parities := listObjectParities(metaArr, make([]error, len(metaArr)))
		parity := commonParity(parities, 5)
		var match int
		for _, fi := range metaArr {
			if fi.Erasure.ParityBlocks == parity {
				match++
			}
		}
		if match < len(metaArr)-parity {
			t.Fatalf("Test %d: Expected %d drives with parity=%d, but got %d", idx, len(metaArr)-parity, parity, match)
		}
	}

		// and never acceptable. Unlike the JSON serializer, inputs containing duplicate map
		// keys are rejected outright and not surfaced as a strict decoding error.
		DupMapKey: cbor.DupMapKeyEnforcedAPF,

		// For JSON parity, decoding an RFC3339 string into time.Time needs to be accepted
		// with or without tagging. If a tag number is present, it must be valid.
		TimeTag: cbor.DecTagOptional,

// type is flatbuffer but is converted to MLIR during quantization process and
// then converted back to flatbuffer for return. Note that this is part of
// reaching feature parity with the old quantizer for dynamic range
// quantization, specifically for
// third_party/tensorflow/lite/tools/optimize/quantize_weights.h.
// TODO(b/202468183): Selective quantization + quant debugger support for

	if m.IsValid() {
		tags["size"] = m.Size
		tags["mtime"] = m.ModTime.Format(http.TimeFormat)
		tags["data"] = m.Erasure.DataBlocks
		tags["parity"] = m.Erasure.ParityBlocks
	} else {
		tags["invalid-meta"] = true
		tags["data"] = er.setDriveCount - er.defaultParityCount
		tags["parity"] = er.defaultParityCount
	}

	// count the number of offline disks
	offline := 0
	for i := 0; i < len(errs); i++ {
		var found bool

		for partIndex := 0; partIndex < len(latestMeta.Parts); partIndex++ {
			partSize := latestMeta.Parts[partIndex].Size
			partActualSize := latestMeta.Parts[partIndex].ActualSize
			partModTime := latestMeta.Parts[partIndex].ModTime
			partNumber := latestMeta.Parts[partIndex].Number
			partIdx := latestMeta.Parts[partIndex].Index
			partChecksums := latestMeta.Parts[partIndex].Checksums

                val kotlinType =
                    if (declaration is KtParameter && declaration.isVarArg) {
                        // we want full Array<out T> type for parity with FIR implementation
                        bindingContext[BindingContext.VALUE_PARAMETER, declaration]?.returnType
                    } else {
                        bindingContext[BindingContext.TYPE, typeReference]

|----------------------------------------|---------|------------------------------------------------|--------|
| `minio_cluster_config_rrs_parity`      | `gauge` | Reduced redundancy storage class parity        |        |
| `minio_cluster_config_standard_parity` | `gauge` | Standard storage class parity                  |        |

### `/cluster/usage/objects`

		}
	}

	// Only parts with higher part numbers will be listed.
	parts := fi.Parts
	result.Parts = make([]PartInfo, 0, len(parts))
	for _, part := range parts {
		result.Parts = append(result.Parts, PartInfo{
			PartNumber:     part.Number,
			ETag:           part.ETag,
			LastModified:   part.ModTime,
			ActualSize:     part.ActualSize,
			Size:           part.Size,

	listPartsResponse.Parts = make([]Part, len(partsInfo.Parts))
	for index, part := range partsInfo.Parts {
		newPart := Part{}
		newPart.PartNumber = part.PartNumber
		newPart.ETag = "\"" + part.ETag + "\""
		newPart.Size = part.Size
		newPart.LastModified = amztime.ISO8601Format(part.LastModified.UTC())
		newPart.ChecksumCRC32 = part.ChecksumCRC32
		newPart.ChecksumCRC32C = part.ChecksumCRC32C

		// Print a warning at the end of the startup banner so it is more noticeable
		if newObject.BackendInfo().StandardSCParity == 0 {
			warnings = append(warnings, color.YellowBold("- The standard parity is set to 0. This can lead to data loss."))
		}
		objAPI := newObjectLayerFn()
		if objAPI != nil {
			printStorageInfo(objAPI.StorageInfo(GlobalContext, true))
		}
		if len(warnings) > 0 {