But in this case, if you could bring the 8 ex-cashier/cooks/now-cleaners, and each one of them (plus you) could take a zone of the house to clean it, you could do all the work in **parallel**, with the extra help, and finish much sooner.

In this scenario, each one of the cleaners (including you) would be a processor, doing their part of the job.

                } else {
                    cleaned.add(arg);
                }
            }
        }

        if (currentArg != null) {
            cleaned.add(currentArg.toString());
        }

        int cleanedSz = cleaned.size();

        String[] cleanArgs;

        if (cleanedSz == 0) {
            cleanArgs = args;
        } else {
            cleanArgs = cleaned.toArray(new String[0]);
        }

                } else {
                    cleaned.add(arg);
                }
            }
        }

        if (currentArg != null) {
            cleaned.add(currentArg.toString());
        }

        int cleanedSz = cleaned.size();

        String[] cleanArgs;

        if (cleanedSz == 0) {
            cleanArgs = args;
        } else {
            cleanArgs = cleaned.toArray(new String[0]);
        }

        .Builder()
        .serialNumber(1L)
        .build()
    val cleaner = get(root.certificate)
    assertThat(cleaner.clean(list(root), "hostname")).isEqualTo(list(root))
  }

  @Test
  fun normalizeUnknownSelfSignedCertificate() {
    val root =
      HeldCertificate
        .Builder()
        .serialNumber(1L)
        .build()
    val cleaner = get()
    assertFailsWith<SSLPeerUnverifiedException> {

                logger.debug("Favorite count: count={}, url={}", count, url);
            }
        }
    }

    /**
     * Cleans up processed access results by updating their status in the data service.
     * This marks the access results as processed and clears the list.
     *
     * @param accessResultList the list of access results to clean up

                        crawlerContext.sessionId, e);
                Thread.currentThread().interrupt();
            }
        }
    }

    /**
     * Cleans up the crawled data for a given session.
     * Deletes URL queue data and access result data, and clears the URL filter.
     * @param sessionId The session ID to clean up.
     */
    public void cleanup(final String sessionId) {
        if (logger.isInfoEnabled()) {

                        cleaned++;
                    } catch (Exception e) {
                        log.error("Failed to auto-close resource: {}", holder.resourceId, e);
                    }
                }
            }
        }

        if (cleaned > 0) {
            log.info("Cleaned up {} abandoned resources", cleaned);
        }
    }

    /**

		c.removeElement(ent)
	}
	c.nextCleanupBucket = (c.nextCleanupBucket + 1) % numBuckets
	c.mu.Unlock()
}

// addToBucket adds entry to expire bucket so that it will be cleaned up when the time comes. Has to be called with lock!
func (c *LRU[K, V]) addToBucket(e *Entry[K, V]) {
	bucketID := (numBuckets + c.nextCleanupBucket - 1) % numBuckets
	e.ExpireBucket = bucketID

        // Clean up leases older than 5ms
        int cleaned = leaseManager.cleanupExpiredLeases(5);

        // At least the first lease should be cleaned
        assertTrue(cleaned >= 1);

        // Check if old lease was removed
        LeaseEntry entry1 = leaseManager.getLease(key1);
        if (cleaned == 2) {
            assertNull(entry1);
            assertNull(leaseManager.getLease(key2));

		localServer.Close()
		remote.debugMsg(debugWaitForExit)
		local.debugMsg(debugWaitForExit)
	}()

	cleanReqs := make(chan struct{})
	gotCall := make(chan struct{})
	defer close(cleanReqs)
	// 1: Block forever
	h1 := func(payload []byte) ([]byte, *RemoteErr) {
		gotCall <- struct{}{}
		<-cleanReqs
		return nil, nil
	}
	// 2: Also block, but with streaming.
	h2 := StreamHandler{