3389233,2,2014-03-29 09:38:12,2014-03-29 09:44:16,N,1,-73.952728271484375,40.789501190185547,-73.950935363769531,40.775600433349609,1,1.10,6.5,0,0.5,1.3,0,,,8.3,1,1,75,263,green,1.81,0.0,0.0,59,43,10.74,1267,168,1,Manhattan,016800,1016800,E,MN33,East...

new(P224Element) var t1 = new(P224Element) var t2 = new(P224Element) z.Square(x) t0.Mul(x, z) z.Square(t0) z.Mul(x, z) t1.Square(z) for s := 1; s < 3; s++ { t1.Square(t1) } t1.Mul(z, t1) t2.Square(t1) for s := 1; s < 6; s++ { t2.Square(t2) } t1.Mul(t1, t2) for s := 0; s < 2; s++ { t1.Square(t1) } t0.Mul(t0, t1) t1.Square(t0) for s := 1; s < 3; s++ { t1.Square(t1) } z.Mul(z, t1) t1.Square(z) for s := 1; s < 14; s++ { t1.Square(t1) } t0.Mul(t0, t1) t1.Square(t0) for s := 1; s < 17; s++ { t1.Square(t1) } z.Mul(z, t1)...

new(P224Element) var t1 = new(P224Element) var t2 = new(P224Element) z.Square(x) t0.Mul(x, z) z.Square(t0) z.Mul(x, z) t1.Square(z) for s := 1; s < 3; s++ { t1.Square(t1) } t1.Mul(z, t1) t2.Square(t1) for s := 1; s < 6; s++ { t2.Square(t2) } t1.Mul(t1, t2) for s := 0; s < 2; s++ { t1.Square(t1) } t0.Mul(t0, t1) t1.Square(t0) for s := 1; s < 3; s++ { t1.Square(t1) } z.Mul(z, t1) t1.Square(z) for s := 1; s < 14; s++ { t1.Square(t1) } t0.Mul(t0, t1) t1.Square(t0) for s := 1; s < 17; s++ { t1.Square(t1) } z.Mul(z, t1)...

Test the Spark installation by running the following compute intensive example, which calculates pi by “throwing darts” at a circle. The program generates points in the unit square ((0,0) to (1,1)) and counts how many points fall within the unit circle within the square. The result approximates pi.

Follow these steps to run the Spark Pi example:

- Login as user **‘spark’**.

{"id":2,"title":"Second Record","desc":"another text","numbers":[2,3,4]}`,
		},
		{
			name:       "indexed-list-square-bracket",
			query:      `SELECT * from s3object s WHERE [7,8.5,9] = s.nested[1]`,
			wantResult: `{"id":3,"title":"Second Record","desc":"another text","nested":[[2,3,4],[7,8.5,9]]}`,
		},
		{
			name:       "indexed-list-square-bracket",
			query:      `SELECT * from s3object s WHERE [7,8.5,9] IN s.nested`,

	VFWNMSACVF	V2, F10, V3			// d75125fe
	VFWNMSACVF	V2, F10, V0, V3			// d75125fc

	// 31.13.8: Vector Floating-Point Square-Root Instruction
	VFSQRTV		V2, V3				// d711204e
	VFSQRTV		V2, V0, V3			// d711204c

	// 31.13.9: Vector Floating-Point Reciprocal Square-Root Estimate Instruction
	VFRSQRT7V	V2, V3				// d711224e
	VFRSQRT7V	V2, V0, V3			// d711224c

can contain references.
</p>

<p>
When multiple values share underlying data, changing one value may change another.
For instance, changing an element of a <a href="#Slice_types">slice</a> will change
that element in the underlying array for all slices that share the array.
</p>

<h3 id="Underlying_types">Underlying types</h3>

<p>

**NOTE:**

1. Open the failure report mentioned in the output.\
If you don't see the report link in the output in the IDE, make sure to select the top-level node in the structured output panel.
The report will explain the errors in detail.
Perhaps, you forgot to add an `@Incubating` annotation or `@since` in the javadoc.

2. Accept the changes.\
If you are sure that the changes are intentional, follow the steps described in the report.

		{strings.Repeat("Ꙁ", 64) + "Ꚁ", '䚀', -1},  // 'Ꚁ' and '䚀' share the same last two bytes

		// 4 bytes
		{"𡌀", '𡌀', 0},
		{"a", '𡌀', -1},
		{"  𡌀", '𡌀', 2},
		{"  a", '𡌀', -1},
		{strings.Repeat("𡋀", 64) + "𡌀", '𡌀', 256}, // test cutover
		{strings.Repeat("𡋀", 64) + "𡌀", '𣌀', -1},  // '𡌀' and '𣌀' share the same last two bytes

		// RuneError should match any invalid UTF-8 byte sequence.