Valu(valn("store", i, 4), OpStore, types.TypeMem, 0, elemType, valn("addr", i, 3),
				valn("v", i, 0), valn("store", i, 3)),
			Goto(blockn(i+1))))
	}

	blocs = append(blocs,
		Bloc(blockn(size+1), Goto("exit")),
		Bloc("exit", Exit("store0-4")),
	)

	return blocs

    }

    def "can write and then read a block multiple times"() {
        expect:
        def block = write("test")
        read(block) == "test"
        read(block) == "test"
        read(block) == "test"
    }

    def "can write multiple blocks and read in any order"() {
        expect:
        def block1 = write("test 1")
        def block2 = write("test 2")
        def block3 = write("test 3")

	b1 = block & 0x0f0f00000f0f0000
	b2 = block & 0x0000f0f00000f0f0
	block ^= b1 ^ b2 ^ b1>>12 ^ b2<<12

	b1 = block >> 32 & 0xff00ff
	b2 = (block & 0xff00ff00)
	block ^= b1<<32 ^ b2 ^ b1<<8 ^ b2<<24

	b1 = block >> 48
	b2 = block << 48
	block ^= b1 ^ b2 ^ b1<<48 ^ b2>>48
	return block
}

// creates 16 28-bit blocks rotated according
// to the rotation schedule.

 * limitations under the License.
 */
package org.gradle.cache.internal.btree;

public abstract class Block {
    static final int LONG_SIZE = 8;
    static final int INT_SIZE = 4;
    static final int SHORT_SIZE = 2;

    private BlockPayload payload;

    protected Block(BlockPayload payload) {
        this.payload = payload;
        payload.setBlock(this);
    }

//	https://csrc.nist.gov/csrc/media/publications/fips/197/final/documents/fips-197.pdf
//	https://csrc.nist.gov/archive/aes/rijndael/Rijndael-ammended.pdf

package aes

import "internal/byteorder"

// Encrypt one block from src into dst, using the expanded key xk.
func encryptBlockGo(xk []uint32, dst, src []byte) {
	_ = src[15] // early bounds check
	s0 := byteorder.BeUint32(src[0:4])
	s1 := byteorder.BeUint32(src[4:8])

        def block1 = server.expectAndBlock("block1")
        def block2 = server.expectAndBlock("block2")

        when:
        // Block until first build has produced red things
        def build1 = executer.withTasks("redThings", "block1", "blueThings").start()
        block1.waitForAllPendingCalls()

        // Block until second build has produced blue things
        def build2 = executer.withTasks("redThings", "blueThings", "block2").start()

import okhttp3.internal.http2.Http2Stream
import okhttp3.internal.http2.Http2Writer

/**
 * Centralisation of central locks according to docs/contribute/concurrency.md
 */
internal object Locks {
  inline fun <T> Dispatcher.withLock(action: () -> T): T {
    contract { callsInPlace(action, InvocationKind.EXACTLY_ONCE) }
    return lock.withLock(action)
  }

  inline fun <T> RealConnection.withLock(action: () -> T): T {

		}
		blockb := bufio.NewWriter(blockf)
		if err := BuildProfile(records).Write(blockb); err != nil {
			http.Error(w, fmt.Sprintf("failed to write profile: %v", err), http.StatusInternalServerError)
			return
		}
		if err := blockb.Flush(); err != nil {
			http.Error(w, fmt.Sprintf("failed to flush temp file: %v", err), http.StatusInternalServerError)
			return
		}
		if err := blockf.Close(); err != nil {

)

// fuse simplifies control flow by joining basic blocks.
func fuse(f *Func, typ fuseType) {
	for changed := true; changed; {
		changed = false
		// Be sure to avoid quadratic behavior in fuseBlockPlain. See issue 13554.
		// Previously this was dealt with using backwards iteration, now fuseBlockPlain
		// handles large runs of blocks.
		for i := len(f.Blocks) - 1; i >= 0; i-- {
			b := f.Blocks[i]
			if typ&fuseTypeIf != 0 {

	}
	rfd, wfd := p[0], p[1]

	// Create a goroutine that blocks on the pipe.
	done := make(chan struct{})
	go func() {
		var data [1]byte
		_, err := syscall.Read(rfd, data[:])
		if err != nil {
			log.Fatalf("failed to read from pipe: %v", err)
		}
		done <- struct{}{}
	}()

	// Give the goroutine ample chance to block on the pipe.
	time.Sleep(10 * time.Millisecond)

	// Start tracing.