := notsha256.Sum256([]byte("0x1234"))

	gnuBuildID, err := buildid.ReadELFNote(outFile, string(ld.ELF_NOTE_BUILDINFO_NAME), ld.ELF_NOTE_BUILDINFO_TAG)

		{ImagLit, "0b10i", "0b10i", ""},
		{ImagLit, "0b10.0i", "0b10.0i", "invalid radix point in binary literal"},

		// octals
		{IntLit, "0o0", "0o0", ""},
		{IntLit, "0o1234", "0o1234", ""},
		{IntLit, "0O1234", "0O1234", ""},

		{IntLit, "0o", "0o", "octal literal has no digits"},
		{IntLit, "0o8123", "0o8123", "invalid digit '8' in octal literal"},

    ByteArrayDataInput in = ByteStreams.newDataInput(data);
    assertEquals(0, in.readUnsignedShort());
    assertEquals(1, in.readUnsignedShort());
    assertEquals(65535, in.readUnsignedShort());
    assertEquals(0x1234, in.readUnsignedShort());
  }

  public void testNewDataInput_readLong() {
    byte[] data = {0x12, 0x34, 0x56, 0x78, 0x76, 0x54, 0x32, 0x10};
    ByteArrayDataInput in = ByteStreams.newDataInput(data);

// match marker with that change ID, as returned by [Marker].
// The markers are elided when displaying the lines to the user.
//
// A match marker has the form “[bisect-match 0x1234]” where
// 0x1234 is the change ID in hexadecimal.
// An alternate form is “[bisect-match 010101]”, giving the change ID in binary.
//
// When [Matcher.Visible] returns false, the match reports are only

		{Float, "0b1P-1", "0b1P-1", "'P' exponent requires hexadecimal mantissa"},

		// octals
		{Int, "0o0", "0o0", ""},
		{Int, "0o1234", "0o1234", ""},
		{Int, "0O1234", "0O1234", ""},

		{Int, "0o", "0o", "octal literal has no digits"},
		{Int, "0o8123", "0o8123", "invalid digit '8' in octal literal"},
		{Int, "0o1293", "0o1293", "invalid digit '9' in octal literal"},

// or if x>>28 != 0xF and value>>28 == 0.
// If x matches the format, then the rest of the fields describe how to interpret x.
// The opBits describe bits that should be extracted from x and added to the opcode.
// For example opBits = 0x1234 means that the value
//
//	(2 bits at offset 1) followed by (4 bits at offset 3)
//
// should be added to op.
// Finally the args describe how to decode the instruction arguments.

// match marker with that change ID, as returned by [Marker].
// The markers are elided when displaying the lines to the user.
//
// A match marker has the form “[bisect-match 0x1234]” where
// 0x1234 is the change ID in hexadecimal.
// An alternate form is “[bisect-match 010101]”, giving the change ID in binary.
//
// When [Matcher.Visible] returns false, the match reports are only