currentFI := fi

	// Allocate parts similar to incoming slice.
	fi.Parts = make([]ObjectPartInfo, len(parts))

	var checksum hash.Checksum
	checksum.Type = checksumType

	// Validate each part and then commit to disk.
	for i, part := range parts {
		partIdx := objectPartIndex(currentFI.Parts, part.PartNumber)
		// All parts should have same part number.
		if partIdx == -1 {

	}

	var healOnce sync.Once

	for ; partIndex <= lastPartIndex; partIndex++ {
		if length == totalBytesRead {
			break
		}

		partNumber := fi.Parts[partIndex].Number

		// Save the current part name and size.
		partSize := fi.Parts[partIndex].Size

		partLength := partSize - partOffset
		// partLength should be adjusted so that we don't write more data than what was requested.

				return
			}
		}
		for i, p := range listPartsInfo.Parts {
			listPartsInfo.Parts[i].ETag = tryDecryptETag(objectEncryptionKey, p.ETag, kind == crypto.S3)
			listPartsInfo.Parts[i].Size = p.ActualSize
		}
	} else if _, ok := listPartsInfo.UserDefined[ReservedMetadataPrefix+"compression"]; ok {
		for i, p := range listPartsInfo.Parts {
			listPartsInfo.Parts[i].Size = p.ActualSize
		}
	}

	MaxParts            int                 // used in GetObjectAttributes. Signals how many parts we should return
	PartNumberMarker    int                 // used in GetObjectAttributes. Signals the part number after which results should be returned
	PartNumber          int                 // only useful in case of GetObject/HeadObject

					ChecksumSHA1:      objInfo.Parts[i].Checksums["SHA1"],
					ChecksumSHA256:    objInfo.Parts[i].Checksums["SHA256"],
					ChecksumCRC32:     objInfo.Parts[i].Checksums["CRC32"],
					ChecksumCRC32C:    objInfo.Parts[i].Checksums["CRC32C"],
					ChecksumCRC64NVME: objInfo.Parts[i].Checksums["CRC64NVME"],
					PartNumber:        objInfo.Parts[i].Number,
					Size:              objInfo.Parts[i].Size,
				})
			}
		}