LocalCache<?, ?> map = CacheTesting.toLocalCache(cache);

    assertThat(map.segments).hasLength(4);
    // 1 is as low as it goes, not 0. it feels dirty to know this/test this.
    assertEquals(1, map.segments[0].table.length());
    assertEquals(1, map.segments[1].table.length());
    assertEquals(1, map.segments[2].table.length());

                public static abstract class TestAction implements WorkAction<WorkParameters.None> {
                    @Override
                    public void execute() {
                        // Make the ClassLoader "dirty" by trying to load something from it
                        assert Thread.currentThread().getContextClassLoader().getResource("/TestResource.txt") != null;
                    }
                }
            }

	p("// But vet doesn't know ADJSP, so suppress vet stack checking")
	p("NOP SP")

	l.save()

	// Apparently, the signal handling code path in darwin kernel leaves
	// the upper bits of Y registers in a dirty state, which causes
	// many SSE operations (128-bit and narrower) become much slower.
	// Clear the upper bits to get to a clean state. See issue #37174.
	// It is safe here as Go code don't use the upper bits of Y registers.

}

func fakeVersion() version.Info {
	return version.Info{
		Major:        "42",
		Minor:        "42",
		GitVersion:   "42",
		GitCommit:    "34973274ccef6ab4dfaaf86599792fa9c3fe4689",
		GitTreeState: "Dirty",
		BuildDate:    time.Now().String(),
		GoVersion:    goruntime.Version(),
		Compiler:     goruntime.Compiler,
		Platform:     fmt.Sprintf("%s/%s", goruntime.GOOS, goruntime.GOARCH),
	}
}

	// at this point, we know we have a coherent view of e.work.  It is entirely possible
	// that our workqueue has another item requeued to it, but we'll pick it up early.  This ok
	// because the next time will go into our dirty list

	work := e.work[ns]
	delete(e.work, ns)
	delete(e.dirtyWork, ns)
	e.inProgress.Insert(ns)
	return ns, work, false
}

// prettyPrint formats a resource list for usage in errors

So, to balance that out, imagine the following short story:

> You have to clean a big, dirty house.

*Yep, that's the whole story*.

---

There's no waiting 🕙 anywhere, just a lot of work to be done, on multiple places of the house.

            }
            try {
                return cached.orNull();
            } finally {
                lock.readLock().unlock();
            }
        }

        /**
         * Removes dirty entries from the cache. Calling System.currentTimeMillis() is costly so we should try to limit calls to this method. This method will only trigger cleanup at most once per
         * 30s.
         */

var hookExecBadConn func() bool

func (s *fakeStmt) Exec(args []driver.Value) (driver.Result, error) {
	panic("Using ExecContext")
}

var errFakeConnSessionDirty = errors.New("fakedb: session is dirty")

func (s *fakeStmt) ExecContext(ctx context.Context, args []driver.NamedValue) (driver.Result, error) {
	if s.panic == "Exec" {
		panic(s.panic)
	}
	if s.closed {
		return nil, errClosed
	}

	// terminates, and the easiest way to prove it is to add this map.
	//
	// Then the proof of termination is this:
	// On every iteration where we mark the roots as dirty, we add some new module
	// version to the map. The universe of module versions is finite, so we must
	// eventually reach a state in which we do not add any version to the map.

		mem.header().rawInMem = false
		resp.WroteToMem = true
		if err != nil {
			resp.Err = err.Error()
		} else {
			// If the values didn't change during minimization then coverageSnapshot is likely
			// a dirty snapshot which represents the very last step of minimization, not the
			// coverage for the initial input. In that case just return the coverage we were