runtime.Gosched()
			}
			atomic.StoreInt32(&done, 0)
			// Exit without unwinding stack barriers.
			runtime.Goexit()
		}()

		// Generate some garbage.
		x[i] = make([]byte, 1024*1024)

		// Give GC some time to install stack barriers in the G.
		time.Sleep(50 * time.Microsecond)
		atomic.StoreInt32(&done, 1)
		for atomic.LoadInt32(&done) == 1 {
			runtime.Gosched()
		}
	}

        then:
        0 * context.progress(_)

        when:
        operation.logProcessedBytes(512 * 1)
        operation.logProcessedBytes(512 * 2)
        then:
        1 * context.progress(1024, 10240, "bytes", "1 KiB/10 KiB downloaded")
        1 * context.progress(2048, 10240, "bytes", "2 KiB/10 KiB downloaded")
        0 * context.progress(_)
    }

    def "last chunk of bytes <1KiB is not logged"() {

        1 * resource.contentLength >> 1072
        1 * delegate.upload(_, location) >> { resource, destination ->
            def stream = resource.open();
            assert stream.read(new byte[1024]) == 1024
            assert stream.read(new byte[1024]) == 48
        }
        1 * inputStream.read(_, 0, 1024) >> 1024
        1 * inputStream.read(_, 0, 1024) >> 48

        .build();
  };

  private final OkHttpClient client;

  public RewriteResponseCacheControl(File cacheDirectory) throws Exception {
    Cache cache = new Cache(cacheDirectory, 1024 * 1024);
    cache.evictAll();

    client = new OkHttpClient.Builder()
        .cache(cache)
        .build();
  }

  public void run() throws Exception {
    for (int i = 0; i < 5; i++) {

        return effectiveJvmOptions;
    }

    public JavaInfo getJvm() {
        return jvm;
    }

    public boolean isLowMemoryProcess() {
        return Runtime.getRuntime().maxMemory() <= 64L * 1024 * 1024; // 64MB is our default for a launcher process
    }

    static JvmOptions inferJvmOptions(FileCollectionFactory fileCollectionFactory, List<String> arguments) {

    }

    public HeapProportionalCacheSizer() {
        this(calculateMaxHeapMB());
    }

    private static int calculateMaxHeapMB() {
        return (int) (Runtime.getRuntime().maxMemory() / (1024 * 1024));
    }

    private double calculateRatioToDefaultAvailableHeap() {
        double defaultAvailableHeapSpace = DEFAULT_SIZES_MAX_HEAP_MB - ASSUMED_USED_HEAP;
        double availableHeapSpace = maxHeapMB - reservedHeap;

 */
public class LineBufferingOutputStream extends OutputStream {
    private final static int LINE_MAX_LENGTH = 1024 * 1024; // Split line if a single line goes over 1 MB
    private boolean hasBeenClosed;
    private final TextStream handler;
    private StreamByteBuffer buffer;
    private final OutputStream output;

	}

	// Totalram holds the total usable memory. Unit holds the size of a memory unit in bytes. Multiply them and convert to MB
	actual := uint64(info.Totalram) * uint64(info.Unit) / 1024 / 1024
	if actual < mc.Mem {
		errorList = append(errorList, errors.Errorf("the system RAM (%d MB) is less than the minimum %d MB", actual, mc.Mem))
	}
	return warnings, errorList
}

        getOnly = false,
      )
    runBatch(dnsProviders, names)
    val dnsCache =
      Cache(
        directory = File("./target/TestDohMain.cache.${System.currentTimeMillis()}"),
        maxSize = 10L * 1024 * 1024,
      )
    println("Bad targets\n***********\n")
    val url = "https://dns.cloudflare.com/.not-so-well-known/run-dmc-query".toHttpUrl()
    val badProviders =
      listOf(
        DnsOverHttps.Builder()

}

@test "Wheel conforms to upstream size limitations" {
    WHEEL_MEGABYTES=$(stat --format %s "$TF_WHEEL" | awk '{print int($1/(1024*1024))}')
    # Googlers: search for "test_tf_whl_size"
    case "$TF_WHEEL" in
        # CPU:
        *cpu*manylinux*) LARGEST_OK_SIZE=220 ;;
        # GPU:
        *manylinux*)     LARGEST_OK_SIZE=580 ;;