return hasChanges;
    }

    /**
     * Get and increment inconsistency count
     *
     * @return the current inconsistency count
     */
    public int getInconsistencyCount() {
        return inconsistencyCount.getAndIncrement();
    }

    /**
     * Reset inconsistency count
     */
    public void resetInconsistencyCount() {
        inconsistencyCount.set(0);

            assertEquals(2 + (count * 2), encoded);
            // Note: size() returns 4 + count*2, but encode returns 2 + count*2
            // This is an implementation inconsistency in the original code
            assertNotEquals(context.size(), encoded);
            assertEquals(4 + (count * 2), context.size());
        }

        @Test

	idx := 0
	for {
		mapID := formatUUID(args.UID, idx)
		resource, ok := l.lockUID[mapID]
		if !ok {
			return idx > 0, nil
		}
		lris, ok := l.lockMap[resource]
		if !ok {
			// Unexpected  inconsistency, delete.
			delete(l.lockUID, mapID)
			idx++
			continue
		}
		reply = true
		l.removeEntry(resource, dsync.LockArgs{UID: args.UID}, &lris)
		idx++
	}
}

    assertEquals(initialFiles.length + 1, updatedFiles.length);
}
```

## 9. Error Handling

### 9.1 Cache Consistency
```java
public class CacheConsistencyManager {
    public void handleInconsistency(String directoryPath, String fileName) {
        log.warn("Cache inconsistency detected for: {}/{}", directoryPath, fileName);
        
        // Invalidate affected cache entries

      Class<X> exceptionType, ClosingFunction<? super X, ? extends V> fallback, Executor executor) {
    return catchingMoreGeneric(exceptionType, fallback, executor);
  }

  // Avoids generic type capture inconsistency problems where |? extends V| is incompatible with V.
  private <X extends Throwable, W extends V> ClosingFuture<V> catchingMoreGeneric(
      Class<X> exceptionType, ClosingFunction<? super X, W> fallback, Executor executor) {

      Class<X> exceptionType, ClosingFunction<? super X, ? extends V> fallback, Executor executor) {
    return catchingMoreGeneric(exceptionType, fallback, executor);
  }

  // Avoids generic type capture inconsistency problems where |? extends V| is incompatible with V.
  private <X extends Throwable, W extends V> ClosingFuture<V> catchingMoreGeneric(
      Class<X> exceptionType, ClosingFunction<? super X, W> fallback, Executor executor) {

	dobjects := make([]ObjectInfo, len(poolIndices))

	// Delete concurrently in all server pools that reported no error or read quorum error
	// where the read quorum issue is from metadata inconsistency.
	var wg sync.WaitGroup
	for idx, pe := range poolIndices {
		if v, ok := pe.Err.(InsufficientReadQuorum); ok && v.Type != RQInconsistentMeta {
			derrs[idx] = InsufficientWriteQuorum{}
			continue
		}

        // When/Then
        assertDoesNotThrow(() -> {
            PropertyConfiguration testConfig = new PropertyConfiguration(props);
            // Configuration should handle inconsistent min/max versions
            assertNotNull(testConfig.getMinimumVersion());
            assertNotNull(testConfig.getMaximumVersion());
        });
    }

    @Test

	var inconsistent int
	for i, meta := range metaArr {
		if disks[i] == nil {
			// Assuming offline drives as inconsistent,
			// to be safe and fallback to original
			// distribution order.
			inconsistent++
			continue
		}
		if !meta.IsValid() {
			inconsistent++
			continue
		}
		if meta.XLV1 != fi.XLV1 {
			inconsistent++
			continue
		}

### Consistency Guarantees

MinIO follows strict **read-after-write** and **list-after-write** consistency model for all i/o operations both in distributed and standalone modes. This consistency model is only guaranteed if you use disk filesystems such as xfs, zfs or btrfs etc.. for distributed setup.