type transformerFunc func(t testing.TB, block cipher.Block, key []byte) value.Transformer

func newGCMTransformer(t testing.TB, block cipher.Block, _ []byte) value.Transformer {
	t.Helper()

	transformer, err := NewGCMTransformer(block)
	if err != nil {
		t.Fatal(err)
	}

	return transformer
}

func newGCMTransformerWithUniqueKeyUnsafeTest(t testing.TB, block cipher.Block, _ []byte) value.Transformer {
	t.Helper()

        ''')
        ClassDoc classDoc = classDoc('Class', content: content)
        BlockDoc block1 = blockDoc('block1', id: 'block1', description: 'block1 description', comment: 'block1 comment', type: 'org.gradle.Type')
        BlockDoc block2 = blockDoc('block2', id: 'block2', description: 'block2 description', comment: 'block2 comment', type: 'org.gradle.Type', multivalued: true)
        _ * classDoc.classProperties >> []

cathedral(thing(a: 12, 123, false))
""")
    }

    def "can add code blocks"() {
        given:
        def block1 = builder.block("Add some thing", "foo.bar")
        block1.propertyAssignment(null, "foo.bar", "bazar", true)
        def block2 = builder.block("Do it again", "foo.bar")
        block2.propertyAssignment(null, "foo.bar", "bazar", true)
        builder.block(null, "other")

        when:

""")
    }

    def "can add code blocks"() {
        given:
        def block1 = builder.block("Add some thing", "foo.bar")
        block1.propertyAssignment(null, "foo.bar", "bazar", true)
        def block2 = builder.block("Do it again", "foo.bar")
        block2.propertyAssignment(null, "foo.bar", "bazar", true)
        builder.block(null, "other")

        when:

		return
	}
	// Self-check: Verify that the instrumented basic blocks are disjoint.
	t := make([]block1, len(f.blocks))
	for i := range f.blocks {
		t[i].Block = f.blocks[i]
		t[i].index = i
	}
	sort.Sort(blockSlice(t))
	for i := 1; i < len(t); i++ {
		if t[i-1].endByte > t[i].startByte {
			fmt.Fprintf(os.Stderr, "cover: internal error: block %d overlaps block %d\n", t[i-1].index, t[i].index)

            }
        });

        for (int i = 0; i < blocks.size() - 1; i++) {
            Block b1 = blocks.get(i).getBlock();
            Block b2 = blocks.get(i + 1).getBlock();
            if (b1.getPos().getPos() + b1.getSize() > b2.getPos().getPos()) {
                throw new IOException(String.format("%s overlaps with %s", b1, b2));
            }
        }
    }

// for the new value. The index must refer to a valid control value.
func (b *Block) ReplaceControl(i int, v *Value) {
	b.Controls[i].Uses--
	b.Controls[i] = v
	v.Uses++
}

// CopyControls replaces the controls for this block with those from the
// provided block. The provided block is not modified.
func (b *Block) CopyControls(from *Block) {
	if b == from {
		return
	}
	b.ResetControls()

// setSeqTable uses the Compression_Mode in mode to set up r.seqTables and
// r.seqTableBits for kind. We store these in the Reader because one of
// the modes simply reuses the value from the last block in the frame.
func (r *Reader) setSeqTable(data block, off int, kind seqCode, mode byte) (int, error) {
	info := &seqCodeInfo[kind]
	switch mode {
	case 0:
		// Predefined_Mode
		r.seqTables[kind] = info.predefTable

	// which claimed the last slot in the block, we're just the last one
	// to finish popping.
	if block.popped.Add(1) == spanSetBlockEntries {
		// Clear the block's pointer.
		blockp.StoreNoWB(nil)

		// Return the block to the block pool.
		spanSetBlockPool.free(block)
	}
	return s
}

// reset resets a spanSet which is empty. It will also clean up
// any left over blocks.
//
// Throws if the buf is not empty.

		switch i % 2 {
		case 0:
			blocs = append(blocs, Bloc(blockn(i),
				If("p", blockn(i+1), blockn(i+2))))
		case 1:
			blocs = append(blocs, Bloc(blockn(i),
				If("p", blockn(i+1), blockn(i-1))))
		}
	}

	blocs = append(blocs,
		Bloc(blockn(size), Goto("exit")),
		Bloc("exit", Exit("mem")),
	)

	return blocs
}

// genManyPred creates an array of blocks where 1/3rd have a successor of the