ExpectXML: `<PointerAnonFields></PointerAnonFields>`,
	},

	// Test that name casing matters
	{
		Value:     &NameCasing{Xy: "mixed", XY: "upper", XyA: "mixedA", XYA: "upperA"},
		ExpectXML: `<casing Xy="mixedA" XY="upperA"><Xy>mixed</Xy><XY>upper</XY></casing>`,
	},

	// Test the order in which the XML element name is chosen
	{
		Value: &NamePrecedence{
			FromTag:     XMLNameWithoutTag{Value: "A"},

                    }
            },
            grid: {hoverable: true, clickable: true, markings: background},
            xaxis: xaxis,
            yaxis: {min: determineMinY(data, unit)}, selection: {mode: 'xy'}
        };
        const chart = $.plot('#' + chartId, data, options);
        plots[chartId] = chart;
        function zoomFunction(plot, reset) {
            reset = reset || false;

	}
}

func TestBinarySearch(t *testing.T) {
	str1 := []string{"foo"}
	str2 := []string{"ab", "ca"}
	str3 := []string{"mo", "qo", "vo"}
	str4 := []string{"ab", "ad", "ca", "xy"}

	// slice with repeating elements
	strRepeats := []string{"ba", "ca", "da", "da", "da", "ka", "ma", "ma", "ta"}

	// slice with all element equal
	strSame := []string{"xx", "xx", "xx"}

00000010  1f b9 af fe 6a 87 38 d4  d8 b4 f8 1d ad 05 00 15  |....j.8.........|
00000020  03 02 00 16 54 07 15 34  f4 c3 a2 3e 01 9e 00 cb  |....T..4...>....|

00000190  bd dc 44 fc 58 1d bc 9e  3a 0d 3b 61 13 d6 33 1b  |..D.X...:.;a..3.|
000001a0  97 a8 67 bf e6 d9 1d 34  69 70 93 4a 6c 28 88 01  |..g....4ip.Jl(..|
000001b0  01 9d 78 59 c0 58 66 c3  70 e4 ba 74 e6 0f f7 27  |..xY.Xf.p..t...'|
000001c0  8b dd 05 ac 0d 99 dc e9  c8 2f 16 ee 59 53 91 d7  |........./..YS..|
000001d0  28 27 db ad 85 e6 d0 72  28 81 31 e1 e7 bf dd 95  |('.....r(.1.....|

	if !evacuated(b) {
		// TODO: reuse overflow buckets instead of using new ones, if there
		// is no iterator using the old buckets.  (If !oldIterator.)

		// xy contains the x and y (low and high) evacuation destinations.
		var xy [2]evacDst
		x := &xy[0]
		x.b = (*bmap)(add(h.buckets, oldbucket*uintptr(t.BucketSize)))
		x.k = add(unsafe.Pointer(x.b), dataOffset)
		x.e = add(x.k, abi.MapBucketCount*uintptr(t.KeySize))

00000340  8b 2a ae eb 0e e5 f1 88  ff 3c de f8 ed d7 c3 07  |.*.......<......|
00000350  05 92 bb e5 6d 15 23 c8  54 19 a6 cf d1 4f e2 b1  |....m.#.T....O..|
00000360  a3 4d ff 6f 22 32 5b 58  f7 58 c1 9f 58 59 b5 e2  |.M.o"2[X.X..XY..|
00000370  7b 16 03 03 00 0c 0d 00  00 08 01 01 00 02 04 01  |{...............|
00000380  00 00 16 03 03 00 04 0e  00 00 00                 |...........|
>>> Flow 3 (client to server)

//
//	PublicSuffix("www.buggy.psl") == "xy"
//	PublicSuffix("www2.buggy.psl") == "com"
type testPSL struct{}

func (testPSL) String() string {
	return "testPSL"
}
func (testPSL) PublicSuffix(d string) string {
	if d == "co.uk" || strings.HasSuffix(d, ".co.uk") {
		return "co.uk"
	}
	if d == "www.buggy.psl" {
		return "xy"
	}
	if d == "www2.buggy.psl" {
		return "com"
	}

  const float X = 3.0f, Y = 7.0f;
  TF_Operation* x = Placeholder(graph_, s_, "x", TF_FLOAT);
  TF_Operation* y = Placeholder(graph_, s_, "y", TF_FLOAT);
  TF_Operation* xy = Mul(x, y, graph_, s_, "xy");
  TF_Output dxy_dx, dxy_dy;

  TF_Output outputs[1] = {{xy, 0}};
  TF_Output inputs[1] = {{x, 0}};
  TF_AddGradients(graph_, outputs, 1, inputs, 1, nullptr, s_, &dxy_dx);
  ASSERT_EQ(TF_OK, TF_GetCode(s_)) << TF_Message(s_);

    }
  }

  *rhs_named_label_count = rhs_count;
  return labels;
}

// Generate new unnamed labels for the expression.
// For example, if we have GenerateLabels(2, {'b', 'c', 'd'}) for "...xy"
// We will have "dcxy" for the ellipsis expression since it's rank 4,
// we will have dcbxy if it's rank 5.
std::string GenerateLabels(int count,
                           const llvm::SetVector<char>& available_labels) {