// Count up how many slots were used and record it.
		stats := memstats.heapStats.acquire()
		slotsUsed := int64(s.allocCount) - int64(s.allocCountBeforeCache)
		atomic.Xadd64(&stats.smallAllocCount[spc.sizeclass()], slotsUsed)

		// Flush tinyAllocs.
		if spc == tinySpanClass {
			atomic.Xadd64(&stats.tinyAllocCount, int64(c.tinyAllocs))
			c.tinyAllocs = 0
		}
		memstats.heapStats.release()

				continue
			}
			if s.isUnusedUserArenaChunk() {
				continue
			}
			if sizeclass := s.spanclass.sizeclass(); sizeclass == 0 {
				slow.Mallocs++
				slow.Alloc += uint64(s.elemsize)
			} else {
				slow.Mallocs += uint64(s.allocCount)
				slow.Alloc += uint64(s.allocCount) * uint64(s.elemsize)
				bySize[sizeclass].Mallocs += uint64(s.allocCount)
			}
		}

			}
			lock(&mheap_.lock)
			mheap_.userArena.quarantineList.remove(s)
			mheap_.userArena.readyList.insert(s)
			unlock(&mheap_.lock)
		})
		return false
	}

	if spc.sizeclass() != 0 {
		// Handle spans for small objects.
		if nfreed > 0 {
			// Only mark the span as needing zeroing if we've freed any
			// objects, because a fresh span that had been allocated into,

		}
		throw("runtime.SetFinalizer: pointer not in allocated block")
	}

	// Move base forward if we've got an allocation header.
	if !span.spanclass.noscan() && !heapBitsInSpan(span.elemsize) && span.spanclass.sizeclass() != 0 {
		base += mallocHeaderSize
	}

	if uintptr(e.data) != base {
		// As an implementation detail we allow to set finalizers for an inner byte

	// Collect large allocation stats.
	totalAlloc := consStats.largeAlloc
	nMalloc := consStats.largeAllocCount
	totalFree := consStats.largeFree
	nFree := consStats.largeFreeCount

	// Collect per-sizeclass stats.
	var bySize [_NumSizeClasses]struct {
		Size    uint32
		Mallocs uint64
		Frees   uint64
	}
	for i := range bySize {
		bySize[i].Size = uint32(class_to_size[i])

		// Malloc stats.

        assertThat(pd.getKeyClassOfMap(), is(sameClass(String.class)));
        assertThat(pd.getValueClassOfMap(), is(sameClass(Date.class)));

        ParameterizedClassDesc pcd = pd.getParameterizedClassDesc();
        assertThat(pcd.getRawClass(), is(sameClass(Map.class)));
        assertThat(pcd.getArguments().length, is(2));
        assertThat(pcd.getArguments()[0].getRawClass(), is(sameClass(String.class)));

        assertThat(GenericsUtil.getActualClass(method.getGenericReturnType(), map), is(sameClass(Long.class)));

        method = Hoge.class.getMethod("array");
        assertThat(GenericsUtil.getActualClass(method.getGenericReturnType(), map), is(sameClass(String[].class)));

        method = Hoge.class.getMethod("list");

        when:
        componentUnderTest.applyModificationToClassAccessedFromPrivateMethod()
        run language.compileTaskName

        then:
        outputs.recompiledClasses 'AccessedFromPrivateMethod', 'SomeClass', 'SomeClass$Foo'
    }

    def "change to class accessed from private method body only recompile that class and the direct consumer"() {
        def componentUnderTest = new IncrementalLib()

import spock.lang.Issue
import spock.lang.Specification

class ClassInspectorTest extends Specification {
    def "extracts properties of a Groovy class"() {
        expect:
        def details = ClassInspector.inspect(SomeClass)

        details.propertyNames == ['class', 'metaClass', 'prop', 'readOnly', 'writeOnly'] as Set

        def prop = details.getProperty('prop')
        prop.getters.size() == 1
        prop.setters.size() == 1

        failingTestDetails.assertDuration("1.000s")
        failingTestDetails.assertFailed()

        failingClassFile.assertHasFailure('failed', 'something failed\n\nthis is the failure\nat someClass\n')

        where:
        numThreads << [1, 4]
    }

    def "aggregate same tests run with different results - #numThreads parallel thread(s)"() {
        given: