<dependencies>
    <dependency>
      <groupId>test</groupId>
      <artifactId>a</artifactId>
      <version>0.2</version>
      <scope>system</scope>
      <systemPath>should-use-variables-and-not-hard-code-this-path</systemPath>
    </dependency>
    <dependency>
      <groupId>test</groupId>
      <artifactId>b</artifactId>
      <version>0.1</version>
      <scope>system</scope>

code is a mathematical algorithm to reconstruct missing or corrupted data. MinIO uses Reed-Solomon code to shard objects into variable data and parity blocks. For example, in a 12 drive setup, an object can be sharded to a variable number of data and parity blocks across all the drives - ranging from six data and six parity blocks to ten data and two parity blocks.

By default, MinIO shards the objects across N/2 data and N/2 parity drives. Though, you can use [storage classes](https://github...

# Use of this source code is governed by a BSD-style
# license that can be found in the LICENSE file.

# Environment variables that control run.bash:
#
# GO_TEST_SHARDS: number of "dist test" test shards that the
# $GOROOT/test directory will be sliced up into for parallel
# execution. Defaults to 1, unless GO_BUILDER_NAME is also specified,
# in which case it defaults to 10.
#

	modCacheDir    = flag.String("zipsumcache", "", "module cache to use instead of temp directory")
	shardCount     = flag.Int("zipsumshardcount", 1, "number of shards to divide TestZipSums into")
	shardIndex     = flag.Int("zipsumshard", 0, "index of TestZipSums shard to test (0 <= zipsumshard < zipsumshardcount)")
)

const zipSumsPath = "testdata/zip_sums.csv"

type zipSumTest struct {
	m                     module.Version

				// Reading first time on this disk, hence the buffer needs to be allocated.
				// Subsequent reads will reuse this buffer.
				p.buf[bufIdx] = make([]byte, p.shardSize)
			}
			// For the last shard, the shardsize might be less than previous shard sizes.
			// Hence the following statement ensures that the buffer size is reset to the right size.
			p.buf[bufIdx] = p.buf[bufIdx][:p.shardSize]
			n, err := rr.ReadAt(p.buf[bufIdx], p.offset)

	flag.StringVar(&deploymentID, "deployment-id", "", "MinIO deployment ID, obtained from 'format.json'")
	flag.IntVar(&setCount, "set-count", 0, "Total set count")
	flag.IntVar(&shards, "shards", 0, "Total shards count")
	flag.BoolVar(&verbose, "v", false, "Display all objects")

	flag.Parse()

	if deploymentID == "" {
		log.Fatalln("deployment ID is mandatory")
	}

	if setCount == 0 {

	shards, ok := endpoints.ShardsForService(string(s.Hostname), s.Attributes.Namespace)
	if !ok {
		return nil
	}
	var pn string
	for _, p := range s.Ports {
		if p.Port == port {
			pn = p.Name
			break
		}
	}
	if pn == "" && port != 0 {
		return nil
	}
	shards.RLock()
	defer shards.RUnlock()

			originalEndpointsShard := &EndpointShards{
				Shards: map[ShardKey][]*IstioEndpoint{
					c1Key: cluster1Endppoints,
					c2Key: {{Address: "10.244.0.1", ServiceAccount: "sa1"}, {Address: "10.244.0.2", ServiceAccount: "sa-vm2"}},
				},
				ServiceAccounts: map[string]struct{}{
					"sa1":    {},
					"sa-vm1": {},
					"sa-vm2": {},
				},
			}
			originalEndpointsShard.Shards[tc.shardKey] = tc.endpoints

- We limited the number of drives to 16 for erasure set because, erasure code shards more than 16 can become chatty and do not have any performance advantages. Additionally since 16 drive erasure set gives you tolerance of 8 drives per object by default which is plenty in any practical scenario.

//
//    internal error in coverage meta-data tracking:
//    list of hard-coded runtime package IDs needs revising.
//    registered list:
//    slot: 0 path='internal/cpu'  hard-coded id: 1
//    slot: 1 path='internal/goarch'  hard-coded id: 2
//    slot: 2 path='internal/runtime/atomic'  hard-coded id: 3
//    slot: 3 path='internal/goos'
//    slot: 4 path='runtime/internal/sys'  hard-coded id: 5
//    slot: 5 path='internal/abi'  hard-coded id: 4